WO2019228397A1 - 净化-软化水处理系统、水处理方法及其平面阀 - Google Patents

净化-软化水处理系统、水处理方法及其平面阀 Download PDF

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Publication number
WO2019228397A1
WO2019228397A1 PCT/CN2019/089012 CN2019089012W WO2019228397A1 WO 2019228397 A1 WO2019228397 A1 WO 2019228397A1 CN 2019089012 W CN2019089012 W CN 2019089012W WO 2019228397 A1 WO2019228397 A1 WO 2019228397A1
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WIPO (PCT)
Prior art keywords
valve
channel
opening
water treatment
treatment system
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Application number
PCT/CN2019/089012
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English (en)
French (fr)
Inventor
胡霄宗
Original Assignee
宁波市科漫环保科技有限公司
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Publication date
Priority claimed from CN201820871993.3U external-priority patent/CN209041647U/zh
Priority claimed from CN201810536738.8A external-priority patent/CN110550758B/zh
Application filed by 宁波市科漫环保科技有限公司 filed Critical 宁波市科漫环保科技有限公司
Publication of WO2019228397A1 publication Critical patent/WO2019228397A1/zh

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    • B—PERFORMING OPERATIONS; TRANSPORTING
    • B01—PHYSICAL OR CHEMICAL PROCESSES OR APPARATUS IN GENERAL
    • B01J—CHEMICAL OR PHYSICAL PROCESSES, e.g. CATALYSIS OR COLLOID CHEMISTRY; THEIR RELEVANT APPARATUS
    • B01J49/00—Regeneration or reactivation of ion-exchangers; Apparatus therefor
    • C—CHEMISTRY; METALLURGY
    • C02—TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F—TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F1/00—Treatment of water, waste water, or sewage
    • C02F1/42—Treatment of water, waste water, or sewage by ion-exchange
    • C—CHEMISTRY; METALLURGY
    • C02—TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F—TREATMENT OF WATER, WASTE WATER, SEWAGE, OR SLUDGE
    • C02F5/00—Softening water; Preventing scale; Adding scale preventatives or scale removers to water, e.g. adding sequestering agents
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F16—ENGINEERING ELEMENTS AND UNITS; GENERAL MEASURES FOR PRODUCING AND MAINTAINING EFFECTIVE FUNCTIONING OF MACHINES OR INSTALLATIONS; THERMAL INSULATION IN GENERAL
    • F16K—VALVES; TAPS; COCKS; ACTUATING-FLOATS; DEVICES FOR VENTING OR AERATING
    • F16K11/00—Multiple-way valves, e.g. mixing valves; Pipe fittings incorporating such valves
    • F16K11/02—Multiple-way valves, e.g. mixing valves; Pipe fittings incorporating such valves with all movable sealing faces moving as one unit
    • F16K11/06—Multiple-way valves, e.g. mixing valves; Pipe fittings incorporating such valves with all movable sealing faces moving as one unit comprising only sliding valves, i.e. sliding closure elements
    • F16K11/072—Multiple-way valves, e.g. mixing valves; Pipe fittings incorporating such valves with all movable sealing faces moving as one unit comprising only sliding valves, i.e. sliding closure elements with pivoted closure members
    • F16K11/074—Multiple-way valves, e.g. mixing valves; Pipe fittings incorporating such valves with all movable sealing faces moving as one unit comprising only sliding valves, i.e. sliding closure elements with pivoted closure members with flat sealing faces

Definitions

  • the invention relates to the technical field of water treatment, in particular to a purification-demineralizing water treatment system, wherein the purification-demineralizing water treatment system of the invention is capable of purifying and softening water. Further, the purification-demineralized water treatment system can realize purification and softening treatment of raw water (or water to be treated) through a single control valve, such as a fluid valve, so that users can obtain purified water and demineralized water at the same time. Therefore, the present invention further relates to a plane valve for a purification-softening water treatment system.
  • Water treatment machines especially domestic water treatment machines, such as central water purifiers and water softeners, are often installed in the kitchen to treat the water and get cleaner water.
  • water treatment machines can generally be divided into water purifiers and water softeners.
  • Common water purifiers such as activated carbon filter water purifiers, ultrafiltration water purifiers, RO membrane water purifiers, etc., are mostly used to remove impurities in the water, such as harmful substances and foreign objects.
  • the water softener is mainly used to remove the calcium ion plasma in the water.
  • Ultrafiltration water purifiers and RO membrane water purifiers are more clean and suitable for drinking.
  • the soft water obtained by processing the raw water is more suitable for bathing because it contains fewer calcium ions. Do laundry, etc. Some people think that soft water is more suitable for beauty.
  • the existing water treatment machines or water treatment systems with composite water treatment functions are mostly water treatment machines that simply purify water, such as activated carbon-ultrafiltration filtration composite water purification system and ultrafiltration-RO membrane composite water purification system. , PP cotton-activated carbon composite water purification system, etc., but there are few water purification-softening composite water treatment systems.
  • the main reason is that when purifying water and softening it, there is a big difference in mechanism or mechanism between the two.
  • the water softener needs to periodically replenish the softening tank (or softening resin) with saline solution (usually a NaCl solution) and clean the softening tank to avoid the softening resin in the softening tank from losing its activity.
  • the water softener needs to add water to its salt (liquid) tank to prevent the salt solution in the salt tank from being depleted and unable to supply the salt liquid to the softening tank.
  • all water treatment systems involve water flow control. Due to the complexity of the structure and function of the water softener that softens the water, the purification-softening composite water treatment system needs to form a complex waterway and can achieve reasonable control of it. In order to achieve simultaneous control of the water purification channel and the softened waterway, most of the existing purification-softening composite water treatment systems have more than two plane valves, which ultimately results in the entire water treatment system mechanism being bloated, bulky, and a poor user experience. .
  • water treatment machines especially domestic water treatment machines, are generally installed under the countertop of the kitchen, such as under the sink.
  • the huge volume of the existing purification-softening composite water treatment system occupies too much space and also brings great inconvenience to the installation of users. Not to mention, maintenance and filter replacement in the event of a water treatment system failure.
  • the main advantage of the present invention is that it provides a purification-softening water treatment system, wherein the purification-softening water treatment system has at least one water purification device (water purification mechanism), such as an ultrafiltration filter element, an activated carbon filter element, and a mesh filter. Or laminated filters, and at least one water softening device (water softening mechanism), such as a softening tank with softening resin built-in, to sequentially purify and soften the raw water or water to be treated.
  • water purification mechanism such as an ultrafiltration filter element, an activated carbon filter element, and a mesh filter.
  • water softening device water softening mechanism
  • Another advantage of the present invention is that it provides a purification-demineralizing water treatment system, wherein the water-purifying device and the water-softening device of the purification-demineralizing water treatment system are connected in series, and the water-purifying device of the purification-softening water treatment system It is located upstream of the water softening device, so that the water softening device can treat the purified water from the water purification device to obtain clean softened water.
  • Another advantage of the present invention is that it provides a purification-demineralized water treatment system, wherein the water purification device, the water-softening device, and a plane valve of the purification-demineralized water treatment system pass between the water purification device Corresponding water channels are connected, so that the water purification water channel and the water softening water channel are controlled, and the raw water is sequentially purified and softened.
  • the purified water processed by the water purification device flows to the water purification passage and the water inlet of the water softening device in order, so as to provide the water softening device with purified water.
  • Another advantage of the present invention is that it provides a purification-demineralized water treatment system, wherein the plane valve of the purification-demineralized water treatment system can control the purification-demineralized water treatment system to purify and soften the water, and also It can further control the purification-demineralized water treatment system to realize other functions, such as rinsing the softening tank, replenishing salt solution to the softening tank, and adding water to the salt (water) tank.
  • Another advantage of the present invention is that it provides a purification-demineralized water treatment system, in which the plane valve of the purification-demineralized water treatment system can form multiple water channels (or communication channels) that do not interfere with each other at different working positions, thereby Achieve the above-mentioned various functions of the water treatment system of the present invention.
  • Another advantage of the present invention is that it provides a purification-softening water treatment system suitable for purifying and softening raw water, wherein the purification-softening water treatment system does not require precise parts and complicated structures, and its manufacturing process is simple ,low cost.
  • the purification-demineralized water treatment system of the present invention capable of achieving the foregoing objects and other objects and advantages includes:
  • a plane valve wherein the plane valve includes a valve body, a moving valve disc and a fixed valve disc, wherein the valve body forms an inner cavity, a first opening, a second opening, a third opening, a fourth Opening, a fifth opening, a sixth opening, and a seventh opening, the fixed valve plate has a first fluid control surface, the moving valve plate has a second fluid control surface, wherein the moving valve plate and the fixed valve The discs are all disposed in the inner cavity, wherein the second fluid control surface of the moving valve disc is disposed on the first fluid control surface of the fixed valve disc, and the moving valve disc is configured to be rotatable relative to the fixed valve disc. ;
  • a purification device wherein the purification device has a first communication opening and a second communication opening;
  • a softening device wherein the softening device comprises a softening box, wherein the softening box has a first conducting opening and a second conducting opening, wherein the inner cavity of the valve body is in communication with the first opening, wherein the The first communication opening of the purification device is in communication with the fifth opening of the valve body, and the second communication opening of the purification device and the first communication opening of the softening box are both connected to the sixth opening of the valve body In communication, the second conduction opening of the softening box is in communication with the seventh opening of the valve body.
  • the purified-demineralized water treatment system of the present invention further includes a jet and a salt tank, wherein the jet has a third opening adapted to be connected to the third opening of the valve body.
  • the injection port and the injection port adapted to communicate with the fourth opening of the valve body, wherein the salt liquid tank is adapted to communicate with the ejector so that the salt liquid from the salt liquid tank can pass through the salt liquid tank.
  • the purified-demineralized water treatment system of the present invention has a first working state, a second working state, a third working state, a fourth working state, and a fifth working state.
  • the moving valve plate and the fixed valve plate of the plane valve form a connection with the inner cavity and the fifth opening of the valve body, respectively
  • the first communication channel and a second communication channel respectively communicating with the second opening and the seventh opening of the valve body, and the plane is in the second working state when the purification-demineralized water treatment system is in the second working state.
  • the moving valve plate and the fixed valve plate of the valve form a third communication channel communicating with the inner cavity and the seventh opening of the valve body, and a sixth opening and a drain opening respectively with the valve body.
  • a fourth communication passage that is in communication when the purification-demineralized water treatment system is in the third working state, the moving valve plate and the fixed valve plate of the plane valve form a separate cavity with the inner cavity of the valve body and The sixth opening phase
  • the fifth communication passage and a sixth communication passage respectively communicating with the seventh opening and the sewage opening of the valve body.
  • the plane valve When the purification-demineralized water treatment system is in the fourth working state, the plane valve
  • the moving valve plate and the fixed valve plate form a seventh communication channel that communicates with the inner cavity and the fourth opening of the valve body, respectively.
  • the moving valve disc and the fixed valve disc of the plane valve form an eighth communication passage which communicates with the inner cavity and the fifth opening of the valve body, respectively, and a sixth opening and the sixth opening of the valve body, respectively.
  • the ninth communication passage communicated with the drain opening.
  • the purified-demineralized water treatment system of the present invention has a sixth working state and a seventh working state, wherein when the purified-demineralized water treatment system is in the sixth working state At this time, the moving valve plate and the fixed valve plate of the plane valve form a tenth communication passage which communicates with the fifth opening and the drain opening of the valve body, respectively, and a inner cavity and the inner cavity of the valve body, respectively.
  • the plane valve of the purification-demineralizing water treatment system of the present invention has a first channel, a second channel, a third channel, a fourth channel, and a fifth channel.
  • a sixth channel, a seventh channel, an eighth channel, a ninth channel, a tenth channel, and an eleventh channel wherein the first channel, the second channel, the third channel, the first channel Four channels, the fifth channel, the sixth channel, the seventh channel, and the eighth channel are respectively provided on the fixed valve disc and respectively extend from the first fluid control surface of the fixed valve disc; the ninth channel, The tenth channel and the eleventh channel are respectively provided on the moving valve disc and respectively extend from the second fluid control surface of the moving valve disc, wherein the first channel and the second channel are respectively connected to the fifth opening.
  • the third channel and the fourth channel communicate with the seventh opening
  • the fifth channel communicates with the second opening
  • the sixth channel communicates with the third opening
  • the seventh channel communicates with the third opening
  • the fourth opening communicates with the eighth
  • the channel is in communication with the sixth opening
  • the ninth channel is in communication with the inner cavity of the valve body
  • the eleventh channel is in communication with the sewage opening.
  • the plane valve of the purification-softening water treatment system of the present invention has a first working position, a second working position, a third working position, a fourth working position and A fifth working position, wherein when the plane valve is in the first working position, the ninth channel of the plane valve is in communication with the first channel, thereby forming the first communication channel, and the tenth channel is respectively connected with the first channel.
  • the three channels communicate with the fifth channel to form the second communication channel; when the plane valve is in the second working position, the ninth channel of the plane valve communicates with the fourth channel to form the first channel Three communication channels, the eleventh channel communicates with the eighth channel to form the fourth communication channel; when the plane valve is in the third working position, the ninth channel and the eighth channel of the plane valve Communicate with each other to form the fifth communication channel, the eleventh channel of the plane valve communicates with the third channel to form the sixth communication channel; when the plane valve is in the fourth working position, the plane The ninth channel of the plane valve communicates with the seventh channel to form the seventh communication channel; when the plane valve is in the fifth working position, the ninth channel of the plane valve communicates with the second channel, thereby The eighth communication passage is formed, and the eleventh passage of the plane valve communicates with the eighth passage, thereby forming the ninth communication passage.
  • the plane valve of the purification-demineralization water treatment system of the present invention further has a sixth working position and a seventh working position, wherein when the plane valve is in the sixth working position When the eleventh channel of the plane valve communicates with the first channel to form the tenth communication channel, the eighth channel communicates with the ninth channel to form the twelfth communication channel; when the plane When the valve is in the seventh working position, the ninth channel of the plane valve communicates with the sixth channel to form the eleventh communication channel, and the tenth channel is connected to the fourth channel and the seventh channel, respectively. Communication to form the thirteenth communication channel, and the eleventh channel communicates with the eighth channel, thereby forming the fourteenth communication channel.
  • the present invention further provides a plane valve for a purification-softening water treatment system, wherein the plane valve includes:
  • a fixed valve disc wherein the valve body forms an inner cavity, a first opening, a second opening, a third opening, a fourth opening, a fifth opening, a sixth opening, and a seventh opening.
  • the fixed valve disc has a first fluid control surface
  • the moving valve disc has a second fluid control surface, wherein the moving valve disc and the fixed valve disc are both disposed in the inner cavity, wherein the second of the moving valve disc
  • a fluid control surface is provided on the first fluid control surface of the fixed valve plate, and the moving valve plate is provided to be able to rotate relative to the fixed valve plate, wherein the flat valve has a first passage, a second passage, and a first passage.
  • Three channels a fourth channel, a fifth channel, a sixth channel, a seventh channel, an eighth channel, a ninth channel, a tenth channel, and an eleventh channel, where the first channel, The second channel, the third channel, the fourth channel, the fifth channel, the sixth channel, the seventh channel, and the eighth channel are respectively provided on the fixed valve disc and respectively from the fixed valve disc.
  • the ninth channel, the tenth channel and the eleventh channel are respectively provided on the moving valve disc and respectively extend from the second fluid control surface of the moving valve disc, wherein the inner cavity of the valve body and the first The openings communicate with each other, the first channel and the second channel communicate with the fifth opening, the third channel and the fourth channel communicate with the seventh opening, and the fifth channel is connected with the second opening.
  • the sixth channel communicates with the third opening, the seventh channel communicates with the fourth opening, the eighth channel communicates with the sixth opening, the ninth channel communicates with the inner cavity of the valve body Connected.
  • the present invention further provides a waterway control method for a purification-softening water treatment system, which includes the following steps:
  • the first communication opening that sequentially connects the purifying device of the purifying-softening water treatment system and the purifying device of the purifying-softening water treatment system are formed in this order.
  • a softening device backwashing water path is formed which sequentially connects the second conduction opening of the softening device and the first conduction opening of the softening device. So that raw water can flow from the second conduction opening of the softening device to the first conduction opening of the softening device and cause the softening device to be flushed back;
  • FIG. 1 is a schematic front view of a purified-demineralized water treatment system according to a first preferred embodiment of the present invention.
  • FIG. 2 is an assembly diagram of the purification-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • Fig. 3 is a perspective view of a plane valve of the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 4 is an assembly view of the planar valve of the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 5A is a perspective view of a valve body of the planar valve of the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention.
  • 5B is another perspective view of the valve body of the planar valve of the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention.
  • 6A is a cross-sectional view of a plane valve of the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention, wherein the figure shows that the inner cavity of the plane valve is in communication with the first opening of the valve body of the plane valve, It is also shown that the eighth passage of the fixed valve disc of the plane valve is in communication with the sixth opening of the valve body.
  • FIG. 6B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the figure shows the first opening, the second opening, and the third opening of the valve body of the planar valve , Fourth opening, fifth opening, sixth opening, and seventh opening.
  • FIG. 6C is another cross-sectional view of the planar valve of the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention, wherein the figure shows that the eleventh channel of the moving valve disc of the planar valve is connected to the drain opening through.
  • FIG. 6D is a perspective view of the fixed valve plate and the valve body of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 7A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at a first Working position.
  • FIG 7B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the first Working position.
  • FIG. 7C is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the first Working position.
  • FIG 7D is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the first Working position.
  • FIG 8A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at a second Working position.
  • FIG 8B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the second Working position.
  • FIG. 9A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at a third Working position.
  • FIG. 9B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the third Working position.
  • FIG. 10 is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at a fourth Working position.
  • 11A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at a fifth Working position.
  • 11B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the fifth Working position.
  • FIG. 12A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at a sixth position; Working position.
  • FIG. 12B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the sixth Working position.
  • FIG. 13A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the purified-demineralized water treatment system of the present invention shown in the figure is in a seventh working position.
  • FIG 13B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the seventh Working position.
  • FIG 13C is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the seventh Working position.
  • FIG 13D is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the seventh Working position.
  • FIG. 14A is a perspective view of the fixed valve plate of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 14B is a perspective view of the moving valve plate of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 14C is a top view of the fixed valve plate of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • 14D is a top view of the moving valve plate of the planar valve of the purification-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 14E is a bottom view of the fixed valve plate of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 14F is a bottom view of the moving valve plate of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • 15A is a schematic structural diagram of the purification-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a purification-softening working state, and the arrows in the figure point to Flow direction.
  • 15B is another schematic structural diagram of the purification-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a softening filter (or softening box) backwashing operation State, the arrow in the figure points to the direction of water flow.
  • FIG. 15C is another schematic structural diagram of the purification-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a state where the softening filter element (softening device) is being washed.
  • the arrow in the figure points to the direction of the water flow.
  • 15D is another schematic structural diagram of the purification-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a state of replenishing work, and the arrows in the figure point to Flow direction.
  • FIG. 15E is another schematic structural diagram of the purification-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a state where the purification device is being washed.
  • the arrows point in the direction of the current.
  • FIG. 15F is another schematic structural diagram of the purification-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a backwashing working state of the purification device.
  • the arrows point in the direction of the current.
  • 15G is another schematic structural diagram of the purification-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a state of softening filter element regeneration, and the arrow in the figure Pointing for the direction of water flow.
  • FIG. 16A is a schematic structural diagram of a fixed valve plate of a planar valve of the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 16B is a schematic structural diagram of a moving valve plate of a planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein a broken line in the figure shows a conduction passage of the moving valve plate.
  • FIG. 16C is an exploded schematic diagram of the fixed valve plate of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the figure shows the specific halved of each channel provided on the fixed valve plate position.
  • FIG. 16D is an exploded schematic diagram of the moving valve disc of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the figure shows the specific halving of each channel provided on the moving valve disc position.
  • FIG. 17A is the communication between the passage of the moving valve plate and the passage of the fixed valve plate of the plane valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention in its first working position;
  • FIG. 17B is the communication between the passage of the moving valve disc and the passage of the fixed valve disc of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention in its second working position;
  • FIG. 17C is the communication between the passage of the moving valve disc and the passage of the fixed valve disc of the plane valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention in its third working position;
  • FIG. 17D is the communication between the passage of the moving valve disc and the passage of the fixed valve disc of the plane valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention in its fourth working position;
  • FIG. 17E is the communication between the passage of the moving valve plate and the passage of the fixed valve plate of the plane valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention in its fifth working position; Schematic diagram, where the shaded part of the figure shows the communication passage between the moving valve disc and the fixed valve disc of the plane valve.
  • 17F is the communication between the passage of the moving valve disc and the passage of the fixed valve disc of the plane valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention in its sixth working position; Schematic diagram, where the shaded part of the figure shows the communication passage between the moving valve disc and the fixed valve disc of the plane valve.
  • FIG. 17G is the communication between the passage of the moving valve disc and the passage of the fixed valve disc of the plane valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention in its seventh working position;
  • FIG. 18A is a perspective view of an alternative implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 18B is a cross-sectional view of an alternative implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 18C is a perspective view of another alternative implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 18D is a perspective view of another optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 19 shows another alternative implementation of the flat valve of the purification-demineralization water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 20 is an assembly view of the alternative embodiment of the planar valve of the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 21A is a perspective view of a valve body of the alternative embodiment of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 21B is another perspective view of the valve body of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • 22A is a cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the figure shows the inner cavity of the planar valve and the first An opening communicates, and it also shows that the eighth passage of the fixed valve disc of the plane valve is in communication with the sixth opening of the valve body.
  • 22B is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the figure shows the first opening, the first Two openings, a third opening, a fourth opening, a fifth opening, a sixth opening, and a seventh opening.
  • 22C is another cross-sectional view of the alternative implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the figure shows the eleventh channel of the moving valve plate of the planar valve and The drain openings communicate with each other.
  • 22D is a perspective view of the fixed valve plate and the valve body of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • 23A is another cross-sectional view of the alternative implementation of the planar valve of the purification-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purification-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a first job.
  • 23B is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the first working position.
  • 23C is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the first working position.
  • 23D is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the first working position.
  • 24A is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a second working position.
  • FIG. 24B is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the second working position.
  • 25A is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a third working position.
  • 25B is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the third working position.
  • FIG. 26 is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a fourth working position.
  • 27A is another cross-sectional view of the optional implementation of the planar valve of the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purification-demineralizing water treatment system of the present invention shown in the figure This optional implementation is in a fifth working position.
  • 27B is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the fifth working position.
  • FIG. 27C is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the fifth working position.
  • FIG. 28A is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a sixth position.
  • FIG. 28B is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the sixth working position.
  • FIG. 29A is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a seventh working position.
  • FIG. 29B is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the seventh working position.
  • FIG. 29C is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the seventh working position.
  • FIG. 29D is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the seventh working position.
  • FIG. 30A is a perspective view of the fixed valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 30B is a perspective view of the moving valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 30C is a top view of the fixed valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 30D is a top view of the moving valve disc of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 30E is a bottom view of the fixed valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 30F is a bottom view of the moving valve disc of the alternative embodiment of the planar valve of the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 31A is a schematic structural diagram of the optional implementation of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, in which the purified-demineralized water treatment system shown in the figure is in a purified-softened working state.
  • the arrows in the figure point to the direction of the water flow.
  • FIG. 31B is another structural diagram of the optional implementation of the purification-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a softened filter element (or softened) (Box) backwash working state, the arrow in the figure points to the direction of water flow.
  • a softened filter element or softened
  • FIG. 31C is another structural diagram of the optional implementation of the purification-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a softening filter element (softening device) ) The washing is in a working state.
  • the arrow in the figure points to the direction of water flow.
  • FIG. 31D is another schematic structural diagram of the optional implementation of the purification-demineralized water treatment system according to the first preferred embodiment of the present invention, in which the purification-demineralized water treatment system shown in the figure is in a state of replenishing work, and The arrows in the figure point to the direction of the water flow.
  • FIG. 31E is another schematic structural diagram of the optional implementation of the purification-demineralized water treatment system according to the first preferred embodiment of the present invention, in which the purification-demineralized water treatment system shown in the figure is under the washing operation of the purification device State, the arrow in the figure points to the direction of water flow.
  • FIG. 31F is another schematic structural diagram of the optional implementation of the purification-demineralized water treatment system according to the first preferred embodiment of the present invention, in which the purification-demineralized water treatment system shown in the figure is in a backwashing operation of a purification device State, the arrow in the figure points to the direction of water flow.
  • FIG. 31G is another schematic structural diagram of the optional implementation of the purification-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a state of regenerating the softened filter element.
  • the arrow in the figure points to the direction of the water flow.
  • FIG. 32A is a schematic structural diagram of a fixed valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 32B is a schematic structural diagram of a movable valve plate of the optional implementation of the planar valve of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the dotted line in the figure shows the dynamic Conducting passage of the valve disc.
  • FIG. 32C is an exploded schematic view of the fixed valve disc of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the figure shows that each channel is provided on the fixed valve Specific aliquots of the slice.
  • FIG. 32D is an exploded schematic view of the moving valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the figure shows that each channel is provided on the moving valve Specific aliquots of the slice.
  • FIG. 33A is a schematic view of the passage of the moving valve plate and the fixed valve plate of the plane valve when the optional implementation of the plane valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention is in its first working position;
  • FIG. 33B shows the above-mentioned alternative implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention in its second working position.
  • a schematic diagram of the communication between the channels The shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 33C shows the above-mentioned alternative implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention in its third working position.
  • the shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 33D shows the above-mentioned alternative implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention when the optional valve is in its fourth working position.
  • a schematic diagram of the communication between the channels The shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 33E is the plan view of the moving valve plate and the fixed valve plate of the planar valve when the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention is in its fifth working position;
  • FIG. 33F is a diagram illustrating the passage of the moving valve plate and the fixed valve plate of the plane valve when the optional implementation of the plane valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention is in its sixth working position;
  • FIG. 33G shows the above-mentioned alternative implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention when the optional valve is in its seventh working position.
  • FIG. 34A is a perspective view showing another alternative implementation of the flat valve of the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 34B is a cross-sectional view showing another alternative embodiment of the flat valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • Fig. 35 is a perspective view showing another alternative implementation of the flat valve of the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 36 is a perspective view showing another alternative implementation of the flat valve of the purification-demineralization water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 37 shows another alternative implementation of the planar valve of the purification-demineralization water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 38 shows a cross-sectional view of the alternative implementation of a planar valve of a purified-demineralized water treatment system according to a first preferred embodiment of the present invention, wherein the figure shows different parts of the eighth channel of the planar valve And communicate with the sixth openings, respectively.
  • FIG. 39A is a schematic structural diagram of a fixed valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • FIG. 39B is an exploded schematic view of the fixed valve disc of the optional implementation of the above-mentioned plane valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, wherein the figure shows that each channel is provided on the fixed valve Specific aliquots of the slice.
  • FIG. 40A shows the above-mentioned alternative implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention when the optional valve is in its first working position.
  • a schematic diagram of the communication between the channels The shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 40B shows the above-mentioned alternative implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention.
  • the shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 40C shows the above-mentioned alternative implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention in its third working position.
  • the shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 40D shows the above-mentioned alternative implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention in its fourth working position.
  • the shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 40E is the above-mentioned alternative implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention in its fifth working position, the passage of the moving valve plate and the fixed valve plate of the flat valve A schematic diagram of the communication between the channels.
  • the shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 40F is the above-mentioned alternative implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention when the optional valve is in its sixth working position, A schematic diagram of the communication between the channels.
  • the shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 40G is the above-mentioned alternative implementation of the planar valve of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention, when the optional operation of the planar valve in its seventh working position, A schematic diagram of the communication between the channels.
  • the shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 41 is a schematic front view of a purified-demineralized water treatment system according to a second preferred embodiment of the present invention.
  • FIG. 42 is an assembly diagram of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention.
  • Fig. 43 is a perspective view of a plane valve of the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 44 is an assembly view of the planar valve of the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 45A is a perspective view of a valve body of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention.
  • 45B is another perspective view of the valve body of the planar valve of the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention.
  • 46A is a cross-sectional view of a plane valve of the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention, wherein the figure shows that the inner cavity of the plane valve is in communication with the first opening of the valve body of the plane valve, It is also shown that the eighth passage of the fixed valve disc of the plane valve is in communication with the sixth opening of the valve body.
  • FIG. 46B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the figure shows the first opening, the second opening, and the third opening of the valve body of the planar valve. , Fourth opening, fifth opening, sixth opening, and seventh opening.
  • 46C is another cross-sectional view of the planar valve of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the figure shows that the eleventh channel of the moving valve disc of the planar valve is connected to the sewage opening through.
  • FIG. 46D is a perspective view of the fixed valve plate and the valve body of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention.
  • 46E is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the figure shows the fifth passage of the fixed valve plate of the planar valve.
  • FIG. 47A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, in which the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at a first Working position.
  • FIG. 47B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the first Working position.
  • 47C is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the first Working position.
  • FIG. 47D is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the first Working position.
  • FIG. 48A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at a second Working position.
  • FIG. 48B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, in which the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the second Working position.
  • 49A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at a third Working position.
  • FIG. 49B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, in which the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the third Working position.
  • FIG. 50 is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, in which the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at a fourth Working position.
  • 51A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at a fifth Working position.
  • 51B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the fifth Working position.
  • 52A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is in a sixth position; Working position.
  • 52B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the sixth Working position.
  • FIG. 53A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the purified-demineralized water treatment system of the present invention shown in the figure is in a seventh working position.
  • 53B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the seventh Working position.
  • 53C is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the seventh Working position.
  • 53D is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the seventh Working position.
  • FIG. 54A is a perspective view of the fixed valve plate of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 54B is a perspective view of the moving valve plate of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 54C is a top view of the fixed valve plate of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 54D is a top view of the moving valve plate of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 54E is a bottom view of the fixed valve plate of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 54F is a bottom view of the moving valve plate of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 55A is a schematic structural diagram of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a purification-demineralization working state, and the arrows in the figure point to Flow direction.
  • FIG. 55B is another schematic structural diagram of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in the backwashing operation of the softening filter element (or softening box). State, the arrow in the figure points to the direction of water flow.
  • 55C is another schematic structural diagram of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a state where the softening filter element (softening device) is being washed.
  • the arrow in the figure points to the direction of the water flow.
  • 55D is another schematic structural diagram of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention.
  • the purification-demineralized water treatment system shown in the figure is in a state of replenishing work.
  • the arrow in the figure is Flow direction.
  • 55E is another schematic structural diagram of the purification-demineralized water treatment system according to the above-mentioned second preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a state where the purification device is being washed.
  • the arrows point in the direction of the current.
  • FIG. 55F is another schematic structural diagram of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a backwashing working state of the purification device.
  • the arrows point in the direction of the current.
  • FIG. 55G is another schematic structural diagram of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a state of softening filter element regeneration, and the arrow in the figure Pointing for the direction of water flow.
  • Fig. 56A is a schematic structural view of a fixed valve plate of a planar valve of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 56B is a schematic structural diagram of a moving valve plate of a planar valve of the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention, wherein a broken line in the figure shows a conduction channel of the moving valve plate.
  • FIG. 56C is an exploded schematic diagram of a fixed valve disc of a planar valve of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the figure shows a specific aliquot of each channel provided on the fixed valve disc position.
  • FIG. 56D is a schematic bisector diagram of the moving valve disc of the planar valve of the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention, wherein the figure shows the specific halving of each channel provided on the moving valve disc position.
  • FIG. 57A is the communication between the passage of the moving valve disc and the passage of the fixed valve disc of the plane valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention in its first working position;
  • FIG. 57B is the communication between the passage of the moving valve disc and the passage of the fixed valve disc of the plane valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention in its second working position;
  • 57C is the communication between the passage of the moving valve disc and the passage of the fixed valve disc of the plane valve of the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention in its third working position; Schematic diagram, where the shaded part of the figure shows the communication passage between the moving valve disc and the fixed valve disc of the plane valve.
  • FIG. 57D is the communication between the passage of the moving valve disc and the passage of the fixed valve disc of the plane valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention in its fourth working position;
  • FIG. 57E is the communication between the passage of the moving valve disc and the passage of the fixed valve disc of the plane valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention in its fifth working position; Schematic diagram, where the shaded part of the figure shows the communication passage between the moving valve disc and the fixed valve disc of the plane valve.
  • FIG. 57F is the communication between the passage of the moving valve disc and the passage of the fixed valve disc of the plane valve of the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention in its sixth working position;
  • FIG. 57G is the communication between the passage of the moving valve disc and the passage of the fixed valve disc of the plane valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention in its seventh working position; Schematic diagram, where the shaded part of the figure shows the communication passage between the moving valve disc and the fixed valve disc of the plane valve.
  • FIG. 58A is a perspective view of an alternative implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 58B is a cross-sectional view of an alternative implementation of the planar valve of the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 58C is a perspective view of another alternative implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention.
  • Fig. 58D is a perspective view of another alternative implementation of the planar valve of the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 59 shows another alternative implementation of the plane valve of the purification-demineralization water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 60 is an assembly view of the alternative embodiment of the planar valve of the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 61A is a perspective view of a valve body of the alternative embodiment of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention.
  • 61B is another perspective view of the valve body of the alternative embodiment of the planar valve of the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 62A is a cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the figure shows the inner cavity of the planar valve and the first An opening communicates, and it also shows that the eighth passage of the fixed valve disc of the plane valve is in communication with the sixth opening of the valve body.
  • 62B is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the figure shows the first opening, the first Two openings, a third opening, a fourth opening, a fifth opening, a sixth opening, and a seventh opening.
  • FIG. 62C is another cross-sectional view of the optional implementation of the planar valve of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the figure shows the eleventh channel of the moving valve plate of the planar valve and The drain openings communicate with each other.
  • FIG. 62D is a perspective view of the fixed valve plate and the valve body of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 62E is another cross-sectional view of the alternative implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the figure shows the fifth passage of the fixed valve plate of the planar valve.
  • 63A is another cross-sectional view of the optional implementation of the planar valve of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purification-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a first job.
  • 63B is another cross-sectional view of the alternative implementation of the planar valve of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purification-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the first working position.
  • 63C is another cross-sectional view of the optional implementation of the planar valve of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purification-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the first working position.
  • 63D is another cross-sectional view of the alternative implementation of the planar valve of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purification-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the first working position.
  • 64A is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a second working position.
  • 64B is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the second working position.
  • 65A is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a third working position.
  • 65B is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the third working position.
  • FIG. 66 is another cross-sectional view of the optional implementation of the planar valve of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purification-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a fourth working position.
  • 67A is another cross-sectional view of the optional implementation of the planar valve of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purification-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a fifth working position.
  • 67B is another cross-sectional view of the optional implementation of the planar valve of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the fifth working position.
  • 67C is another cross-sectional view of the alternative implementation of the planar valve of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purification-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the fifth working position.
  • 68A is another cross-sectional view of the alternative implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a sixth position.
  • 68B is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the sixth working position.
  • 69A is another cross-sectional view of the optional implementation of the planar valve of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purification-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a seventh working position.
  • 69B is another cross-sectional view of the optional implementation of the planar valve of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the seventh working position.
  • 69C is another cross-sectional view of the alternative implementation of the planar valve of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purification-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the seventh working position.
  • 69D is another cross-sectional view of the alternative implementation of the planar valve of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the planar valve of the purification-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the seventh working position.
  • FIG. 70A is a perspective view of the fixed valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 70B is a perspective view of the moving valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 70C is a top view of the fixed valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 70D is a top view of the moving valve disc of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 70E is a bottom view of the fixed valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 70F is a bottom view of the moving valve disc of the alternative embodiment of the planar valve of the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 71A is a schematic structural diagram of the optional implementation of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, in which the purification-demineralized water treatment system shown in the figure is in a purification-softening working state.
  • the arrows in the figure point to the direction of the water flow.
  • FIG. 71B is another schematic structural diagram of the optional implementation of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a softened filter element (or softened) (Box) backwash working state, the arrow in the figure points to the direction of water flow.
  • a softened filter element or softened
  • FIG. 71C is another structural diagram of the optional implementation of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a softening filter (softening device) ) The washing is in a working state.
  • the arrow in the figure points to the direction of water flow.
  • FIG. 71D is another schematic structural diagram of the optional implementation of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a state of replenishing water, and The arrows in the figure point to the direction of the water flow.
  • FIG. 71E is another schematic structural diagram of the optional implementation of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, in which the purification-demineralized water treatment system shown in the figure is under the washing operation of the purification device State, the arrow in the figure points to the direction of water flow.
  • FIG. 71F is another schematic structural diagram of the optional implementation of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, in which the purification-demineralized water treatment system shown in the figure is in the backwashing operation of the purification device State, the arrow in the figure points to the direction of water flow.
  • FIG. 71G is another schematic structural diagram of the optional implementation of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, in which the purification-demineralized water treatment system shown in the figure is in a softened filter element regeneration working state
  • the arrow in the figure points to the direction of the water flow.
  • FIG. 72A is a schematic structural diagram of a fixed valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 72B is a schematic structural diagram of a movable valve disc of the optional implementation of the planar valve of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the dashed line in the figure shows the dynamic Conducting passage of the valve disc.
  • FIG. 72C is an exploded schematic view of the fixed valve disc of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the figure shows that each channel is provided on the fixed valve Specific aliquots of the slice.
  • FIG. 72D is an exploded schematic diagram of the moving valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the figure shows that each channel is provided on the moving valve Specific aliquots of the slice.
  • FIG. 73A is a diagram showing the passage of the moving valve plate and the fixed valve plate of the plane valve when the optional implementation of the plane valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention is in its first working position;
  • FIG. 73B shows the above-mentioned alternative implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention when the optional valve is in its second working position, A schematic diagram of the communication between the channels.
  • the shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 73C is the above-mentioned alternative implementation of the planar valve of the purification-demineralization water treatment system according to the second preferred embodiment of the present invention in its third working position, the channel of the moving valve plate and the fixed valve plate of the planar valve A schematic diagram of the communication between the channels.
  • the shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 73D is a diagram showing the passage of the moving valve plate and the fixed valve plate of the planar valve when the optional implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention is in its fourth working position;
  • FIG. A schematic diagram of the communication between the channels. The shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 73E shows the above-mentioned alternative implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention in its fifth working position.
  • the shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 73F is a diagram illustrating the passage of the moving valve plate and the fixed valve plate of the planar valve when the optional implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention is in its sixth working position; A schematic diagram of the communication between the channels.
  • the shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 73G is the above-mentioned alternative implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, when the optional implementation of the planar valve is in its seventh working position, A schematic diagram of the communication between the channels.
  • the shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 74A shows a perspective view of another alternative implementation of a plane valve of a purification-demineralization water treatment system according to a second preferred embodiment of the present invention.
  • FIG. 74B is a cross-sectional view showing another alternative embodiment of the flat valve of the purification-demineralization water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 75 shows a perspective view of another alternative implementation of a plane valve of a purification-demineralization water treatment system according to a second preferred embodiment of the present invention.
  • FIG. 76 is a perspective view showing another alternative implementation of the flat valve of the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 77 shows another alternative implementation of the flat valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 78 shows a cross-sectional view of the alternative implementation of a planar valve of a purified-demineralized water treatment system according to a second preferred embodiment of the present invention, wherein the figure shows different parts of the eighth channel of the planar valve And communicate with the sixth openings, respectively.
  • FIG. 79A is a schematic structural diagram of a fixed valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention.
  • FIG. 79B is an exploded schematic view of the fixed valve disc of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention, wherein the figure shows that each channel is provided on the fixed valve Specific aliquots of the slice.
  • FIG. 80A is a diagram illustrating the passage of the moving valve plate and the fixed valve plate of the plane valve when the optional implementation of the plane valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention is in its first working position;
  • FIG. 80B shows the above-mentioned alternative implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention in its second working position.
  • a schematic diagram of the communication between the channels The shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 80C is a diagram showing the passage of the moving valve plate and the fixed valve plate of the plane valve of the alternative valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention in its third working position;
  • FIG. 80D is a diagram illustrating the passage of the moving valve plate and the fixed valve plate of the plane valve when the optional implementation of the plane valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention is in its fourth working position;
  • FIG. 80E is the plan view of the moving valve plate and the fixed valve plate of the planar valve when the optional implementation of the planar valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention is in its fifth working position; A schematic diagram of the communication between the channels. The shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 80F is a diagram illustrating the passage of the moving valve plate and the fixed valve plate of the plane valve when the optional implementation of the plane valve of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention is in its sixth working position; A schematic diagram of the communication between the channels.
  • the shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 80G is the above-mentioned second preferred embodiment of the purification-demineralized water treatment system according to the present invention when the optional implementation of the plane valve in its seventh working position, the plane valve of the moving valve plate and the fixed valve plate A schematic diagram of the communication between the channels.
  • the shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 81 is a schematic front view of a purified-demineralized water treatment system according to a third preferred embodiment of the present invention.
  • Fig. 82 is an assembly schematic diagram of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • Fig. 83 is a perspective view of a plane valve of the purification-demineralizing water treatment system according to the third preferred embodiment of the present invention.
  • Fig. 84 is an assembly view of a plane valve of the purification-demineralizing water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 85A is a perspective view of a valve body of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 85B is another perspective view of the valve body of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • 86A is a cross-sectional view of a planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the figure shows that the inner cavity of the planar valve is in communication with the first opening of the valve body of the planar valve, It is also shown that the eighth passage of the fixed valve disc of the plane valve is in communication with the sixth opening of the valve body.
  • 86B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the figure shows the first opening, the second opening, and the third opening of the valve body of the planar valve , Fourth opening, fifth opening, sixth opening, and seventh opening.
  • 86C is another cross-sectional view of the planar valve of the purification-demineralizing water treatment system according to the third preferred embodiment of the present invention, wherein the figure shows that the eleventh channel of the moving valve disc of the planar valve is connected to the sewage opening through.
  • FIG. 86D is a perspective view of the fixed valve plate and the valve body of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • 87A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at a first Working position.
  • 87B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, in which the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the first Working position.
  • 87C is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, in which the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the first Working position.
  • FIG. 87D is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, in which the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the first Working position.
  • 88A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at a second Working position.
  • 88B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the second Working position.
  • 89A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at a third Working position.
  • 89B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the third Working position.
  • FIG. 90 is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at a fourth Working position.
  • FIG. 91A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at a fifth Working position.
  • 91B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, in which the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the fifth Working position.
  • 92A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, in which the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at a sixth Working position.
  • FIG. 92B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, in which the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the sixth Working position.
  • FIG. 93A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the purified-demineralized water treatment system of the present invention shown in the figure is in a seventh working position.
  • FIG. 93B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the seventh Working position.
  • 93C is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the seventh Working position.
  • FIG. 93D is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the seventh Working position.
  • FIG. 94A is a perspective view of the fixed valve plate of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 94B is a perspective view of the moving valve plate of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 94C is a top view of the fixed valve plate of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 94D is a top view of the moving valve plate of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 94E is a bottom view of the fixed valve plate of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 94F is a bottom view of the moving valve plate of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 95A is a schematic structural diagram of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a purification-softening working state, and the arrows in the figure point to Flow direction.
  • FIG. 95B is another schematic structural diagram of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in the backwashing operation of the softening filter element (or softening box); State, the arrow in the figure points to the direction of water flow.
  • FIG. 95C is another schematic structural diagram of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a state where the softening filter element (softening device) is being washed.
  • the arrow in the figure points to the direction of the water flow.
  • 95D is another schematic structural diagram of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a state of replenishing work, and the arrows in the figure point to Flow direction.
  • FIG. 95E is another schematic structural diagram of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, in which the purification-demineralized water treatment system shown in the figure is in a state in which the purification device is being washed.
  • the arrows point in the direction of the current.
  • FIG. 95F is another schematic structural diagram of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, in which the purification-demineralized water treatment system shown in the figure is in a backwashing working state of the purification device, and The arrows point in the direction of the current.
  • FIG. 95G is another schematic structural diagram of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a state of softening filter element regeneration, and the arrow in the figure Pointing for the direction of water flow.
  • FIG. 96A is a schematic structural diagram of a fixed valve plate of a planar valve of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 96B is a schematic structural diagram of a moving valve disc of a planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein a broken line in the figure shows a conduction passage of the moving valve disc.
  • FIG. 96C is an exploded schematic diagram of a fixed valve disc of a planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the figure shows a specific aliquot of each channel provided on the fixed valve disc position.
  • FIG. 96D is a schematic bisector diagram of the moving valve disc of the planar valve of the purification-demineralizing water treatment system according to the third preferred embodiment of the present invention, wherein the figure shows the specific halving of each channel provided on the moving valve disc position.
  • FIG. 97A is the communication between the passage of the moving valve plate and the passage of the fixed valve plate of the plane valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention in its first working position;
  • FIG. 97B is the communication between the passage of the moving valve plate and the passage of the fixed valve plate of the plane valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention in its second working position;
  • FIG. 97C is the communication between the passage of the moving valve plate and the passage of the fixed valve plate of the plane valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention in its third working position; Schematic diagram, where the shaded part of the figure shows the communication passage between the moving valve disc and the fixed valve disc of the plane valve.
  • FIG. 97D is the communication between the passage of the moving valve disc and the passage of the fixed valve disc of the plane valve of the purification-demineralizing water treatment system according to the third preferred embodiment of the present invention in its fourth working position;
  • FIG. 97E is the communication between the passage of the moving valve plate and the passage of the fixed valve plate of the plane valve of the purification-demineralizing water treatment system according to the third preferred embodiment of the present invention in its fifth working position; Schematic diagram, where the shaded part of the figure shows the communication passage between the moving valve disc and the fixed valve disc of the plane valve.
  • FIG. 97F is the communication between the passage of the moving valve plate and the passage of the fixed valve plate of the plane valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention in its sixth working position; Schematic diagram, where the shaded part of the figure shows the communication passage between the moving valve disc and the fixed valve disc of the plane valve.
  • FIG. 97G is the communication between the passage of the moving valve plate and the passage of the fixed valve plate of the plane valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention in its seventh working position; Schematic diagram, where the shaded part of the figure shows the communication passage between the moving valve disc and the fixed valve disc of the plane valve.
  • FIG. 98A is a perspective view of an alternative implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 98B is a cross-sectional view of an alternative implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 98C is a perspective view of another alternative implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 98D is a perspective view of another alternative implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 99 shows another alternative implementation of the planar valve of the purification-demineralization water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 100 is an assembly view of the alternative embodiment of the planar valve of the purification-demineralizing water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 101A is a perspective view of a valve body of the alternative embodiment of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 101B is another perspective view of the valve body of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • 102A is a cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the figure shows the inner cavity of the planar valve and the first An opening communicates, and it also shows that the eighth passage of the fixed valve disc of the plane valve is in communication with the sixth opening of the valve body.
  • FIG. 102B is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the figure shows the first opening, the first Two openings, a third opening, a fourth opening, a fifth opening, a sixth opening, and a seventh opening.
  • 102C is another cross-sectional view of the optional implementation of the planar valve of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the figure shows the eleventh channel of the moving valve plate of the planar valve and The drain openings communicate with each other.
  • FIG. 102D is a perspective view of the fixed valve plate and the valve body of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • 103A is another cross-sectional view of the optional implementation of the planar valve of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purification-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a first job.
  • Fig. 103B is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the first working position.
  • FIG. 103C is another cross-sectional view of the alternative implementation of the planar valve of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purification-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the first working position.
  • 103D is another cross-sectional view of the optional implementation of the planar valve of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purification-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the first working position.
  • 104A is another cross-sectional view of the alternative implementation of the planar valve of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purification-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a second working position.
  • 104B is another cross-sectional view of the optional implementation of the planar valve of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the second working position.
  • FIG. 105A is another cross-sectional view of the alternative implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a third working position.
  • FIG. 105B is another cross-sectional view of the alternative implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the third working position.
  • FIG. 106 is another cross-sectional view of the alternative implementation of the planar valve of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purification-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a fourth working position.
  • 107A is another cross-sectional view of the alternative implementation of the planar valve of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purification-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a fifth working position.
  • 107B is another cross-sectional view of the optional implementation of the planar valve of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purification-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the fifth working position.
  • 107C is another cross-sectional view of the optional implementation of the planar valve of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purification-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the fifth working position.
  • FIG. 108A is another cross-sectional view of the alternative implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a sixth position.
  • FIG. 108B is another cross-sectional view of the optional implementation of the planar valve of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purification-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the sixth working position.
  • FIG. 109A is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a seventh working position.
  • FIG. 109B is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the seventh working position.
  • FIG. 109C is another cross-sectional view of the alternative implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the seventh working position.
  • FIG. 109D is another cross-sectional view of the alternative implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the seventh working position.
  • FIG. 110A is a perspective view of the fixed valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 110B is a perspective view of the moving valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 110C is a top view of the fixed valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • 110D is a top view of the moving valve plate of the optional implementation of the planar valve of the purification-demineralizing water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 110E is a bottom view of the fixed valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 110F is a bottom view of the moving valve plate of the alternative embodiment of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 111A is a schematic structural diagram of the optional implementation of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, in which the purification-demineralized water treatment system shown in the figure is in a purification-softening working state.
  • the arrows in the figure point to the direction of the water flow.
  • FIG. 111B is another schematic structural diagram of the optional implementation of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a softened filter element (or softened) (Box) backwash working state, the arrow in the figure points to the direction of water flow.
  • a softened filter element or softened
  • FIG. 111C is another schematic structural diagram of the optional implementation of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, in which the purification-demineralized water treatment system shown in the figure is in a softening filter element (softening device) ) The washing is in a working state.
  • the arrow in the figure points to the direction of water flow.
  • FIG. 111D is another schematic structural diagram of the optional implementation of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, where the purification-demineralized water treatment system shown in the figure is in a state of replenishing water, and The arrows in the figure point to the direction of the water flow.
  • FIG. 111E is another schematic structural diagram of the optional implementation of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in the washing operation of the purification device. State, the arrow in the figure points to the direction of water flow.
  • FIG. 111F is another schematic structural diagram of the optional implementation of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in the backwashing operation of the purification device State, the arrow in the figure points to the direction of water flow.
  • FIG. 111G is another structural diagram of the optional implementation of the purification-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a state of regenerating the softening filter element
  • the arrow in the figure points to the direction of the water flow.
  • FIG. 112A is a schematic structural diagram of a fixed valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 112B is a schematic structural diagram of the optional valve plate of the planar valve of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the dotted line in the figure shows the movable valve plate. Conducting passage of the valve disc.
  • FIG. 112C is an exploded schematic view of the fixed valve disc of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the figure shows that each channel is provided on the fixed valve Specific aliquots of the slice.
  • FIG. 112D is an exploded schematic view of the moving valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, wherein the figure shows that each channel is provided on the moving valve Specific aliquots of the slice.
  • FIG. 113A is a diagram illustrating the passage of the moving valve plate and the fixed valve plate of the plane valve when the optional implementation of the plane valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention is in its first working position;
  • FIG. 113B is a diagram illustrating the passage of the moving valve plate and the fixed valve plate of the planar valve when the optional implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention is in its second working position; A schematic diagram of the communication between the channels.
  • the shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 113C is the above-mentioned alternative implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention, when the optional operation of the planar valve in its third working position, A schematic diagram of the communication between the channels.
  • the shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 113D is a diagram illustrating the passage of the moving valve plate and the fixed valve plate of the planar valve when the optional implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention is in its fourth working position; A schematic diagram of the communication between the channels.
  • the shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 113E is the above-mentioned third preferred embodiment of the present invention according to the third embodiment of the plane valve of the purification-demineralized water treatment system of the optional implementation of the fifth position, the plane valve of the moving valve plate and the fixed valve plate A schematic diagram of the communication between the channels.
  • the shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 113F is a diagram illustrating the passage of the moving valve plate and the fixed valve plate of the plane valve when the optional implementation of the planar valve of the purified-demineralized water treatment system according to the third preferred embodiment of the present invention is in its sixth working position; A schematic diagram of the communication between the channels.
  • the shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 113G is the above-mentioned alternative implementation of the planar valve of the purification-demineralization water treatment system according to the third preferred embodiment of the present invention, when the optional implementation of the planar valve in its seventh working position, A schematic diagram of the communication between the channels.
  • the shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 114A shows a perspective view of another alternative implementation of a planar valve of a purification-demineralization water treatment system according to a third preferred embodiment of the present invention.
  • FIG. 114B is a cross-sectional view showing another alternative embodiment of the flat valve of the purification-demineralizing water treatment system according to the third preferred embodiment of the present invention.
  • Fig. 115 shows a perspective view of another alternative implementation of the flat valve of the purification-demineralizing water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 116 is a perspective view showing another alternative implementation of the flat valve of the purification-demineralizing water treatment system according to the third preferred embodiment of the present invention.
  • FIG. 117 is a schematic front view of a purification-demineralizing water treatment system according to a fourth preferred embodiment of the present invention.
  • FIG. 118 is an assembly schematic diagram of the purification-demineralized water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 119 is a perspective view of a plane valve of the purification-demineralizing water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 120 is an assembly view of a planar valve of the purification-demineralizing water treatment system according to the fourth preferred embodiment of the present invention.
  • 121A is a perspective view of a valve body of the planar valve of the purification-demineralizing water treatment system according to the fourth preferred embodiment of the present invention.
  • 121B is another perspective view of the valve body of the planar valve of the purification-demineralizing water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 122A is a cross-sectional view of a plane valve of the purification-demineralizing water treatment system according to the fourth preferred embodiment of the present invention, wherein the figure shows that the inner cavity of the plane valve is in communication with the first opening of the valve body of the plane valve, It is also shown that the eighth passage of the fixed valve disc of the plane valve is in communication with the sixth opening of the valve body.
  • FIG. 122B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the figure shows the first opening, the second opening, and the third opening of the valve body of the planar valve. , Fourth opening, fifth opening, sixth opening, and seventh opening.
  • FIG. 122C is another cross-sectional view of the planar valve of the purification-demineralizing water treatment system according to the fourth preferred embodiment of the present invention, wherein the figure shows that the eleventh channel of the moving valve disc of the planar valve is connected to the sewage opening through.
  • FIG. 122D is a perspective view of the fixed valve plate and the valve body of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 122E is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the figure shows the fifth passage of the fixed valve plate of the planar valve.
  • FIG. 123A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at a first Working position.
  • FIG. 123B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, in which the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the first Working position.
  • FIG. 123C is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, where the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the first Working position.
  • FIG. 123D is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, where the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the first Working position.
  • FIG. 124A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at a second Working position.
  • FIG. 124B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the second Working position.
  • FIG. 125A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, in which the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at a third Working position.
  • 125B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the third Working position.
  • FIG. 126 is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, in which the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at a fourth Working position.
  • FIG. 127A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at a fifth Working position.
  • FIG. 127B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the fifth Working position.
  • FIG. 128A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, in which the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at a sixth Working position.
  • FIG. 128B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, in which the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the sixth Working position.
  • FIG. 129A is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the purified-demineralized water treatment system of the present invention shown in the figure is in a seventh working position.
  • FIG. 129B is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the seventh Working position.
  • FIG. 129C is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, in which the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the seventh Working position.
  • FIG. 129D is another cross-sectional view of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, in which the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure is at the seventh Working position.
  • FIG. 130A is a perspective view of the fixed valve plate of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 130B is a perspective view of the moving valve plate of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 130C is a top view of the fixed valve plate of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 130D is a top view of the moving valve plate of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 130E is a bottom view of the fixed valve plate of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 130F is a bottom view of the moving valve plate of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 131A is a schematic structural diagram of the purification-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a purification-softening working state, and the arrows in the figure point to Flow direction.
  • FIG. 131B is another schematic structural diagram of the purification-demineralized water treatment system according to the fourth preferred embodiment of the present invention, in which the purification-demineralized water treatment system shown in the figure is in the backwashing operation of the softening filter element (or softening box) State, the arrow in the figure points to the direction of water flow.
  • FIG. 131C is another schematic structural diagram of the purification-demineralized water treatment system according to the fourth preferred embodiment of the present invention, in which the purification-demineralized water treatment system shown in the figure is in a state where the softening filter (softening device) is being washed.
  • the arrow in the figure points to the direction of the water flow.
  • FIG. 131D is another schematic structural diagram of the purification-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a state of replenishing work, and the arrow in the figure points to Flow direction.
  • FIG. 131E is another schematic structural diagram of the purification-demineralized water treatment system according to the fourth preferred embodiment of the present invention, in which the purification-demineralized water treatment system shown in the figure is in the state of being washed by the purification device, in the figure The arrows point in the direction of the current.
  • FIG. 131F is another schematic structural diagram of the purification-demineralized water treatment system according to the fourth preferred embodiment of the present invention.
  • the purification-demineralized water treatment system shown in the figure is in a backwashing working state of the purification device.
  • the arrows point in the direction of the current.
  • FIG. 131G is another schematic structural diagram of the purification-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the purification-demineralized water treatment system shown in the figure is in a state of softening filter regeneration, and the arrow in the figure Pointing for the direction of water flow.
  • FIG. 132A is a schematic structural diagram of a fixed valve plate of a planar valve of the purification-demineralizing water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 132B is a schematic structural diagram of a moving valve plate of a planar valve of the purification-demineralizing water treatment system according to the fourth preferred embodiment of the present invention, wherein a broken line in the figure shows a conduction channel of the moving valve plate.
  • FIG. 132C is an exploded schematic diagram of a fixed valve plate of a planar valve of the purification-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the figure shows the specific halves of each channel provided in the fixed valve plate position.
  • FIG. 132D is an exploded schematic diagram of the moving valve disc of the planar valve of the purification-demineralizing water treatment system according to the fourth preferred embodiment of the present invention, wherein the figure shows the specific halving of each channel provided on the moving valve disc position.
  • FIG. 133A is the communication between the passage of the moving valve disc and the passage of the fixed valve disc of the plane valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention in its first working position;
  • FIG. 133B is the communication between the passage of the moving valve plate and the passage of the fixed valve plate of the plane valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention in its second working position;
  • FIG. 133C is the communication between the passage of the moving valve plate and the passage of the fixed valve plate of the plane valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention in its third working position;
  • FIG. 133D is the communication between the passage of the moving valve plate and the passage of the fixed valve plate of the plane valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention in its fourth working position;
  • FIG. 133E is the communication between the passage of the moving valve disc and the passage of the fixed valve disc of the plane valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention in its fifth working position; Schematic diagram, where the shaded part of the figure shows the communication passage between the moving valve disc and the fixed valve disc of the plane valve.
  • FIG. 133F is the communication between the passage of the moving valve plate and the passage of the fixed valve plate of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention in its sixth working position; Schematic diagram, where the shaded part of the figure shows the communication passage between the moving valve disc and the fixed valve disc of the plane valve.
  • FIG. 133G is the communication between the passage of the moving valve disc and the passage of the fixed valve disc of the plane valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention in its seventh working position; Schematic diagram, where the shaded part of the figure shows the communication passage between the moving valve disc and the fixed valve disc of the plane valve.
  • FIG. 134A is a perspective view of an alternative implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 134B is a cross-sectional view of an alternative implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 134C is a perspective view of another alternative implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 134D is a perspective view of another alternative implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 135 shows another alternative implementation of the planar valve of the purification-demineralization water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 136 is an assembly view of the alternative embodiment of the planar valve of the purification-demineralizing water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 137A is a perspective view of a valve body of the alternative embodiment of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 137B is another perspective view of the valve body of the alternative embodiment of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 138A is a cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the figure shows the inner cavity of the planar valve and the first An opening communicates, and it also shows that the eighth passage of the fixed valve disc of the plane valve is in communication with the sixth opening of the valve body.
  • FIG. 138B is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the figure shows the first opening, the first Two openings, a third opening, a fourth opening, a fifth opening, a sixth opening, and a seventh opening.
  • FIG. 138C is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the figure shows the eleventh channel of the moving valve plate of the planar valve and The drain openings communicate with each other.
  • FIG. 138D is a perspective view of the fixed valve plate and the valve body of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 138E is another cross-sectional view of the alternative implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the figure shows the fifth passage of the fixed valve plate of the planar valve.
  • FIG. 139A is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a first job.
  • FIG. 139B is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the first working position.
  • FIG. 139C is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the first working position.
  • FIG. 139D is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the first working position.
  • FIG. 140A is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a second working position.
  • 140B is another cross-sectional view of the optional implementation of the planar valve of the purification-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purification-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the second working position.
  • FIG. 141A is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a third working position.
  • FIG. 141B is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the third working position.
  • FIG. 142 is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a fourth working position.
  • FIG. 143A is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a fifth working position.
  • FIG. 143B is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the fifth working position.
  • FIG. 143C is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the fifth working position.
  • FIG. 144A is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a sixth position.
  • FIG. 144B is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the sixth working position.
  • FIG. 145A is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure This optional implementation is in a seventh working position.
  • FIG. 145B is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the seventh working position.
  • FIG. 145C is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the seventh working position.
  • FIG. 145D is another cross-sectional view of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the planar valve of the purified-demineralized water treatment system of the present invention shown in the figure The optional implementation is in the seventh working position.
  • FIG. 146A is a perspective view of the fixed valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 146B is a perspective view of the moving valve disc of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 146C is a top view of the fixed valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 146D is a top view of the moving valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 146E is a bottom view of the fixed valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 146F is a bottom view of the moving valve plate of the alternative embodiment of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 147A is a schematic structural diagram of the optional implementation of the purification-demineralized water treatment system according to the fourth preferred embodiment of the present invention, in which the purification-demineralized water treatment system shown in the figure is in a purification-softening working state.
  • the arrows in the figure point to the direction of the water flow.
  • FIG. 147B is another structural diagram of the optional implementation of the purification-demineralized water treatment system according to the fourth preferred embodiment of the present invention, where the purification-demineralized water treatment system shown in the figure is in a softened filter element (or softened) (Box) backwash working state, the arrow in the figure points to the direction of water flow.
  • a softened filter element or softened
  • FIG. 147C is another schematic structural diagram of the optional implementation of the purification-demineralized water treatment system according to the fourth preferred embodiment of the present invention, where the purification-demineralized water treatment system shown in the figure is in a softening filter element (softening device) ) The washing is in a working state.
  • the arrow in the figure points to the direction of water flow.
  • FIG. 147D is another schematic structural diagram of the optional implementation of the purification-demineralized water treatment system according to the fourth preferred embodiment of the present invention, in which the purification-demineralized water treatment system shown in the figure is in a state of replenishing work, and The arrows in the figure point to the direction of the water flow.
  • FIG. 147E is another schematic structural diagram of the optional implementation of the purification-demineralized water treatment system according to the fourth preferred embodiment of the present invention, in which the purification-demineralized water treatment system shown in the figure is under the washing operation of the purification device State, the arrow in the figure points to the direction of water flow.
  • FIG. 147F is another schematic structural diagram of the optional implementation of the purification-demineralized water treatment system according to the fourth preferred embodiment of the present invention, in which the purification-demineralized water treatment system shown in the figure is in the backwashing operation of the purification device State, the arrow in the figure points to the direction of water flow.
  • FIG. 147G is another schematic structural diagram of the optional implementation of the purification-demineralized water treatment system according to the fourth preferred embodiment of the present invention, in which the purification-demineralized water treatment system shown in the figure is in a state of softening filter regeneration operation
  • the arrow in the figure points to the direction of the water flow.
  • FIG. 148A is a schematic structural diagram of a fixed valve plate of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 148B is a schematic structural diagram of a moving valve plate of the optional implementation of a flat valve of a flat valve of a purification-demineralizing water treatment system according to the fourth preferred embodiment of the present invention, wherein the dotted line in the figure shows the moving Conducting passage of the valve disc.
  • FIG. 148C is an exploded schematic view of the fixed valve disc of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, wherein the figure shows that each channel is provided on the fixed valve Specific aliquots of the slice.
  • FIG. 148D is an exploded schematic diagram of the moving valve plate of the optional implementation of the planar valve of the purification-demineralizing water treatment system according to the fourth preferred embodiment of the present invention, wherein the figure shows that each channel is provided on the moving valve Specific aliquots of the slice.
  • FIG. 149A is a diagram illustrating the passage of the moving valve plate and the fixed valve plate of the plane valve of the optional implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention in its first working position;
  • FIG. 149B is a diagram illustrating the passage of the moving valve plate and the fixed valve plate of the plane valve of the optional operation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention in its second working position;
  • FIG. A schematic diagram of the communication between the channels. The shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 149C is a diagram showing the passage of the moving valve plate and the fixed valve plate of the plane valve when the optional implementation of the plane valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention is in its third working position;
  • FIG. A schematic diagram of the communication between the channels. The shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 149D is a diagram illustrating the passage of the moving valve plate and the fixed valve plate of the plane valve when the optional implementation of the plane valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention is in its fourth working position;
  • FIG. A schematic diagram of the communication between the channels. The shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 149E is a diagram illustrating the passage of the moving valve plate and the fixed valve plate of the plane valve when the optional implementation of the plane valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention is in its fifth working position; A schematic diagram of the communication between the channels.
  • the shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 149F is the above-mentioned alternative implementation of the planar valve of the purification-demineralization water treatment system according to the fourth preferred embodiment of the present invention in its sixth working position, the channel of the moving valve plate and the fixed valve plate of the plane valve A schematic diagram of the communication between the channels.
  • the shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 149G is the above-mentioned alternative implementation of the planar valve of the purified-demineralized water treatment system according to the fourth preferred embodiment of the present invention, when the optional implementation of the planar valve in its seventh working position, A schematic diagram of the communication between the channels.
  • the shaded part in the figure shows the mutually communicating channels of the moving valve plate and the fixed valve plate of the plane valve.
  • FIG. 150A shows a perspective view of another alternative implementation of a plane valve of a purification-demineralization water treatment system according to a fourth preferred embodiment of the present invention.
  • Fig. 150B is a cross-sectional view showing another alternative embodiment of the flat valve of the purification-demineralizing water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 151 is a perspective view showing another alternative implementation of a plane valve of a purification-demineralization water treatment system according to a fourth preferred embodiment of the present invention.
  • FIG. 152 is a perspective view showing another alternative implementation of the flat valve of the purification-demineralization water treatment system according to the fourth preferred embodiment of the present invention.
  • FIG. 153 is a schematic flowchart of the water treatment method according to the preferred embodiment of the present invention.
  • FIG. 154 is a schematic flowchart of another water treatment method according to the preferred embodiment of the present invention.
  • the term “a” should be understood as “at least one” or “one or more”, that is, in one embodiment, the number of one element can be one, and in other embodiments, the number of The number may be plural, and the term “a” cannot be understood as a limitation on the number.
  • the purification-demineralized water treatment system is clarified, which is applicable to the purification-softening treatment of raw water or water to be treated, wherein the purification- The demineralized water treatment system includes a fluid valve 10, a purification device 20, and a softening device 30, wherein the fluid valve 10 includes a valve body 11 and a valve core 1, wherein the valve body 11 forms an inner cavity 110, a first An opening 1101, a second opening 1102, a third opening 1103, a fourth opening 1104, a fifth opening 1105, a sixth opening 1106, and a seventh opening 1107, wherein the spool 1 is disposed in the inner cavity.
  • the purified-demineralized water treatment system according to the first preferred embodiment of the present invention has a first working state, a second working state, a third working state, a fourth working state, and a fifth working state
  • the fluid valve 10 forms a communication with the first opening 1101 and the fifth opening 1105 of the valve body 11, respectively.
  • the fluid valve 10 forms a third communication passage 1003 communicating with the first opening 1101 and the seventh opening 1107 of the valve body 11 and a sixth opening 1106 and a drain opening respectively with the valve body 11.
  • (Or eighth opening) a fourth communication channel 1004 communicating with 1108, when the purification-demineralized water treatment system is in the third working state, the fluid valve 10 forms a first opening respectively with the valve body 11 1101
  • the fluid valve 10 forms a seventh communication channel 1007 that communicates with the first opening 1101 and the fourth opening 1104 of the valve body 11, respectively.
  • the fluid valve 10 forms an eighth communication passage 1008 communicating with the first opening 1101 and the fifth opening 1105 of the valve body 11, and a sixth opening 1106 communicating with the valve body 11, respectively.
  • a ninth communication passage 1009 communicating with the sewage discharge opening 1108.
  • the purified-demineralized water treatment system according to the first preferred embodiment of the present invention further has a sixth working state and a seventh working state, wherein when the purified-demineralized water treatment system is in the sixth working state
  • the fluid valve 10 forms a tenth communication channel 10010 which communicates with the fifth opening 1105 and the drain opening 1108 of the valve body 11 respectively; when the purification-demineralized water treatment system is in the seventh working state,
  • the fluid valve 10 forms an eleventh communication passage 10011 communicating with the first opening 1101 and the third opening 1103 of the valve body 11, respectively.
  • the fluid valve 10 when the purification-demineralized water treatment system is in the sixth working state, the fluid valve 10 further forms a first communicating with the first opening 1101 and the sixth opening 1106 of the valve body 11, respectively. Twelve communication passages 10012. When the purification-demineralized water treatment system is in the seventh working state, the fluid valve 10 forms a communication with the seventh opening 1107 and the fourth opening 1104 of the valve body 11, respectively. A thirteenth communication passage 10013 and a fourteenth communication passage 10014 communicating with the sixth opening 1106 of the valve body 11 and the drain opening 1108 of the flat valve 10, respectively.
  • the fluid valve 10 of the purification-demineralization water treatment system is a plane valve, wherein the plane valve 10 further includes a moving valve plate 13 and A fixed valve disc 12, wherein the fixed valve disc 12 has a first fluid control surface 120, and the moving valve disc 13 has a second fluid control surface 130, wherein the moving valve disc 13 and the fixed valve disc 12 are both provided In the inner cavity 110, the second fluid control surface 130 of the moving valve disc 13 is disposed on the first fluid control surface 120 of the fixed valve disc 12, and the moving valve disc 13 is disposed so as to be opposite to the fixed valve.
  • the sheet 12 rotates, wherein the purification device 20 has a first communication opening 201 and a second communication opening 202, wherein the softening device 30 includes a softening box 31, wherein the softening box 31 has a first conduction opening 301 and a The second conduction opening 302, wherein the internal cavity 110 of the valve body 11 is in communication with the first opening 1101, and the first communication opening 201 of the purification device 20 is in communication with the fifth opening 1105 of the valve body 11. , The second communication opening 202 and the softening box 31 of the purification device 20 The first communication openings 301 are in communication with the sixth opening 1106 of the valve body 11, and the second communication opening 302 in the softening box 31 is in communication with the seventh opening 1107 of the valve body 11. Therefore, when the fluid valve 10 is a flat valve, the spool 1 of the fluid valve 10 includes the moving valve disc 13 and the fixed valve disc 12.
  • the softening device 30 of the purification-softening water treatment system further includes a jet 32 and a salt tank 33, wherein the jet 32 has an injection port 321 adapted to communicate with the third opening 1103 of the valve body 11 and an injection port 322 adapted to communicate with the fourth opening 1104 of the valve body 11, wherein the salt tank 33 It is adapted to communicate with the ejector 32 so that the salt liquid from the salt solution tank 33 can pass through the ejector 32 and the fourth opening 1104 and the softening box 31 flowing to the softening device 30 through the plane valve 10 Thus, the softened resin in the softening box 31 is regenerated.
  • the purification-demineralized water treatment system of the present invention when the purification-demineralized water treatment system of the present invention is in a state where the softened filter element absorbs salt, the raw water or the water to be treated flows from the first opening 1101 of the valve body 11 to the inner cavity 110 of the valve body 11 Then, it flows into the third opening 1103 through an eleventh communication channel 10011, and then flows into the ejection outlet 321 of the ejector 32. After passing through the ejector 32, the liquid from the salt tank 33 is mixed and passes through the ejector.
  • the injection port 322 of 32 flows into the fourth opening 1104 of the valve body 11, and then flows into the seventh opening 1107 through a thirteenth communication passage 10013, enters the second conduction opening 302 of the softening box 31, and is regenerated countercurrently.
  • the water treatment material or mechanism in the softening box 31, such as softened resin flows out from the first conducting opening 301, and then flows through the sixth opening 1106 of the valve body 11 into a fourteenth communication passage 10014, and then It flows out from a drain opening (or eighth opening) 1108 of the flat valve 10.
  • the present invention only exemplarily describes the manner in which the salt solution is provided to the softening tank 31 through the ejector 32, the salt solution may also be provided to the softening tank 31 through the fourth opening 1104 of the plane valve 10 by other methods or mechanisms. Softening box 31. Therefore, the manner of supplying the salt solution to the softening tank 31 through the ejector 32 should not be a limitation of the present invention.
  • the plane valve 10 of the purification-demineralization water treatment system of the present invention may further have a connection mechanism, such as a connection thread, a snap joint, etc., disposed on the valve body 11 to facilitate the plane valve 10 It is connected with other structural components of the purification-demineralized water treatment system, such as purification devices, softening devices, etc., to guide the water flow to the purification device, the softening box of the softening device, and each communication channel formed by the plane valve 10.
  • a connection mechanism such as a connection thread, a snap joint, etc.
  • the purification-demineralized water treatment system has a first working state, a second working state, a third working state, and a first working state.
  • Four working states and a fifth working state wherein when the purification-demineralized water treatment system is in the first working state, the moving valve plate 13 and the fixed valve plate 12 of the plane valve 10 form a separate one from the valve
  • the second communication channel 1002 is opened.
  • the moving valve plate 13 and the fixed valve plate 12 of the plane valve 10 form a valve plate 11 respectively connected to the valve body 11.
  • the fourth communication channel 1004 is connected.
  • the moving valve plate 13 and the fixed valve plate 12 of the plane valve 10 form a cavity with the inner cavity 110 (or the first opening 1101) of the valve body 11 and the A seventh communication channel 1007 that communicates with the fourth opening 1104.
  • the moving valve plate 13 and the fixed valve plate 12 of the plane valve 10 form a connection with the fixed valve plate 12, respectively.
  • the ninth communication passage 1009 is connected to the sewage discharge opening 1108.
  • the flat valve 10 is formed
  • the first communication passage 1001 is in communication with the inner cavity 110 (or the first opening 1101) and the fifth opening 1105 of the valve body 11, and the second communication passage 1002 is in communication with the second opening of the valve body 11.
  • the opening 1102 is in communication with the seventh opening 1107, thereby allowing raw water to flow from the first opening 1101 of the valve body 11 into the inner cavity 110 of the valve body 11, and then through the first communication channel formed by the plane valve 10.
  • the fifth opening 1105 of the valve body 11, the first communication opening 201 of the purification device 20 flows into the purification device 20, and the purified water obtained after the raw water is purified by the purification device 20 is removed from the purification device 20 by the
  • the second communication opening 202 flows out, and purified water flows through the first conduction opening 301 of the softening tank 31 and flows into the softening tank 31, and softened water is obtained after the softening treatment, and the softened water flows from the second guide of the softening tank 31 Through the opening 302, and then through the seventh opening 1107 of the valve body 11, the flat 10 of the second valve communicating passage 1002, and the final effluent supplying demineralized water to a user of the valve element 11 of the second opening 1102.
  • the second communication opening 202 of the purification device 20 is in communication with a water supply outlet 401 (or water supply passage 400), so as to provide users with clean water. Therefore, when the purified-demineralized water treatment system is in the first working state, the purified-demineralized water treatment system of the present invention can simultaneously provide purified water and demineralized water to users. Accordingly, the first working state of the purification-demineralized water treatment system corresponds to the purification-demineralization working state of the purification-demineralized water treatment system.
  • the first opening 1101 of the valve body 11 (or the inner cavity 110 of the valve body 11), the fifth opening of the valve body 11
  • the second conduction opening 302 of the softening box 31, the seventh opening 1107 of the valve body 11 and the second opening 1102 of the valve body 11 are communicated in sequence, thereby forming a purification device 20 and the softening device.
  • the water flow paths 30 are connected in series so that the raw water can flow from the purification device 20 to the softening device 30 and the raw water is sequentially purified and softened.
  • the flat valve 10 is formed by The third communication passage 1003 is in communication with the inner cavity 110 (or the first opening 1101) and the seventh opening 1107 of the valve body 11, and the fourth communication passage 1004 is in communication with the sixth of the valve body 11 respectively.
  • the opening 1106 is in communication with the drain opening 1108 of the plane valve 10, thereby allowing raw water to flow from the first opening 1101 of the valve body 11 into the inner cavity 110 of the valve body 11, and then through the plane valve 10.
  • the third communication channel 1003 flows into the seventh opening 1107, and then flows into the softening box 31 through the second conducting opening 302 of the softening box 31, and the softening material (or water treatment material) in the softening box 31, such as After the softening resin and the like are flushed back, the obtained sewage or waste water flows out from the first conducting opening 301 of the softening box 31, and then flows through the sixth opening 1106 of the valve body 11 and flows into the first opening of the plane valve 10.
  • the four communication channels 1004 then flow out from the drain opening 1108 of the plane valve 10.
  • the purification-demineralized water treatment system of the present invention can control reverse flushing of the softening filter element, such as the softening tank 31. Accordingly, the second working state of the purification-demineralizing water treatment system corresponds to the backwashing working state of the softening filter element (softening device) of the purification-demineralizing water treatment system.
  • the flat valve 10 is formed by The fifth communication passage 1005 communicates with the inner cavity 110 (or the first opening 1101) and the sixth opening 1106 of the valve body 11, respectively, and the sixth communication passage 1006 communicates with the seventh of the valve body 11
  • the opening 1107 communicates with the drain opening 1108 of the flat valve 10, thereby allowing raw water to flow from the first opening 1101 of the valve body 11 into the inner cavity 110 of the valve body 11, and then flow in through the fifth communication passage 1005
  • the sixth opening 1106 enters the first conduction opening 301 of the softening tank 31, and after the water treatment material or mechanism in the softening tank 31 is flushed forward, the second conduction opening from the softening tank 31 is flushed.
  • the purification-demineralized water treatment system of the present invention can control the forward flushing of the softening filter element, such as the softening tank 31.
  • the third working state of the purification-demineralized water treatment system corresponds to the normal washing operation state of the softening filter element (softening device) of the purification-demineralized water treatment system.
  • the seventh communication channel 1007 communicates with the inner cavity 110 (or the first opening 1101) and the fourth opening 1104 of the valve body 11, respectively, so as to allow raw water to flow from the first opening 1101 of the valve body 11 to
  • the inner cavity 110 of the valve body 11 then flows into the fourth opening 1104 through the seventh communication channel 1007, and then flows into the injection inlet 322 of the ejector 32 to replenish water to the salt tank 33.
  • the purification-demineralized water treatment system of the present invention can control the replenishment of water to the salt tank 33. Accordingly, the fourth working state of the purification-demineralized water treatment system corresponds to the state of replenishment of the salt solution tank of the purification-demineralized water treatment system.
  • the flat valve 10 is formed by The eighth communication passage 1008 communicates with the inner cavity 110 (or the first opening 1101) and the fifth opening 1105 of the valve body 11, respectively, and the ninth communication passage 1009 communicates with the sixth of the valve body 11 respectively.
  • the opening 1106 is in communication with the drain opening 1108 of the plane valve 10, thereby allowing raw water to flow from the first opening 1101 of the valve body 11 into the inner cavity 110 of the valve body 11, and then inflow through the eighth communication passage 1008
  • the fifth opening 1105 enters the first communication opening 201 of the purification device 20, and after the water treatment material or mechanism in the purification device 20 is flushed forward, it flows out of the second communication opening 202 of the purification device 20
  • the sixth opening 1106 flowing through the valve body 11 flows into the ninth communication passage 1009, and then flows out from the drain opening 1108 of
  • the purification-demineralized water treatment system of the present invention can control the forward flushing of the purification device 20. Accordingly, the fifth working state of the purification-demineralized water treatment system corresponds to the normal washing operation state of the purification device of the purification-demineralized water treatment system.
  • the purification-demineralized water treatment system according to the first preferred embodiment of the present invention further has a sixth working state and a seventh working state, wherein when When the purified-demineralized water treatment system is in the sixth working state, the moving valve disc 13 and the fixed valve disc 12 of the plane valve 10 form a fifth opening 1105 and the plane valve of the valve body 11, respectively.
  • the moving valve plate 13 and the fixed valve plate 12 of the plane valve 10 when the purification-demineralized water treatment system is in the sixth working state, the moving valve plate 13 and the fixed valve plate 12 of the plane valve 10 further form a cavity 110 with the inner cavity 110 of the valve body 11 respectively. (Or the first opening 1101) and the twelfth communication channel 10012 communicating with the sixth opening 1106.
  • the moving valve plate of the plane valve 10 13 and the fixed valve disc 12 form a thirteenth communication passage 10013 communicating with the seventh opening 1107 and the fourth opening 1104 of the valve body 11 and a sixth opening 1106 respectively with the valve body 11
  • the plane valve 10 is formed by The tenth communication passage 10010 communicates with the fifth opening 1105 of the valve body 11 and the drain opening 1108 of the plane valve 10, respectively, and the twelfth communication passage 10012 communicates with the inner cavity 110 of the valve body 11 ( Or the first opening 1101) is in communication with the sixth opening 1106, thereby allowing raw water to flow from the first opening 1101 of the valve body 11 into the inner cavity 110 of the valve body 11, and then through the twelfth communication channel 10012 flows into the sixth opening 1106, and then enters the second communication opening 202 of the purification device 20.
  • the first communication opening of the purification device 20 201 flows out, then flows through the fifth opening 1105 of the valve body 11 into the tenth communication passage 10010, and then flows out from the drain opening 1108 of the flat valve 10; when purifying according to the first preferred embodiment of the present invention-
  • the flat The eleventh communication passage 10011 formed by the valve 10 communicates with the inner cavity 110 (or the first opening 1101) and the third opening 1103 of the valve body 11, respectively, and the thirteenth communication passage 10013 communicates with the valve, respectively.
  • the seventh opening 1107 of the body 11 is in communication with the fourth opening 1104, and the fourteenth communication passage 10014 is in communication with the sixth opening 1106 of the valve body 11 and the drain opening 1108 of the flat valve 10, thereby
  • the raw water is allowed to flow from the first opening 1101 of the valve body 11 into the inner cavity 110 of the valve body 11, then flow into the third opening 1103 through the eleventh communication passage 10011, and then flow into the jet of the ejector 32.
  • the outlet 321 is jetted by the jet 32 and mixed with the liquid from the salt solution tank 33 and then flows into the fourth opening 1104 of the valve body 11 through the jet inlet 322 of the jet 32 and then passes through the thirteenth communication channel.
  • the sixth working state of the purification-demineralized water treatment system corresponds to the backwashing working state of the purification device of the purification-demineralized water treatment system
  • the seventh working state of the purification-demineralized water treatment system corresponds to the purification -The softening filter element (softening device) of the softening water treatment system regenerates the working state.
  • the fluid valve (or plane valve) 10 of the purification-demineralizing water treatment system has a first A working position, a second working position, a third working position, a fourth working position, a fifth working position, a sixth working position and a seventh working position, wherein when the fluid valve (or plane valve) When 10 is in the first working position, the spool 1 of the fluid valve 10 forms the first communication passage 1001 and the second communication passage 1002. When the fluid valve (or plane valve) 10 is in the second work Position, the spool 1 of the fluid valve 10 forms the third communication passage 1003 and the fourth communication passage 1004.
  • the fluid valve 10 When the fluid valve (or plane valve) 10 is in the third working position, the fluid valve 10 The spool 1 of the fluid valve forms the fifth communication passage 1005 and the sixth communication passage 1006.
  • the spool 1 of the fluid valve 10 forms the The seventh communication channel 1007, when the fluid valve (or plane valve) 10 is in the fifth working position, the spool 1 of the fluid valve 10 Forming the eighth communication channel 1008 and the ninth communication channel 1009; when the fluid valve (or plane valve) 10 is in the sixth working position, the spool 1 of the fluid valve 10 forms the tenth communication channel 10010 ;
  • the spool 1 of the fluid valve 10 When the fluid valve (or plane valve) 10 is in the seventh working position, the spool 1 of the fluid valve 10 forms the eleventh communication passage 10011.
  • the spool 1 of the fluid valve 10 when the fluid valve (or plane valve) 10 is in the sixth working position, the spool 1 of the fluid valve 10 further forms the twelfth communication passage 10012. When the fluid valve (or plane valve) 10 ) 10 at the seventh working position, the spool 1 of the fluid valve 10 further forms the thirteenth communication passage 10013 and the fourteenth communication passage 10014.
  • the purification-demineralization water treatment system according to the first preferred embodiment of the present invention further has a water supply unit 40, wherein the water supply unit 40 forms a water supply passage 400, wherein the water supply path 400 is provided in communication with the second communication opening 202 of the purification device 20 to provide clean water to a user.
  • the water supply unit 40 includes a water purification pipe (or water purification pipe) 41 and a fluid valve 42, wherein the fluid valve 42 is provided in the net A water pipe 41 to control the supply of purified water to the user.
  • the water purification pipe 41 forms the water supply outlet 401.
  • the fluid valve 42 is an electric ball valve or an electric plane valve, so that a user can automatically control the supply of purified water through a control device 16. Therefore, the second communication opening 202 of the purification device 20 and the sixth opening 1106 of the plane valve 10, the first conduction opening 301 of the softening box 31, and the water supply passage 400 (or the water supply outlet 401) are respectively Connected. In addition, the sixth opening 1106 of the plane valve 10 is further communicated with the first communication opening 301 of the softening box 31.
  • the plane valve 10 of the purification-demineralizing water treatment system has a first passage 101, a second passage 102, and a third passage 103, a fourth channel 104, a fifth channel 105, a sixth channel 106, a seventh channel 107, an eighth channel 108, a ninth channel 109, a tenth channel 1010, and an eleventh channel 1011 ,
  • the first channel 101, the second channel 102, the third channel 103, the fourth channel 104, the fifth channel 105, the sixth channel 106, the seventh channel 107, and the eighth channel 108 are respectively
  • the ninth channel 109, the tenth channel 1010, and the eleventh channel 1011 are respectively provided on the fixed valve plate 12 and extend from the first fluid control surface 120 of the fixed valve plate 12, respectively.
  • the port 1102 is in communication
  • the sixth channel 106 is in communication with the third opening 1103
  • the seventh channel 107 is in communication with the fourth opening 1104
  • the eighth channel 108 is in communication with the sixth opening 1106, and the ninth
  • the passage 109 is in communication with the inner cavity 110 of the valve body 11, and the eleventh passage 1011 is in communication with the sewage opening 1108.
  • the drain opening 1108 is provided in the valve body 11 of the plane valve 10, and the drain opening 1108 is communicated with the eleventh channel 1011 through a drain channel 150. Therefore, optionally, the drain opening 1108 of the plane valve 10 is formed in the moving valve plate 13, and the drain opening 1108 of the plane valve 10 is communicated with the eleventh channel 1011 and the drain channel 150 respectively. It can be understood that the communication between the second communication opening 202 of the purification device 20 and the first communication opening 301 of the softening box 31 and the sixth opening 1106 of the valve body 11 can be achieved in various ways. As shown in FIG.
  • the sixth opening 1106 of the valve body 11 can be communicated with the second communication opening 202 of the purification device 20 and the first communication opening 301 of the softening box 31 respectively.
  • the communication pipe (or three-way pipe) realizes the communication between the second communication opening 202 of the purification device 20, the first communication opening 301 of the softening box 31, and the sixth opening 1106 of the valve body 11. Connected.
  • the communication between the second communication opening 202 of the purification device 20 and the first conduction opening 301 of the softening box 31 and the sixth opening 1106 of the valve body 11 may also be provided through the valve body.
  • the communication passage 11 is realized, wherein the communication passage may be provided to communicate with the second communication opening 202 of the purification device 20 and the sixth opening 1106 of the valve body 11, respectively, and the first communication opening of the softening box 31, respectively.
  • a conducting opening 301 communicates with the sixth opening 1106 of the valve body 11. Therefore, the eighth passage 108 of the valve body 11, the second communication opening 202 of the purification device 20, and the first conduction opening 301 of the softening box 31 form one through the sixth opening 1106 of the valve body 11. Tee structure.
  • the ninth channel 109 is provided to be always connected with the valve body 11 through a water inlet 1091 that is always in communication with the external space
  • the inner cavity 110 communicates.
  • first passage 101 and the second passage 102 of the plane valve 10 communicate with the fifth opening 1105 respectively, and can communicate with the fifth opening 1105 separately and independently, or through A fluid passage communicates;
  • the third passage 103 and the fourth passage 104 of the plane valve 10 communicate with the seventh opening 1107, respectively, and can communicate with the seventh opening 1107 separately and independently, or Connected through a fluid channel.
  • the first passage 101 and the second passage 102 of the plane valve 10 are communicated through a first fluid passage 1211, and the second passage 102 is provided to directly communicate with the The fifth opening 1105 is in communication, so that the first channel 101 is also in communication with the fifth opening 1105 through the first fluid channel 1211 and the second channel 102; the third channel 103 of the plane valve 10 and the The fourth channels 104 communicate with the seventh openings 1107 individually.
  • the first channel 101 is provided to directly communicate with the fifth opening 1105, and the second channel 102 passes through the first fluid channel 1211 and the first channel 101 is also in communication with the fifth opening 1105.
  • first passage 101 and the second passage 102 of the plane valve 10 may communicate with the fifth opening 1105 separately and independently; or alternatively, as shown in FIG. 18C of the accompanying drawings,
  • the third channel 103 and the fourth channel 104 of the plane valve 10 communicate with each other through a second fluid channel 1212, and the third channel 103 is provided to directly communicate with the seventh opening 1107, so that the fourth channel 104
  • the second fluid passage 1212 and the third passage 103 are also in communication with the seventh opening 1107; or alternatively, as shown in FIG.
  • the third passage 103 and the plane valve 10 The fourth channel 104 communicates through a second fluid channel 1212, and the fourth channel 104 is configured to directly communicate with the seventh opening 1107, so that the third channel 103 passes through the second fluid channel 1212 and the fourth channel 104 is also in communication with the seventh opening 1107.
  • the first fluid passage 1211 and the second fluid passage 1212 may be disposed on the first fluid control surface 120 of the fixed valve plate 12, or may be disposed on the valve body 11 or the fixed valve. The interior of the sheet 12.
  • first passage 101 and the second passage 102 of the plane valve 10 are in communication with the fifth opening 1105, and the third passage 103 and the fourth passage 104 of the plane valve 10 are in communication with the first
  • the communication of the seven openings 1107 may also be by other means.
  • the moving valve plate 13 of the plane valve 10 of the purification-demineralizing water treatment system can rotate relative to the fixed valve plate 12 so that the plane
  • the valve 10 has a first working position, a second working position, a third working position, a fourth working position, and a fifth working position.
  • the plane valve 10 When the plane valve 10 is in the first working position, the plane valve 10 The ninth channel 109 is in communication with the first channel 101, the tenth channel 1010 is in communication with the third channel 103 and the fifth channel 105, respectively; when the plane valve 10 is in the second working position, the The ninth channel 109 of the plane valve 10 is in communication with the fourth channel 104, and the eleventh channel 1011 is in communication with the eighth channel 108; when the plane valve 10 is in the third working position, the plane valve 10 The ninth channel 109 communicates with the eighth channel 108, the eleventh channel 1011 of the plane valve 10 communicates with the third channel 103; when the plane valve 10 is in the fourth working position, the plane The ninth passage 109 of the valve 10 is in communication with the seventh passage 107; when the plane valve 1 When 0 is in the fifth working position, the ninth channel 109 of the plane valve 10 communicates with the second channel 102, and the eleventh channel 1011 of the plane valve 10 communicates with the eighth channel 108.
  • the plane valve 10 of the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention further has a sixth working position and a seventh working position, wherein when the When the plane valve 10 is in the sixth working position, the eleventh channel 1011 of the plane valve 10 is in communication with the first channel 101; when the plane valve 10 is in the seventh working position, the first valve 10 The nine channels 109 are in communication with the sixth channel 106.
  • the eighth channel 108 is in communication with the ninth channel 109, and when the plane valve 10 is in the seventh working position, the tenth channel 1010 is respectively It is connected to the fourth channel 104 and the seventh channel 107, and the eleventh channel 1011 is connected to the eighth channel 108.
  • the purification-softening water treatment system according to the first preferred embodiment of the present invention is controlled to be in the purification-softening working state.
  • Nine channels 109 communicate with the first channel 101 to form the first communication channel 1001, and the tenth channel 1010 communicates with the third channel 103 and the fifth channel 105, respectively, thereby forming the second communication channel 1002 ;
  • the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention is controlled to be in the backwashing working state of the softening filter element (softening device), the plane valve 10
  • the ninth channel 109 communicates with the fourth channel 104 to form the third communication channel 1003, and the eleventh channel 1011 communicates with the eighth channel 108 to form the fourth communication channel 1004; when the When the plane valve 10 is in the third working position, the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention is controlled to be in the
  • the eleventh passage 1011 of the plane valve 10 communicates with the third passage 103 to form the sixth communication passage 1006.
  • the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention is controlled to be in the state of replenishment of the salt tank, and the ninth channel 109 and the seventh channel 107 of the plane valve 10 Communicate with each other to form the seventh communication channel 1007;
  • the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention is controlled to perform the cleaning operation of the purification device
  • the ninth channel 109 of the plane valve 10 communicates with the second channel 102 to form the eighth communication channel 1008, and the eleventh channel 1011 of the plane valve 10 communicates with the eighth channel 108
  • the ninth communication channel 1009 is formed.
  • the purification-demineralized water treatment system when the plane valve 10 is in the sixth working position, the purification-demineralized water treatment system according to the first preferred embodiment of the present invention is controlled to be in a backwashing working state of the purification device.
  • the eleventh channel 1011 communicates with the first channel 101 to form the tenth communication channel 10010.
  • the purified-demineralized water according to the first preferred embodiment of the present invention The processing system is controlled to be in the softened filter element regeneration working state.
  • the ninth channel 109 and the sixth channel 106 of the plane valve 10 communicate with each other, thereby forming the eleventh communication channel 10011.
  • the eighth passage 108 communicates with the ninth passage 109, thereby forming the twelfth communication passage 10012.
  • the tenth channel 1010 is communicated with the fourth channel 104 and the seventh channel 107 respectively, thereby forming the thirteenth communication channel 10013, and the eleventh channel 1011 is connected with the eighth channel 108, Thereby, the fourteenth communication passage 10014 is formed.
  • the eleventh channel 1011 may be a through hole provided in the moving valve disc 13, wherein the eleventh channel 1011 extends upward from the second fluid control surface 130 of the moving valve disc 13 to its opposite side.
  • the tenth channel 1010 of the plane valve 10 communicates with the third channel 103 and the fifth channel 105, respectively, and the movement of the plane valve 10
  • the valve plate 13 separates the fifth passage 105 from the inner cavity 110 of the valve body 11 to prevent raw water in the inner cavity 110 of the valve body 11 from entering the fifth passage 105.
  • the water treatment machine when the plane valve 10 is in the first working position, the water treatment machine is in a purifying-softening working state, and raw water comes from the first opening 1101 of the valve body 11 Flows into the inner cavity 110 of the valve body 11, then flows through the ninth passage 109 of the moving valve disc 13 into the first passage 101 of the fixed valve disc 12, and then through the fifth opening 1105 of the valve body 11
  • the first communication opening 201 entering the purification device 20 is treated by the water treatment material or mechanism of the purification device 20, flows out from the second communication opening 202 of the purification device 20, and then flows into the first communication opening of the softening box 31.
  • a conducting opening 301 flows out of the second conducting opening 302 of the softening box 31 after being treated by the softening resin in the softening box 31, and then flows through the seventh opening 1107 of the valve body 11 and enters the fixed valve.
  • the third channel 103 of the plate 12 is guided to the fifth channel 105 of the fixed valve plate 12 through the tenth channel 1010 of the moving valve plate 13, and then passes to the user through the second opening 1102 of the valve body 11.
  • the third channel 103 and the eleventh channel 1011 of the moving valve plate 13 flow out from the drain opening 1108 of the plane valve 10; when the plane valve 10 is in the fourth working position, the water treatment machine is at In the state that the salt tank is replenished, raw water flows from the first opening 1101 of the valve body 11 into the inner cavity 110 of the valve body 11, and then flows into the fixed valve plate through the ninth channel 109 of the moving valve plate 13. 12 of the seventh channel 107, then flows through the fourth opening 1104 of the valve body 11 and flows into the injection inlet 322 of the ejector 32 to replenish the salt solution tank 33; when the plane valve 10 is in the fifth working position The water treatment machine is in a state of being washed by the purification device.
  • Raw water flows from the first opening 1101 of the valve body 11 into the inner cavity 110 of the valve body 11, and then passes through the ninth channel of the moving valve plate 13. 109 flows into the second passage 102 of the fixed valve disc 12, and then enters the net through the fifth opening 1105 of the valve body 11.
  • the first communication opening 201 of the device 20 is flushed forward from the water treatment material or mechanism in the purification device 20, flows out from the second communication opening 202 of the purification device 20, and then flows through the valve body 11.
  • the sixth opening 1106 enters the eighth passage 108 of the fixed valve disc 12, and then flows through the eleventh passage 1011 of the moving valve disc 13 and flows out from the drain opening 1108 of the plane valve 10.
  • the water treatment machine when the plane valve 10 is in the sixth working position, the water treatment machine is in a backwashing working state of the purification device, and raw water flows into the inner cavity 110 of the valve body 11 from the first opening 1101 of the valve body 11. , And then flows into the eighth channel 108 of the fixed valve plate 12 through the ninth channel 109 of the moving valve plate 13, and then enters the second communication opening of the purification device 20 through the sixth opening 1106 of the valve body 11. 202. After the water treatment material or mechanism in the purification device 20 is backwashed, it flows out from the first communication opening 201 of the purification device 20, then flows through the fifth opening 1105 of the valve body 11, and enters the fixing device.
  • the first channel 101 of the valve plate 12 flows through the eleventh channel 1011 of the moving valve plate 13 and flows out from the drain opening 1108 of the plane valve 10.
  • the The water treatment machine is in the softened filter element regeneration working state.
  • Raw water flows from the first opening 1101 of the valve body 11 into the inner cavity 110 of the valve body 11, and then flows into the through the ninth channel 109 of the moving valve plate 13.
  • the sixth passage 106 of the valve plate 12 is fixed, and then passes through the first passage of the valve body 11
  • the opening 1103 flows into the ejection outlet 321 of the ejector 32, passes through the ejector 32, and mixes the liquid from the salt solution tank 33 and flows into the fourth opening of the valve body 11 through the ejection inlet 322 of the ejector 32.
  • the seventh opening 1107 enters the second conduction opening 302 of the softening box 31, and after regenerating, such as softened resin, in the softening tank 31, flows out from the first conduction opening 301, and then flows through the valve body 11
  • the sixth opening 1106 enters the eighth passage 108 of the fixed valve disc 12, and then passes through the eleventh passage 1011 of the moving valve disc 13, and flows out of the drain opening 1108 of the plane valve 10.
  • the second passage 102, the fourth passage 104, and the eighth passage 108 of the plane valve 10 are respectively Closed by the moving valve disc 13; when the plane valve 10 is in the second working position, the first passage 101 and the third passage 103 of the plane valve 10 are closed by the moving valve disc 13 respectively; when the plane valve 10 is in In the third working position, the second channel 102 and the fourth channel 104 of the plane valve 10 are closed by the moving valve disc 13 respectively; when the plane valve 10 is in the fourth working position, the first valve 10 of the plane valve 10 Six channels 106 are closed by the moving valve disc 13; when the plane valve 10 is in the fifth working position, the first channel 101, the third channel 103, and the fourth channel 104 of the plane valve 10 are respectively controlled by the moving valve.
  • the plate 13 is closed; when the plane valve 10 is in the sixth working position, the second channel 102, the third channel 103 and the fourth channel 104 of the plane valve 10 are closed by the moving valve plate 13 respectively; when the plane When the valve 10 is in the seventh working position, the first channel 101, the second channel 102, and the third channel 103 of the plane valve 10 are respectively It is closed by the moving valve disc 13.
  • the sixth passage 106 and the seventh passage 107 of the plane valve 10 are respectively moved by the moving valve disc. 13 is closed; when the plane valve 10 is in the third working position, the tenth passage 1010 communicates with the first passage 101 and the eighth passage 108, respectively, the sixth passage 106 and the seventh passage of the plane valve 10
  • the channels 107 are respectively closed by the moving valve disc 13; when the plane valve 10 is in the fourth working position, the first channel 101 and the third channel 103 of the plane valve 10 are closed by the moving valve disc 13 respectively; when the When the plane valve 10 is in the fifth working position, the sixth channel 106 and the seventh channel 107 of the plane valve 10 are closed by the moving valve disc 13 respectively; when the plane valve 10 is in the sixth working position, the plane valve
  • the tenth passage 1010 of 10 is communicated with the eighth passage 108, and the sixth passage 106 and the seventh passage 107 of the plane valve 10 are closed by the
  • the sixth passage 106 and the seventh passage 107 of the plane valve 10 are moved by the moving valve disc 13. Closed, the eleventh channel 1011 is closed by the fixed valve disc 12; when the plane valve 10 is in the second working position, the tenth channel 1010 of the plane valve 10 is respectively connected with the second channel 102 and the eighth channel Communicating with 108, the fifth passage 105 of the plane valve 10 is closed by the moving valve disc 13; when the plane valve 10 is in the third working position, the fifth passage 105 of the plane valve 10 is by the moving valve disc 13 Closed; when the plane valve 10 is in the fourth working position, the tenth channel 1010 of the plane valve 10 communicates with the second channel 102 and the fourth channel 104, the eleventh channel 1011 and the eighth channel The passage 108 communicates, and the fifth passage 105 of the plane valve 10 is closed by the moving valve disc 13; when the plane valve 10 is in the fifth working position,
  • first channel 101, the second channel 102, the third channel 103, the fourth channel 104, the fifth channel 105, the sixth channel 106, and the seventh channel 107 of the plane valve 10 The first fluid control surface 120 of the fixed valve disc 12 is disposed separately from the eighth channel 108; the ninth channel 109, the tenth channel 1010, and the eleventh channel 1011 are separately spaced from each other.
  • the second fluid control surface 130 is disposed on the moving valve disc 13.
  • the eighth passage 108 respectively form a passage opening provided on the first fluid control surface 120 of the fixed valve disc 12
  • the ninth passage 109, the tenth passage 1010, and the eleventh passage 1011 form one
  • the passage opening of the second fluid control surface 130 provided on the moving valve plate 13 is opposite to the surface (the second fluid control surface 130) of the moving valve plate 13 of the plane valve 10 (the first fluid control surface).
  • the eighth channel 108, the ninth channel 109, the tenth channel 1010, and the eleventh channel 1011 may have any extension path (or direction) capable of achieving the mutual connection relationship herein;
  • the first of the plane valve 10 Channel 101, the second channel 102, the third channel 103, the fourth channel 104, the fifth channel 105, the sixth channel 106, the seventh channel 107, and the eighth channel 108 are respectively formed in the fixed valve
  • the passage openings of the first fluid control surface 120 of the sheet 12, and the ninth passage 109, the tenth passage 1010, and the eleventh passage 1011 are formed on the second fluid control surface 130 of the moving valve disc 13, respectively.
  • the channel opening may have any shape capable of achieving the mutual connection relationship herein.
  • the passage opening of the eighth passage 108 formed in the first fluid control surface 120 of the fixed valve plate 12 may be provided with a regular shape or may be provided with an irregular shape. Therefore, the first channel 101, the second channel 102, the third channel 103, the fourth channel 104, the fifth channel 105, the sixth channel 106, the seventh channel 107, the The extension path (or direction) of the eighth channel 108, the ninth channel 109, the tenth channel 1010, and the eleventh channel 1011 and the shape of the channel openings should not be a limitation to the present invention.
  • the first channel 101, the eighth channel 108, and the second channel of the plane valve 10 of the purification-demineralization water treatment system according to the first preferred embodiment of the present invention 102.
  • the fourth channel 104, the seventh channel 107, the sixth channel 106, the third channel 103, and the fifth channel 105 are arranged clockwise on the fixed valve disc 12 in this order; the plane valve 10
  • the eleventh channel 1011, the tenth channel 1010, and the ninth channel 109 are arranged clockwise on the moving valve disc 13 in this order.
  • the fifth channel 105 are arranged counterclockwise on the fixed valve disc 12; the eleventh channel 1011, the tenth channel 1010 and the ninth channel 109 of the plane valve 10 are counterclockwise in this order Arranged in this moving valve disc 13.
  • the fixed valve plate 12 of the flat valve 10 of the purification-demineralizing water treatment system has a first center The portion 121 and a first extension portion 122 extending outward from the first center portion 121.
  • the moving valve disc 13 has a second center portion 131 and a second extension portion extending outward from the second center portion 131.
  • the first fluid control surface 120 of the fixed valve disc 12 has a central portion 1200 shown by a chain line in the figure, wherein the central portion 1200 is provided on the first central portion 121 of the fixed valve disc 12
  • the portion other than the center portion 1200 of the first fluid control surface 120 is equally divided clockwise into a first portion 1201, a second portion 1202, a third portion 1203, and a fourth portion 1204, a fifth part 1205, a sixth part 1206, a seventh part 1207, an eighth part 1208, a ninth part 1209, a tenth part 12010, and an eleventh part 12011;
  • the second fluid control surface 130 of the moving valve disc 13 has a A center region 1300 shown by a dashed line in the figure, wherein the center region 1300 is provided on the second center portion 131 of the moving valve disc 13, and a portion outside the center region 1300 of the second fluid control surface 130 is straightened.
  • the hour hand is equally divided into a first region 1301, a second region 1302, a third region 1303, a fourth region 1304, a fifth region 1305, a sixth region 1306, and a seventh region as shown by the dotted line. 1307, an eighth region 1308, a ninth region 1309, a tenth region 13010, and an eleventh region 13011; wherein the first channel 101 extends downward from the first portion 1201 of the first fluid control surface 120; the An eighth channel 108 extends downward from the second portion 1202, the third portion 1203, the fourth portion 1204, and the fifth portion 1205 of the first fluid control surface 120 of the fixed valve disc 12; the second channel 102 extends downward from the sixth portion 1206 of the first fluid control surface 120 of the fixed valve disc 12; the fourth passage 104 extends from the seventh portion 1207 of the first fluid control surface 120 of the fixed valve disc 12 Extending downward; the seventh channel 107 is controlled from the first fluid The eighth portion 1208 of the surface 120 extends downward; the sixth channel 106 extends downward from the ninth portion 1209 of
  • the first fluid control surface 120 of the fixed valve disc 12 of the plane valve 10 and the second fluid control surface 130 of the moving valve disc 13 are both circular, and the first passage 101, the second passage 102, The third channel 103, the fourth channel 104, the fifth channel 105, the sixth channel 106, the seventh channel 107, and the eighth channel 108 are all disposed in the first direction of the fixed valve disc 12 in the radial direction.
  • the fluid control surface 120, and the ninth channel 109 and the tenth channel 1010 are both disposed on the second fluid control surface 130 of the moving valve disc 13 in a radial direction.
  • the first passage 101 of the flat valve 10 extends downward and outward from the first fluid control surface 120 of the fixed valve disc 12, and the second passage 102 extends from the first fluid of the fixed valve disc 12.
  • the control surface 120 extends downward and outward, the third channel 103 extends downward and outward from the first fluid control surface 120 of the fixed valve disc 12, and the fourth channel 104 extends from the first of the fixed valve disc 12
  • the fluid control surface 120 extends downward and outward, the fifth channel 105 extends downward and outward from the first fluid control surface 120 of the fixed valve disc 12, and the sixth channel 106 extends from the first of the fixed valve disc 12
  • the fluid control surface 120 extends downward and outward, the seventh channel 107 extends downward and outward from the first fluid control surface 120 of the fixed valve disc 12, and the eighth channel 108 extends from the first fluid control surface 12 of the fixed valve disc 12.
  • a fluid control surface 120 extends downward and outward.
  • the valve body 11 of the plane valve 10 of the purification-demineralizing water treatment system has an inner wall 111, wherein the fixed valve disc 12 is adapted
  • the first fluid control surface 120 is disposed on the inner cavity 110 upward
  • the moving valve plate 13 is adapted to be disposed on the inner cavity 110 with the second fluid control surface 130 downward, wherein the inner cavity 110 is always connected to the inner cavity 110.
  • the ninth channel 109 communicates.
  • the fixed valve disc 12 of the plane valve 10 may be detachably disposed on the inner wall 111 of the valve body 11, or may be integrally formed with the inner wall 111 of the valve body 11 of the plane valve 10.
  • the fixed valve disc 12 when the fixed valve disc 12 is detachably disposed in the valve body 11, a fixed mechanism is used between the fixed valve disc 12 and the valve body 11 to hold the fixed valve disc 12 and The synchronization between the valve bodies 11.
  • the fixed valve disc 12 has a stopper 123 protruding outward from an edge of the fixed valve disc 12, and the inner wall 111 of the valve body 11 has a brake.
  • the braking member 123 of the fixed valve disc 12 is provided to be able to engage with the braking groove 1110 of the inner wall 111 of the valve body 11 to ensure the space between the fixed valve disc 12 and the valve body 11 Phase synchronization (or relative rotation does not occur) and ensure that each channel provided in the fixed valve disc 12 communicates with a corresponding opening provided in the valve body 11.
  • the fixed valve disc 12 when the fixed valve disc 12 is detachably disposed in the valve body 11, the fixed valve disc 12 can be manufactured separately.
  • the fixed valve disc 12 may be made of a wear-resistant material, thereby improving the service life of the fixed valve disc 12 (or the entire flat valve).
  • the first fluid control surface 120 of the fixed valve disc 12 is smoothed to reduce its roughness.
  • the plane valve 10 of the purification-demineralizing water treatment system further includes a flow guiding element 15, wherein the flow guiding element 15 forms the sewage Channel 150, in which the deflector element 15 is provided to extend upward from the moving valve sheet 13 and the drain channel 150 of the deflector element 15 communicates with the drain opening 1108 and the eleventh channel 1011 of the flat valve, respectively
  • the blowdown opening 1108 is provided in the valve body 11 of the plane valve 10, or the blowdown channel 150 is directly connected to the blowdown opening 1108 (the blowdown opening 1108 is provided in the moving valve plate 13 of the flat valve 10, And communicates with the eleventh channel 1011) so that sewage or wastewater can flow out of it.
  • the plane valve 10 of the purification-demineralization water treatment system according to the first preferred embodiment of the present invention further includes a driving element 18 extending upward from the moving valve disc 13, wherein The driving element 18 is configured to drive the moving valve disc 13 of the flat valve 10 to rotate relative to the fixed valve disc 12.
  • the driving element 18 is integrally formed with the flow guiding element 15.
  • the driving element 18 and the flow guiding element 15 are two independent mechanisms.
  • the plane valve 10 of the purification-demineralizing water treatment system further includes a sealing element 17, wherein the sealing element 17 is disposed in association with the driving The elements 18 face each other, wherein the sealing element 17 forms a first sealing surface 170 and the driving element 18 forms a second sealing surface 180, wherein the first sealing surface 170 of the sealing element 17 is disposed on the driving element 18
  • the second sealing surface 180 is such that when the driving element 18 rotates relative to the sealing element 17 to drive the moving valve disc 13 to rotate relative to the fixed valve disc 12, the driving element 18 and the sealing element 17 are sealed. And prevent water leakage.
  • the sealing element 17 is provided to keep the driving element 18 in a proper position, thereby keeping the moving valve disc 13 in a preset position.
  • the diameter of the moving valve plate 13 of the plane valve 10 of the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention is set slightly smaller than that of the valve body 11.
  • the diameter of the inner cavity 110 allows the ninth channel 109 of the flat valve 10 to be maintained in communication with the inner cavity 110 of the valve body 11 through the water inlet 1091.
  • control device 16 of the plane valve 10 of the purification-softening water treatment system is set to be able to pass a purification-softening control instruction through A transmission mechanism 14, such as a transmission gear, drives the driving element 18 to rotate, to drive the moving valve plate 13 of the plane valve 10 to rotate relative to the fixed valve plate 12, thereby forming a valve body 11 respectively with the plane valve 10.
  • a transmission mechanism 14 such as a transmission gear
  • the purified water obtained after the raw water is purified by the purification device 20 flows out from the second communication opening 202 of the purification device 20, and the purified water can flow into the softening through the first conduction opening 301 of the softening box 31 Box 31 and obtained after softening Demineralized water flows out of the second conduction opening 302 of the softening tank 31, then passes through the seventh opening 1107 of the valve body 11, the second communication passage 1002 of the plane valve 10, and finally passes through the valve body
  • the second opening 1102 of 11 flows out and supplies softened water to the user; according to a softening filter (softening device) backwash control instruction, the driving mechanism 18 is driven to rotate by the transmission mechanism 14 such as a transmission gear to drive the plane valve
  • the moving valve disc 13 of 10 is rotated relative to the fixed valve disc 12, thereby forming a third communication passage 1003 and a third communication channel 1003 respectively communicating with the inner cavity 110 and the seventh opening 1107 of the valve body 11 of the plane valve 10.
  • Fourth communication passages 1004 communicating with the sixth opening 1106 of the valve body 11 and the drain opening 1108 of the plane valve 10, respectively, to allow raw water to flow from the first opening 1101 of the valve body 11 into the valve body 11 of the inner cavity 110, then flows into the seventh opening 1107 through the third communication channel 1003 formed by the plane valve 10, and then flows into the softening box 31 through the second conduction opening 302 of the softening box 31, and the The softening material (or water treatment) in the softening box 31 Material), such as softened resin, etc., after backwashing, the obtained sewage or waste water flows out from the first conducting opening 301 of the softening box 31, and then flows through the sixth opening 1106 of the valve body 11 and flows into the plane valve
  • the fourth communication channel 1004 of 10 then flows out of the drain opening 1108 of the plane valve 10; according to a softening filter (softening device) is a washing control command, the driving element 18 is driven by the transmission mechanism 14, such as a transmission gear Rotate to drive the moving valve disc
  • a sixth communication passage 1006 that communicates with the seventh opening 1107 of the valve body 11 and the drain opening 1108 of the plane valve 10 to allow raw water to flow from the first opening 1101 of the valve body 11 into the
  • the inner cavity 110 of the valve body 11 then flows into the sixth opening 1106 through the fifth communication channel 1005, and then enters the first conduction opening 301 of the softening box 31, and the water treatment material or After the mechanism is flushed forward,
  • the second conduction opening 302 of 31 flows out, then flows through the seventh opening 1107 of the valve body 11 into the sixth communication passage 1006, and then flows out of the drain opening 1108 of the plane valve 10; according to a water supplement control instruction
  • the transmission mechanism 14 such as a transmission gear
  • the driving element 18 is driven to rotate, so that the moving valve plate 13 of the plane valve 10 is rotated relative to the fixed valve plate 12, thereby forming an inner portion of the valve body 11 respectively.
  • the transmission mechanism 14 such as a transmission gear 18 is rotated to drive the moving valve disc 13 of the flat valve 10 to rotate relative to the fixed valve disc 12, thereby forming an eighth communication passage communicating with the inner cavity 110 and the fifth opening 1105 of the valve body 11, respectively.
  • the inner cavity 110 then flows into the fifth opening 1105 through the eighth communication channel 1008, and then enters the first communication opening 201 of the purification device 20.
  • Flows out from the second communication opening 202 of the purification device 20 then flows through the sixth opening 1106 of the valve body 11, flows into the ninth communication passage 1009, and then flows out from the drain opening 1108 of the plane valve 10.
  • the control device 16 of the plane valve 10 of the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention is further provided with a backwash control command according to a purification device
  • a purification device Through the transmission mechanism 14 such as a transmission gear, the driving element 18 is driven to rotate to drive the moving valve plate 13 of the plane valve 10 to rotate relative to the fixed valve plate 12, thereby forming a first and second valve body 11 respectively.
  • the raw water is allowed to flow from the first opening 1101 of the valve body 11 into the inner cavity 110 of the valve body 11, and then flows into the sixth opening 1106 through the twelfth communication passage 10012, and then enters the purifying device 20.
  • the second communication opening 202 is washed back from the water treatment material or mechanism in the purification device 20, flows out from the first communication opening 201 of the purification device 20, and then flows through the fifth opening 1105 of the valve body 11.
  • control device 16 of the plane valve 10 of the purification-demineralization water treatment system is further configured to be capable of controlling a regeneration filter according to a softening filter element.
  • the transmission mechanism 14 such as a transmission gear
  • the driving element 18 is driven to rotate, so that the moving valve plate 13 of the plane valve 10 is rotated relative to the fixed valve plate 12, thereby forming an inner cavity with the valve body 11 respectively.
  • the inner cavity 110 then flows into the third opening 1103 through the eleventh communication channel 10011, and then flows into the ejection outlet 321 of the ejector 32. After passing through the ejector 32, the liquid from the salt tank 33 is mixed.
  • the jet through the jet 32 The port 322 flows into the fourth opening 1104 of the valve body 11, and then flows into the seventh opening 1107 through the thirteenth communication passage 10013, enters the second conduction opening 302 of the softening box 31, and regenerates the softening box 31 countercurrently. After softening the resin, it flows out from the first conducting opening 301, then flows through the sixth opening 1106 of the valve body 11 into the fourteenth communication passage 10014, and then flows out from the drain opening 1108 of the plane valve 10. .
  • control instructions such as purification-softening control instructions, softening device backwashing control instructions, softening device forward-washing control instructions, water supply control instructions, purification device forward-washing control instructions, purification device backwashing control instructions, and softening filter elements
  • Control instructions such as the regeneration control instruction may be preset in the control module of the control device 16, or may be received from a control terminal through an electronic communication network, or input by a user through an input interface.
  • the purification-demineralizing water treatment system of the present invention is provided with an input interface for the plane valve 10, such as a touchpad or control buttons, the user can control the control through the touchpad or corresponding control buttons.
  • the control module of the device 16 sends the above-mentioned control instruction, so that the control module of the control device 16 controls the motor of the control device 16 to rotate, thereby driving the driving element 18 to rotate through a transmission mechanism 14.
  • FIGS. 1 and 2 of the drawings, Figures 19 to 33G show an alternative implementation of the plane valve (or fluid valve) 10 of the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention. It is suitable for controlling the purification-demineralization water treatment system to perform purification-demineralization treatment on raw water or water to be treated, wherein the plane valve 10 ′ includes a valve body 11 ′ and a valve core 1 ′, wherein the valve core 1 ′ includes a movable A valve disc 13 'and a fixed valve disc 12', wherein the valve body 11 'forms an inner cavity 110, a first opening 1101, a second opening 1102, a third opening 1103, a fourth opening 1104, a first opening Five openings 1105, a sixth opening 1106, a seventh opening 1107, and a drain opening (or eighth opening) 1108 ', the fixed valve disc 12' has a first fluid control surface 120, and the moving valve disc 13 'has A second fluid control surface 130, in which the moving
  • the first fluid control surface 120 of the fixed valve disc 12 ', and the moving valve disc 13' is provided Is capable of rotating relative to the fixed valve disc 12 ′, wherein the purification device 20 of the purification-softening water treatment system has a first communication opening 201 and a second communication opening 202, and the softening device 30 of the purification-softening water treatment system includes a Softening box 31, wherein the softening box 31 has a first conducting opening 301 and a second conducting opening 302, wherein the inner cavity 110 of the valve body 11 'of the plane valve 10' is connected to the first opening 1101
  • the first communication opening 201 of the purification device 20 communicates with the fifth opening 1105 of the valve body 11 ′, the second communication opening 202 of the purification device 20 and the first conduction of the softening box 31
  • the openings 301 are all in communication with the sixth opening 1106 of the valve body 11 ′, and the second conduction opening 302 of the softening box 31 is in communication with the seventh opening 1107
  • the softening device 30 of the purified-demineralized water treatment system further includes a jet 32 and a salt tank 33, wherein the ejector 32 has an injection port 321 adapted to communicate with the third opening 1103 of the valve body 11 'and an injection port adapted to communicate with the fourth opening 1104 of the valve body 11' 322, wherein the salt solution tank 33 is adapted to communicate with the ejector 32, so that the salt liquid from the salt solution tank 33 can pass through the ejector 32 and the fourth opening 1104, and flow through the plane valve 10 '
  • the softening box 31 of the softening device 30 is used to regenerate the softened resin in the softening box 31.
  • the purification-demineralized water treatment system of the present invention when the purification-demineralized water treatment system of the present invention is in a state where the softened filter element absorbs salt, the raw water or water to be treated flows from the first opening 1101 of the valve body 11 ′ into the inside of the valve body 11 ′.
  • the cavity 110 then flows into the third opening 1103 through an eleventh communication channel 10011, and then flows into the ejection outlet 321 of the ejector 32.
  • the liquid from the salt tank 33 is mixed and passed through the The injection inlet 322 of the ejector 32 flows into the fourth opening 1104 of the valve body 11 ′, and then flows into the seventh opening 1107 through a thirteenth communication passage 10013, and enters the second conduction opening 302 of the softening box 31.
  • the water treatment material or mechanism in the softening box 31 is regenerated countercurrently, such as after softening the resin, flows out from the first conducting opening 301, and then flows through the sixth opening 1106 of the valve body 11 ′ into a fourteenth communication
  • the channel 10014 'then flows out of the drain opening 1108' of the plane valve 10 '.
  • the present invention only exemplarily describes the manner in which the salt solution is provided to the softening tank 31 through the ejector 32, the salt solution may also be provided to the softening tank 31 through the fourth opening 1104 of the plane valve 10 ′ by other methods or mechanisms The softening box 31. Therefore, the manner of supplying the salt solution to the softening tank 31 through the ejector 32 should not be a limitation of the present invention.
  • the plane valve 10 ′ of the purification-demineralized water treatment system of the present invention further has a connection mechanism, such as a connection thread, a snap joint, etc., disposed on the valve body 11 ′, so as to facilitate the plane valve.
  • 10 ′ is connected to other structural components of the purification-demineralized water treatment system, such as the purification device 20, the softening device 30, etc., to guide water to the purification device 20, the softening box 31 of the softening device 30, and the plane valve 10 ′, respectively.
  • the formation of each communication channel is not limited to the purification device 20, the softening box 31 of the softening device 30, and the plane valve 10 ′.
  • the purification-demineralized water treatment system has a first working state, a second working state, a third working state, and a first working state.
  • Four working states and a fifth working state wherein when the purification-demineralized water treatment system is in the first working state, the moving valve disc 13 'and the fixed valve disc 12' of the plane valve 10 'form a separate
  • a first communication channel 1001 communicating with the inner cavity 110 (or the first opening 1101) and the fifth opening 1105 of the valve body 11 ', and a second opening 1102 and the second opening 1102 of the valve body 11', respectively.
  • the second communication passage 1002 that communicates with the seventh opening 1107.
  • the moving valve disc 13 'and the fixed valve disc 12' of the plane valve 10 ' are formed.
  • the first communication channel formed by the plane valve 10 ' 1001 communicates with the inner cavity 110 (or the first opening 1101) and the fifth opening 1105 of the valve body 11 ', and the second communication passage 1002 communicates with the second opening 1102 and the valve body 11', respectively.
  • the seventh opening 1107 communicates, thereby allowing raw water to flow from the first opening 1101 of the valve body 11 ′ into the inner cavity 110 of the valve body 11 ′, and then through the first communication channel formed by the plane valve 10 ′.
  • the fifth opening 1105 of the valve body 11 ′, the first communication opening 201 of the purification device 20 flows into the purification device 20, and purified water obtained after the raw water is purified by the purification device 20 is purged from the purification device 20.
  • the second communication opening 202 flows out, and purified water flows through the first conduction opening 301 of the softening tank 31 and flows into the softening tank 31, and softened water is obtained after the softening treatment, and the softened water flows from the second of the softening tank 31
  • the conduction opening 302 flows out, and then passes through the seventh opening 1107 of the valve body 11 ′, Valve plane 10 'of the second communication channel 1002, and finally through the valve element 11' and supply of softened water to flow out of the second opening 1102 of the user.
  • the second communication opening 202 of the purification device 20 is in communication with a water supply outlet 401 (or water supply passage 400), so as to provide users with clean water. Therefore, when the purified-demineralized water treatment system is in the first working state, the purified-demineralized water treatment system of the present invention can simultaneously provide purified water and demineralized water to users. Accordingly, the first working state of the purification-demineralized water treatment system corresponds to the purification-demineralization working state of the purification-demineralized water treatment system.
  • the second conduction opening 302 of the softening box 31 of the device 30, the seventh opening 1107 of the valve body 11 ′, and the second opening 1102 of the valve body 11 ′ are sequentially communicated, thereby forming a purification device
  • the water flow path 20 and the softening device 30 are connected in series so that the raw water can flow from the purification device 20 to the softening device 30 and the raw water is sequentially purified and softened.
  • the third communication channel formed by the plane valve 10 ' 1003 communicates with the inner cavity 110 (or the first opening 1101) and the seventh opening 1107 of the valve body 11 ', and the fourth communication passage 1004' communicates with the sixth opening 1106 of the valve body 11 ', respectively.
  • the formed third communication channel 1003 flows into the seventh opening 1107, and then flows into the softening box 31 through the second conducting opening 302 of the softening box 31, and the softening material (or water treatment material) in the softening box 31 ), Such as softened resin, etc., after backwashing, the obtained sewage or waste water flows out from the first conducting opening 301 of the softening box 31, and then flows through the sixth opening 1106 of the valve body 11 ′ into the plane valve 10 ′ of the fourth communication passage 1004 ′, and then from the drain opening 110 of the plane valve 10 ′ 8 'outflow.
  • the purification-demineralized water treatment system of the present invention can control reverse flushing of the softening filter element, such as the softening tank 31. Accordingly, the second working state of the purification-demineralizing water treatment system corresponds to the backwashing working state of the softening filter element (softening device) of the purification-demineralizing water treatment system.
  • the fifth communication channel formed by the plane valve 10 ' 1005 respectively communicates with the inner cavity 110 (or the first opening 1101) and the sixth opening 1106 of the valve body 11 '
  • the sixth communication passage 1006' is respectively connected with the seventh opening 1107 of the valve body 11 ' Communicates with the drain opening 1108 'of the plane valve 10', thereby allowing raw water to flow from the first opening 1101 of the valve body 11 'into the inner cavity 110 of the valve body 11', and then through the fifth communication passage 1005 flows into the sixth opening 1106, and then enters the first conducting opening 301 of the softening box 31.
  • the purification-demineralized water treatment system of the present invention can control the forward flushing of the softening filter element, such as the softening tank 31. Accordingly, the third working state of the purification-demineralized water treatment system corresponds to the normal washing operation state of the softening filter element (softening device) of the purification-demineralized water treatment system.
  • the seventh communication channel formed by the plane valve 10 ' 1007 communicates with the inner cavity 110 (or the first opening 1101) and the fourth opening 1104 of the valve body 11 ′, thereby allowing raw water to flow into the valve body from the first opening 1101 of the valve body 11 ′.
  • the internal cavity 110 of 11 'then flows into the fourth opening 1104 through the seventh communication channel 1007, and then flows into the injection inlet 322 of the ejector 32 to replenish water to the salt tank 33.
  • the purification-demineralized water treatment system of the present invention can control the replenishment of water to the salt tank 33. Accordingly, the fourth working state of the purification-demineralized water treatment system corresponds to the state of replenishment of the salt solution tank of the purification-demineralized water treatment system.
  • the eighth communication channel formed by the plane valve 10 ' 1008 communicates with the inner cavity 110 (or the first opening 1101) and the fifth opening 1105 of the valve body 11 ', and the ninth communication passage 1009' communicates with the sixth opening 1106 of the valve body 11 ', respectively.
  • the purification-demineralized water treatment system of the present invention can control the forward flushing of the purification device 20. Accordingly, the fifth working state of the purification-demineralized water treatment system corresponds to the normal washing operation state of the purification device of the purification-demineralized water treatment system.
  • the purification-demineralized water treatment system according to the first preferred embodiment of the present invention further has a sixth working state and a seventh working state, wherein when the purified-demineralized water treatment When the system is in the sixth working state, the moving valve disc 13 'and the fixed valve disc 12' of the plane valve 10 'form a fifth opening 1105 and the plane valve 10' respectively with the valve body 11 '
  • the tenth communication channel 10010 ′ connected to the sewage discharge opening 1108 ′; when the purification-demineralized water treatment system is in the seventh working state, the moving valve disc 13 ′ and the fixed valve disc of the plane valve 10 ′ 12 ′ forms an eleventh communication passage 10011 which communicates with the inner cavity 110 (or the first opening 1101) and the third opening 1103 of the valve body 11 ′, respectively.
  • the moving valve disc 13 'and the fixed valve disc 12' of the plane valve 10 'further form a valve valve 11' and a valve valve 11 ', respectively.
  • the plane valve 10 ′ The moving valve disc 13 'and the fixed valve disc 12' form a thirteenth communication passage 10013 communicating with the seventh opening 1107 and the fourth opening 1104 of the valve body 11 ', respectively, and a thirteenth communicating passage 10013, respectively.
  • the tenth communication channel formed by the plane valve 10 ' 10010 ′ communicates with the fifth opening 1105 of the valve body 11 ′ and the drain opening 1108 ′ of the flat valve 10 ′, respectively, and the twelfth communication passage 10012 communicates with the inner cavity 110 and The sixth opening 1106 communicates, thereby allowing raw water to flow from the first opening 1101 of the valve body 11 ′ into the inner cavity 110 of the valve body 11 ′, and then flow into the sixth opening through the twelfth communication passage 10012. 1106.
  • the water treatment material or mechanism in the purification device 20 After entering the second communication opening 202 of the purification device 20, the water treatment material or mechanism in the purification device 20 is reversely flushed, flows out from the first communication opening 201 of the purification device 20, and then flows through The fifth opening 1105 of the valve body 11 ′ flows into the tenth communication passage 10010 ′, and then flows out of the drain opening 1108 ′ of the plane valve 10 ′; when the purified-demineralized water according to the first preferred embodiment of the present invention
  • the plane valve 10 The eleventh communication passages 10011 formed by ′ communicate with the inner cavity 110 and the third opening 1103 of the valve body 11 ′, and the thirteenth communication passages 10013 are respectively connected with the seventh opening of the valve body 11 ′.
  • the first opening 1101 of the valve body 11 ′ flows into the inner cavity 110 of the valve body 11 ′, and then flows into the third opening 1103 through the eleventh communication passage 10011, and then flows into the injection outlet of the ejector 32.
  • the sixth working state of the purification-demineralized water treatment system corresponds to the backwashing working state of the purification device of the purification-demineralized water treatment system
  • the seventh working state of the purification-demineralized water treatment system corresponds to the purification -The softening filter element (softening device) of the softening water treatment system regenerates the working state.
  • the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention further has a water supply unit 40, wherein the water supply unit 40 forms a water supply passage. 400, wherein the water supply path 400 is provided in communication with the second communication opening 202 of the purification device 20 to provide clean water to a user.
  • the water supply unit 40 includes a water purification pipe (or water purification pipe) 41 and a fluid valve 42, wherein the fluid valve 42 is provided in the net A water pipe 41 to control the supply of purified water to the user.
  • the water purification pipe 41 forms the water supply outlet 401.
  • the fluid valve 42 is an electric ball valve or an electric plane valve, so that a user can automatically control the supply of purified water through a control device 16. Therefore, the second communication opening 202 of the purification device 20 and the sixth opening 1106 of the plane valve 10 ′, the first conduction opening 301 of the softening box 31, and the water supply passage 400 (or the water supply outlet 401, respectively) ) Connected. In addition, the sixth opening 1106 of the plane valve 10 ′ is further communicated with the first communication opening 301 of the softening box 31.
  • the plane valve 10 'of the purification-demineralizing water treatment system has a first passage 101, a second passage 102, and a third Channel 103, a fourth channel 104, a fifth channel 105, a sixth channel 106, a seventh channel 107, an eighth channel 108, a ninth channel 109, a tenth channel 1010, and an eleventh channel 1011 ′ and a twelfth channel 1012 ′, wherein the first channel 101, the second channel 102, the third channel 103, the fourth channel 104, the fifth channel 105, the sixth channel 106, the first channel Seven channels 107, eighth channels 108, and twelfth channels 1012 ′ are respectively provided on the fixed valve disc 12 ′ and extend from the first fluid control surface 120 of the fixed valve disc 12 ′, respectively; the ninth channel 109 The tenth channel 1010 and the eleventh channel 1011 ′ are respectively
  • the communication between the second communication opening 202 of the purification device 20 and the first communication opening 301 of the softening box 31 and the sixth opening 1106 of the valve body 11 ′ can be achieved in various ways. As shown in FIGS. 21A to 22B of the accompanying drawings, the sixth opening 1106 of the valve body 11 ′ can pass through the first communication openings 202 of the purification device 20 and the first conduction of the softening box 31, respectively.
  • a communication pipe (or three-way pipe) communicating with the opening 301 realizes the second communication opening 202 of the purification device 20, the first communication opening 301 of the softening box 31, and the sixth of the valve body 11 '. Communication between the openings 1106.
  • the communication between the second communication opening 202 of the purification device 20 and the first communication opening 301 of the softening box 31 and the sixth opening 1106 of the valve body 11 ′ may also be provided through the valve.
  • the communication passage of the body 11 ′ is realized, wherein the communication passage may be provided to communicate with the second communication opening 202 of the purification device 20 and the sixth opening 1106 of the valve body 11, and respectively with the softening box 31.
  • the first conducting opening 301 communicates with the sixth opening 1106 of the valve body 11 ′. Therefore, the eighth passage 108 of the valve body 11 ′, the second communication opening 202 of the purification device 20, and the first conduction opening 301 of the softening box 31 pass through the sixth opening 1106 of the valve body 11 ′.
  • the ninth channel 109 is provided through a water inlet 1091 that can always communicate with the external space. Always communicate with the inner cavity 110 of the valve body 11 '.
  • first passage 101 and the second passage 102 of the plane valve 10 ′ communicate with the fifth opening 1105 respectively, and may be communicated with the fifth opening 1105 separately and independently, or Communicating through a fluid channel;
  • the third channel 103 and the fourth channel 104 of the plane valve 10 ′ are respectively connected to the seventh opening 1107, and may be separately and independently connected to the seventh opening 1107, It can also communicate through a fluid channel.
  • the first channel 101 and the second channel 102 of the plane valve 10 ′ communicate with each other through a first fluid channel 1211, and the second channel 102 is provided to directly communicate with the second channel 102.
  • the fifth opening 1105 is in communication, so that the first channel 101 is also in communication with the fifth opening 1105 through the first fluid channel 1211 and the second channel 102; the third channel 103 of the plane valve 10 ' And the fourth channel 104 communicate with the seventh opening 1107 separately.
  • the first channel 101 is provided to directly communicate with the fifth opening 1105, and the second channel 102 passes through the first fluid channel 1211 and the first channel 101, and It communicates with the fifth opening 1105.
  • the first passage 101 and the second passage 102 of the plane valve 10 ′ may communicate with the fifth opening 1105 separately and independently; or alternatively, as shown in FIG.
  • the third channel 103 and the fourth channel 104 of the plane valve 10 ′ communicate with each other through a second fluid channel 1212, and the third channel 103 is provided to directly communicate with the seventh opening 1107, so that the fourth channel
  • the passage 104 is also in communication with the seventh opening 1107 through the second fluid passage 1212 and the third passage 103; or alternatively, as shown in FIG. 36 of the accompanying drawings, the third passage of the plane valve 10 ' 103 and the fourth channel 104 communicate with each other through a second fluid channel 1212, and the fourth channel 104 is provided to directly communicate with the seventh opening 1107, so that the third channel 103 passes through the second fluid channel 1212 and the The fourth channel 104 is also in communication with the seventh opening 1107.
  • first fluid passage 1211 and the second fluid passage 1212 may be disposed on the first fluid control surface 120 of the fixed valve disc 12 ′, or may be disposed on the valve body 11 ′ or the valve body 11 ′.
  • first passage 101 and the second passage 102 of the plane valve 10 ′ are in communication with the fifth opening 1105
  • the third passage 103 and the fourth passage 104 of the plane valve 10 ′ are in communication with the fifth opening 1105, respectively.
  • the communication of the seventh opening 1107 may also be performed by other methods.
  • the moving valve disc 13 ′ of the plane valve 10 ′ of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention can be rotated relative to the fixed valve disc 12 ′.
  • the plane valve 10 ' has a first working position, a second working position, a third working position, a fourth working position and a fifth working position, wherein when the plane valve 10' is in the first working position
  • the ninth channel 109 of the plane valve 10 ′ communicates with the first channel 101
  • the tenth channel 1010 communicates with the third channel 103 and the fifth channel 105, respectively
  • the ninth channel 109 of the plane valve 10 ′ communicates with the fourth channel 104
  • the eleventh channel 1011 ′ is connected to the eighth channel 108 and the twelfth channel 1012 ′, respectively.
  • the ninth channel 109 of the plane valve 10' communicates with the eighth channel 108, and the eleventh channel 1011 'of the plane valve 10' is respectively Communicating with the third channel 103 and the twelfth channel 1012 ′; when the plane valve 10 ′ When in the fourth working position, the ninth channel 109 of the plane valve 10 'communicates with the seventh channel 107; when the plane valve 10' is in the fifth working position, the first valve of the plane valve 10 ' Nine channels 109 are in communication with the second channel 102, and the eleventh channel 1011 'in the plane valve 10' is in communication with the eighth channel 108 and the twelfth channel 1012 ', respectively.
  • the plane valve 10 ′ of the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention further has a sixth working position and a seventh working position, wherein when When the plane valve 10 'is in the sixth working position, the eleventh channel 1011' of the plane valve 10 'communicates with the first channel 101 and the twelfth channel 1012', respectively; when the plane valve 10 'is in In the seventh working position, the ninth channel 109 of the plane valve 10 ′ is in communication with the sixth channel 106.
  • the eighth channel 108 is in communication with the ninth channel 109
  • the tenth channel 1010 communicates with the fourth channel 104 and the seventh channel 107
  • the eleventh channel 1011 ' communicates with the eighth channel 108 and the twelfth channel 1012', respectively.
  • the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention is controlled to be in the purification-softening working state.
  • the ninth channel 109 communicates with the first channel 101 to form the first communication channel 1001, and the tenth channel 1010 communicates with the third channel 103 and the fifth channel 105 respectively, thereby forming the second communication Channel 1002;
  • the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention is controlled to be in the backwashing working state of the softening filter element (softening device), the The ninth channel 109 of the plane valve 10 'communicates with the fourth channel 104 to form the third communication channel 1003.
  • the eleventh channel 1011' is connected to the eighth channel 108 and the twelfth channel 1012 ', respectively. Communicate with each other to form the fourth communication channel 1004 ′; when the plane valve 10 ′ is in the third working position, the purification-demineralized water treatment system according to the first preferred embodiment of the present invention is controlled at the softened filter element (Softening device) Forward washing work State, the ninth channel 109 of the plane valve 10 'communicates with the eighth channel 108, thereby forming the fifth communication channel 1005, and the eleventh channel 1011' of the plane valve 10 'and the third channel respectively 103 communicates with the twelfth channel 1012 ′, thereby forming the sixth communication channel 1006 ′; when the plane valve 10 ′ is in the fourth working position, the purified-demineralized water according to the first preferred embodiment of the present invention
  • the processing system is controlled to be in the state of replenishment of the salt liquid tank.
  • the ninth channel 109 of the plane valve 10 ' communicates with the seventh channel 107 to form the seventh communication channel 1007.
  • the plane valve 10' is in the In the fifth working position, when the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention is controlled to be in the washing state of the purification device, the ninth channel 109 of the plane valve 10 'and the second valve
  • the channel 102 communicates with each other to form the eighth communication channel 1008.
  • the eleventh channel 1011 'of the plane valve 10' communicates with the eighth channel 108 and the twelfth channel 1012 ', respectively, thereby forming the ninth channel.
  • the purification-demineralized water treatment system according to the first preferred embodiment of the present invention is controlled to be in a backwashing working state of the purification device.
  • the plane valve 10' The eleventh channel 1011 ′ is in communication with the first channel 101 and the twelfth channel 1012 ′, respectively, thereby forming the tenth communication channel 10010 ′; when the plane valve 10 ′ is in the seventh working position, The purification-demineralized water treatment system according to the first preferred embodiment of the present invention is controlled to be in the softened filter element regeneration working state, and the ninth channel 109 and the sixth channel 106 of the plane valve 10 'communicate with each other, thereby forming the Eleventh communication passage 10011.
  • the eighth channel 108 communicates with the ninth channel 109, thereby forming the twelfth communication channel 10012;
  • the tenth channel 1010 communicates with the fourth channel 104 and the seventh channel 107 respectively, thereby forming the thirteenth communication channel 10013, and the eleventh channel 1011 ′ and the eighth channel, respectively.
  • 108 communicates with the twelfth channel 1012 ', thereby forming the fourteenth communication channel 10014'.
  • the eleventh channel 1011 ′ is a blind hole or a conductive groove provided on the second fluid control surface 130 of the moving valve disc 13 ′ to communicate with the fixed valve disc at a corresponding working position.
  • the different channels of 12 ′ for example, connect (or conduct) the eighth channel 108 and the twelfth channel 1012 ′ in the second working position.
  • the first opening 1101 of 11 ′ flows into the inner cavity 110 of the valve body 11 ′, and then flows into the first channel 101 of the fixed valve disc 12 ′ through the ninth channel 109 of the moving valve disc 13 ′, and then Enter the first communication opening 201 of the purification device 20 through the fifth opening 1105 of the valve body 11 ′, and after being treated by the water treatment material or mechanism of the purification device 20, from the second communication opening of the purification device 20 202 flows out, then flows into the first conductive opening 301 of the softening box 31, and after being treated with the softening resin in the softening box 31, flows out from the second conductive opening 302 of the softening box 31, and then flows through the valve
  • the seventh opening 1107 of the body 11 ′ enters the third passage 103 of the fixed valve disc 12 ′, and is guided by the tenth passage 1010 of the moving valve disc 13 ′ into the fifth passage of the fixed valve disc 12 ′.
  • the water treatment machine is in the backwashing working state of the softening filter element (softening device), and raw water flows from the first opening 1101 of the valve body 11' into the valve body 11 '.
  • the inner cavity 110 then flows into the fourth passage 104 of the fixed valve disc 12 ′ through the ninth passage 109 of the moving valve disc 13 ′, and then enters the softening box 31 through the seventh opening 1107 of the valve body 11 ′.
  • the second conductive opening 302 flows out from the first softening tank 301 of the softening tank 31 and then flows through the sixth opening of the valve body 11 ′.
  • the opening 1106 flows through the eighth channel 108 of the fixed valve disc 12 ′, the eleventh channel 1011 ′ and the twelfth channel 1012 ′ of the moving valve disc 13 ′, and then, from the plane valve 10 ′
  • the water treatment machine is in the washing state of the softening filter element (softening device), and raw water flows from the first opening of the valve body 11' 1101 flows into the inner cavity 110 of the valve body 11 ', and then flows through the ninth channel 109 of the moving valve disc 13'
  • the eighth channel 108 of the fixed valve disc 12 ′, and then through the sixth opening 1106 of the valve body 11 ′ enters the first conduction opening 301 of the softening box 31, and the softened resin in the soften
  • the ninth channel 109 flows into the seventh channel 107 of the fixed valve disc 12 ′, and then flows through the fourth opening 1104 of the valve body 11 ′ and flows into the injection inlet 322 of the ejector 32 to replenish the salt liquid tank 33. ;
  • the plane valve 10 ′ is in the fifth working position, the water treatment machine is in the state of being washed by the purification device, and the raw water comes from the valve
  • the first opening 1101 of the body 11 ′ flows into the inner cavity 110 of the valve body 11 ′, and then flows into the second channel 102 of the fixed valve disc 12 ′ through the ninth channel 109 of the moving valve disc 13 ′, Then, through the fifth opening 1105 of the valve body 11 ′, the first communication opening 201 of the purification device 20 is entered.
  • the water treatment material or mechanism in the purification device 20 is flushed forward, the water is removed from the purification device 20.
  • the second communication opening 202 flows out, then flows through the sixth opening 1106 of the valve body 11 ′, enters the eighth passage 108 of the fixed valve disc 12 ′, and then flows through the eleventh of the moving valve disc 13 ′.
  • the channel 1011 'and the twelfth channel 1012' then flow out from the drain opening 1108 'of the plane valve 10'.
  • the plane valve 10 ′ is in the sixth working position, the water treatment machine is in a backwashing working state of the purification device, and raw water flows into the valve body 11 ′ from the first opening 1101 of the valve body 11 ′.
  • the inner cavity 110 then flows into the eighth passage 108 of the fixed valve disc 12 'through the ninth passage 109 of the moving valve disc 13', and then enters the purification device 20 through the sixth opening 1106 of the valve body 11 '.
  • the second communication opening 202 flows out from the first communication opening 201 of the purification device 20, and then flows through the first communication opening 201 of the valve body 11 '.
  • the channel 109 flows into the sixth channel 106 of the fixed valve plate 12 ′, and then flows into the ejection outlet 321 of the jet 32 through the third opening 1103 of the valve body 11 ′, passes through the jet 32 and is mixed from the
  • the liquid of the salt solution tank 33 flows into the fourth opening 1104 of the valve body 11 ′ through the injection inlet 322 of the ejector 32, then enters the seventh passage 107 of the fixed valve disc 12 ′, and then passes through the moving valve disc.
  • the tenth channel 1010 of 13 ′ is diverted into the fourth channel 104 of the fixed valve disc 12 ′, and then flows through the seventh opening 1107 of the valve body 11 ′ and enters the second conduction opening of the softening box 31 302.
  • the softened resin in the softening box 31 After regenerating the softened resin in the softening box 31 countercurrently, it flows out from the first conductive opening 301, and then flows through the sixth opening 1106 of the valve body 11 ′ and enters the eighth of the fixed valve disc 12 ′.
  • the passage 108 passes through the eleventh passage 1011 ′ and the twelfth passage 1012 ′ of the moving valve disc 13 ′, and then flows out from the drain opening 1108 ′ of the plane valve 10 ′.
  • the tenth channel 1010 of the plane valve 10' is in communication with the third channel 103 and the fifth channel 105, and the plane valve 10 '
  • the moving valve disc 13 ′ separates the fifth passage 105 from the inner cavity 110 of the valve body 11 ′, so as to prevent raw water in the inner cavity 110 of the valve body 11 ′ from entering the fifth passage 105.
  • the second passage 102, the fourth passage 104, and the eighth passage of the plane valve 10 ′ 108 are respectively closed by the moving valve disc 13 '; when the plane valve 10' is in the second working position, the first passage 101 and the third passage 103 of the plane valve 10 'are respectively closed by the moving valve disc 13' ;
  • the second channel 102 and the fourth channel 104 of the plane valve 10' are closed by the moving valve plate 13 ', respectively;
  • the sixth channel 106 of the plane valve 10 ′ is closed by the moving valve disc 13 ′;
  • the plane valve 10 ′ is in the fifth working position, the first channel 101 of the plane valve 10 ′, the first The three channels 103 and the fourth channel 104 are closed by the moving valve disc 13 '; when the plane valve 10' is in the sixth working
  • the sixth channel 106 and the seventh channel 107 of the plane valve 10 ′ are respectively moved by the moving The valve plate 13 'is closed; when the plane valve 10' is in the third working position, the tenth channel 1010 is communicated with the first channel 101 and the eighth channel 108, and the sixth channel of the plane valve 10 ' 106 and the seventh passage 107 are closed by the moving valve disc 13 '; when the plane valve 10' is in the fourth working position, the first passage 101 and the third passage 103 of the plane valve 10 'are respectively moved by the movement The valve plate 13 'is closed; when the plane valve 10' is in the fifth working position, the sixth channel 106 and the seventh channel 107 of the plane valve 10 'are closed by the moving valve plate 13', respectively; When 10 ′ is in the sixth working position, the tenth channel 1010 of the plane valve 10 ′ communicates with the eighth channel 108, and the
  • the sixth channel 106 and the seventh channel 107 of the plane valve 10 ′ are moved by the moving valve.
  • the sheet 13 ' is closed, and the eleventh channel 1011' communicates with the twelfth channel 1012 '; when the plane valve 10' is in the second working position, the tenth channel 1010 of the plane valve 10 'is respectively connected with the The second passage 102 is in communication with the eighth passage 108, and the fifth passage 105 of the plane valve 10 'is closed by the moving valve disc 13'; when the plane valve 10 'is in the third working position, the plane valve 10 The fifth channel 105 is closed by the moving valve disc 13 '; when the plane valve 10' is in the fourth working position, the tenth channel 1010 of the plane valve 10 ', the second channel 102, and the fourth The channel 104 is in communication, the eleventh channel 1011 ′ is in communication with the eighth channel 108
  • first channel 101, the second channel 102, the third channel 103, the fourth channel 104, the fifth channel 105, the sixth channel 106, and the seventh channel of the plane valve 10 ' 107 are separately provided on the first fluid control surface 120 of the fixed valve disc 12 ′; the ninth channel 109, the tenth channel 1010, and the Eleventh channels 1011 'are respectively disposed on the second fluid control surface 130 of the moving valve disc 13'.
  • the eighth channel 108 and the twelfth channel 1012 ′ form a channel opening respectively disposed on the first fluid control surface 120 of the fixed valve disc 12 ′.
  • the ninth channel 109 and the tenth channel 1010 And the eleventh channel 1011 ′ form a channel opening respectively provided on the second fluid control surface 130 of the moving valve plate 13 ′, and when the moving valve plate 13 ′ of the plane valve 10 is covered (the second The fluid control surface 130) is disposed opposite to the first fluid control surface 120, and when the moving valve disc 13 'is rotated relative to the fixed valve disc 12', a passage provided in the moving valve disc 13 'and
  • the channels of the fixed valve disc 12 ' are selectively communicated through corresponding channel openings, thereby forming corresponding communication channels and controlling the flow direction of the fluid (such as water flow).
  • the eighth channel 108, the ninth channel 109, the tenth channel 1010, the eleventh channel 1011 ′, and the twelfth channel 1012 ′ may have any extension path (or direction) capable of achieving the mutual connection relationship herein.
  • the eighth passage 108 and the twelfth passage 1012 ′ are respectively formed in the passage openings of the first fluid control surface 120 of the fixed valve disc 12 ′, and the ninth passage 109, the tenth passage 1010, and the tenth passage
  • a channel 1011 ' is formed in each of the channel openings of the second fluid control surface 130 of the moving valve disc 13', and may have any shape capable of achieving the mutual communication relationship herein.
  • the first channel 101, the second channel 102, the third channel 103, the fourth channel 104, the fifth channel 105, the sixth channel 106, the seventh channel 107, the The extension path (or direction) of the eighth channel 108, the twelfth channel 1012 ′, the ninth channel 109, the tenth channel 1010, and the eleventh channel 1011 ′, and the shape of the channel openings thereof should not be regarded as the invention. limits.
  • the passage in this document is closed, which means that the corresponding passage is formed in the first of the fixed valve disc 12 (or the fixed valve disc 12 ′) of the plane valve 10.
  • the passage openings of the fluid control surface 120 and the second fluid control surface 130 of the moving valve plate 13 (or the moving valve plate 13 ') are in the specific working position (or the working state of the water treatment system) of the plane valve 10, and are The solid part of the moving valve disc 13 and the fixed valve disc 12 are covered, so that the corresponding channels cannot communicate with each other through the channel opening.
  • the solid portion of the moving valve disc 13 is directly formed on the sixth passage 106 and the seventh passage 107 of the plane valve 10 at the first position of the fixed valve disc 12.
  • the passage of the fluid control surface 120 is opened, so that the sixth passage 106 and the seventh passage 107 of the plane valve 10 are closed (or blocked) by the moving valve plate 13.
  • the communication between the channel provided on the moving valve disc 13 and the channel provided on the fixed valve disc 12 in this document refers to the specific working position of the plane valve 10 (or the work of the water treatment system).
  • a passage provided in the moving valve disc 13 is formed in a passage opening of the second fluid control surface 130 of the moving valve disc 13 and a passage provided in the fixed valve disc 12 forms a first
  • the passage openings of a fluid control surface 120 are selectively partially or exactly aligned and form a water flow path through which water flows.
  • the passage opening of the ninth passage 109 of the plane valve 10 is aligned with the passage opening of the first passage 101 so that the two communicate with each other and form the first ⁇ channel 1001.
  • the first channel 101, the eighth of the plane valve 10 'of the purification-demineralization water treatment system according to the first preferred embodiment of the present invention
  • Channel 108, the second channel 102, the fourth channel 104, the seventh channel 107, the sixth channel 106, the third channel 103, and the fifth channel 105 are arranged clockwise on the fixed valve in this order.
  • the first channel 101, the eighth channel 108, the second channel 102, the fourth channel 104, the seventh channel 107, the sixth channel 106, and the third channel of the plane valve 10 ' 103 and the fifth channel 105 are arranged counterclockwise on the fixed valve disc 12 ′; the eleventh channel 1011 ′, the tenth channel 1010, and the ninth channel 109 of the plane valve 10 ′ are arranged in this order.
  • the moving valve discs 13 ' are sequentially arranged counterclockwise.
  • the fixed valve disc 12 'of the plane valve 10' of the purified-demineralized water treatment system has a first center portion 121 and a A first extension portion 122 extending outward from the first center portion 121
  • the moving valve disc 13 ' has a second center portion 131 and a second extension portion 132 extending outward from the second center portion 131
  • the first fluid control surface 120 of the fixed valve disc 12 ' has a central portion 1200 shown by a chain line in the figure, wherein the central portion 1200 is provided on the first central portion 121 of the fixed valve disc 12'
  • the portion other than the center portion 1200 of the first fluid control surface 120 is equally divided clockwise into a first portion 1201, a second portion 1202, a third portion 1203, and a fourth portion 1204.
  • the second fluid control surface 130 of the moving valve disc 13 ' has a A central area 1300 shown by a dashed line in the figure, wherein the central area 1300 is provided in the second central portion 131 of the moving valve disc 13 ', and a portion other than the central area 1300 of the second fluid control surface 130 is Clockwise is equally divided into a first region 1301, a second region 1302, a third region 1303, a fourth region 1304, a fifth region 1305, a sixth region 1306, and a seventh Region 1307, an eighth region 1308, a ninth region 1309, a tenth region 13010, and an eleventh region 13011; wherein the twelfth channel 1012 ′ is downward from the center portion 1200 of the first fluid control surface 120 Extending; the first channel 101 extends downward from the first
  • the first fluid control surface 120 of the fixed valve disc 12 'of the plane valve 10' and the second fluid control surface 130 of the moving valve disc 13 ' are both circular, the first channel 101, the second The passage 102, the third passage 103, the fourth passage 104, the fifth passage 105, the sixth passage 106, the seventh passage 107, and the eighth passage 108 are all provided on the fixed valve disc 12 ′ in the radial direction.
  • the first fluid control surface 120, and the ninth channel 109 and the tenth channel 1010 are both disposed on the second fluid control surface 130 of the moving valve disc 13 ′ in the radial direction.
  • the first passage 101 of the plane valve 10 extends downward and outward from the first fluid control surface 120 of the fixed valve disc 12 ′, and the second passage 102 extends from the first of the fixed valve disc 12 ′.
  • a fluid control surface 120 extends downward and outward
  • the third channel 103 extends downward and outward from the first fluid control surface 120 of the fixed valve disc 12 ′
  • the fourth channel 104 extends from the fixed valve disc 12
  • the first fluid control surface 120 extends downward and outward
  • the fifth channel 105 extends downward and outward from the first fluid control surface 120 of the fixed valve plate 12
  • the sixth channel 106 extends from the fixed valve.
  • the first fluid control surface 120 of the plate 12 ' extends downward and outward, the seventh channel 107 extends downward and outward from the first fluid control surface 120 of the fixed valve plate 12', and the eighth channel 108 extends from the The first fluid control surface 120 of the fixed valve disc 12 ′ extends downward and outward, and the twelfth channel 1012 ′ extends downward and outward from the first fluid control surface 120.
  • the valve body 11 ′ of the plane valve 10 ′ of the purification-demineralization water treatment system has an inner wall 111, wherein the fixed valve disc 12 'is suitable for the first fluid control surface 120 to be disposed upward in the inner cavity 110, and the moving valve disc 13' is suitable for the second fluid control surface 130 to be disposed downward in the inner cavity 110, wherein the inner cavity 110 is always in communication with the ninth channel 109.
  • the fixed valve disc 12 ′ of the plane valve 10 ′ may be detachably disposed on the inner wall 111 of the valve body 11 ′, or may be connected to the inner wall of the valve body 11 ′ of the plane valve 10 ′. 111-phase integral molding.
  • the fixed valve disc 12 ′ when the fixed valve disc 12 ′ is detachably disposed in the valve body 11 ′, the fixed valve disc 12 ′ and the valve body 11 ′ maintain the fixed valve through a fixing mechanism.
  • the synchronization between the valve plate 12 'and the valve body 11' For example, as shown in FIGS.
  • the fixed valve disc 12 ′ has a stopper 123 protruding outward from the edge of the fixed valve disc 12 ′, and the inner wall 111 of the valve body 11 ′ has A brake groove 1110, in which the brake member 123 of the fixed valve disc 12 'is provided to be able to engage with the brake groove 1110 of the inner wall 111 of the valve body 11' to ensure that the fixed valve disc 12 'and
  • the valve bodies 11 ' are synchronized (or no relative rotation occurs) and ensure that each passageway provided in the fixed valve disc 12' communicates with the corresponding opening provided in the valve body 11 '.
  • the fixed valve disc 12 ′ when the fixed valve disc 12 ′ is detachably disposed in the valve body 11 ′, the fixed valve disc 12 ′ can be manufactured separately. In other words, at this time, the fixed valve disc 12 ′ may be made of a wear-resistant material, thereby improving the service life of the fixed valve disc 12 ′ (or the entire flat valve).
  • the first fluid control surface 120 of the fixed valve disc 12 ′ is smoothed to reduce its roughness.
  • the plane valve 10 'of the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention further includes a driving element 18 extending upward from the moving valve disc 13'.
  • the driving element 18 is configured to drive the moving valve disc 13 ′ of the flat valve 10 ′ to rotate relative to the fixed valve disc 12 ′.
  • the plane valve 10 'of the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention further includes a sealing element 17, wherein the sealing element 17 is provided in connection with the The driving elements 18 face each other, wherein the sealing element 17 forms a first sealing surface 170, the driving element 18 forms a second sealing surface 180, and the first sealing surface 170 of the sealing element 17 is disposed on the driving element 18
  • the second sealing surface 180 is such that when the driving element 18 rotates relative to the sealing element 17 to drive the moving valve disc 13 'relative to the fixed valve disc 12', the driving element 18 and the sealing element 17 The room is sealed and prevents water leakage.
  • the sealing element 17 is provided to keep the driving element 18 in a proper position, thereby keeping the moving valve disc 13 'in a preset position.
  • the diameter of the moving valve plate 13 ′ of the planar valve 10 ′ of the purification-demineralizing water treatment system according to the first preferred embodiment of the present invention is set slightly smaller than the valve body.
  • the control device 16 of the plane valve 10 'of the purification-demineralizing water treatment system is provided so that
  • the purification-softening control command drives the driving element 18 to rotate through a transmission mechanism 14, such as a transmission gear, to drive the moving valve disc 13 'of the plane valve 10' relative to the fixed valve disc 12 ', thereby forming a separate A first communication channel 1001 communicating with the inner cavity 110 of the valve body 11 'of the plane valve 10' and the fifth opening 1105, and a second opening 1102 and the seventh opening respectively with the valve body 11 '
  • the second communication passage 1002 communicating with the opening 1107 allows raw water to pass from the inner cavity 110 of the valve body 11 ′, through the first communication passage 1001 formed by the plane valve 10 ′, and the fifth of the valve body 11 ′.
  • the opening 1105 and the first communication opening 201 of the purification device 20 flow into the purification device 20, and the purified water obtained after the raw water is purified by the purification device 20 flows out from the second communication opening 202 of the purification device 20.
  • Via the first conducting opening of the softening box 31 301 flows into the softening box 31, and softened water is obtained after the softening treatment, and the softened water flows out from the second conduction opening 302 of the softening box 31, and then passes through the seventh opening 1107 of the valve body 11 ′, the plane valve
  • the second communication channel 1002 of 10 ′ finally flows out through the second opening 1102 of the valve body 11 ′ and supplies softened water to the user; according to a softening filter (softening device) backwash control command, through the transmission mechanism 14,
  • a softening filter softening device
  • the driving element 18 is driven to rotate, so as to drive the moving valve disc 13 ′ of the plane valve 10 ′ to rotate relative to the fixed valve disc 12 ′,
  • the seventh opening 1107 passes through the softening box 31.
  • the second conduction opening 302 flows into the softening tank 31, and the softened material (or water treatment material) in the softening tank 31, such as a softened resin, is backwashed, and the obtained sewage or wastewater flows from the softening tank 31.
  • the first conducting opening 301 flows out, then flows through the sixth opening 1106 of the valve body 11 ′, flows into the fourth communication passage 1004 ′ of the plane valve 10 ′, and then flows from the drain opening 1108 of the plane valve 10 ′.
  • ′ Outflow; according to a softening filter element (softening device) forward washing control command, the driving mechanism 18 is driven to rotate by the transmission mechanism 14 such as a transmission gear to drive the moving valve plate 13 ′ of the plane valve 10 ′ relative to the fixed
  • the valve plate 12 ′ rotates to form a fifth communication passage 1005 communicating with the inner cavity 110 and the sixth opening 1106 of the valve body 11 ′ and a seventh opening 1107 communicating with the valve body 11 ′, respectively.
  • a seventh communication passage 1007 communicating with the fourth opening 1104 allows raw water to flow from the first opening 1101 of the valve body 11 ′ into the inner cavity 110 of the valve body 11 ′, and then passes through the seventh communication passage 1007. Flows into the fourth opening 1104, and then flows into the injection port 322 of the ejector 32 to replenish water to the salt solution tank 33; according to a forward control command of a purification device, the driving element 18 is driven by the transmission mechanism 14, such as a transmission gear Turn to drive the plane valve 10 The moving valve disc 13 ′ is rotated relative to the fixed valve disc 12 ′, thereby forming an eighth communication passage 1008 communicating with the inner cavity 110 and the fifth opening 1105 of the valve body 11 ′ and a communicating passage 1008 respectively.
  • the inner cavity 110 of the valve body 11 ′ then flows into the fifth opening 1105 through the eighth communication passage 1008, and then enters the first communication opening 201 of the purification device 20 to the water treatment material or the water treatment material in the purification device 20.
  • the mechanism After the mechanism is flushed forward, it flows out from the second communication opening 202 of the purification device 20, then flows through the sixth opening 1106 of the valve body 11 ', flows into the ninth communication channel 1009', and then exits from the plane valve 10 '
  • the drain opening 1108 ′ flows out.
  • the control device 16 of the plane valve 10 'of the purification-demineralized water treatment system is further configured to be capable of A cleaning device backwash control command drives the driving element 18 to rotate through the transmission mechanism 14, such as a transmission gear, to drive the moving valve disc 13 'of the plane valve 10' to rotate relative to the fixed valve disc 12 ', thereby forming A tenth communication passage 10010 ′ communicating with the fifth opening 1105 of the valve body 11 ′ and the drain opening 1108 ′ of the plane valve 10 ′, and a cavity 110 and a cavity 110 ′ of the valve body 11 ′, respectively.
  • the transmission mechanism 14 such as a transmission gear
  • the sixth opening 1106 communicates with a twelfth communication channel 10012 to allow raw water to flow from the first opening 1101 of the valve body 11 ′ into the inner cavity 110 of the valve body 11 ′, and then passes through the twelfth communication.
  • the channel 10012 flows into the sixth opening 1106, and then enters the second communication opening 202 of the purification device 20. After the water treatment material or mechanism in the purification device 20 is reversely flushed, the first communication from the purification device 20 is performed.
  • the opening 201 flows out and then flows through the valve
  • the fifth opening 1105 of the body 11 ' flows into the tenth communication passage 10010', and then flows out of the drain opening 1108 'of the plane valve 10'.
  • the control device 16 of the plane valve 10 'of the purification-demineralized water treatment system is further configured to be capable of A softening filter regeneration control command drives the driving element 18 to rotate through the transmission mechanism 14, such as a transmission gear, to drive the moving valve disc 13 'of the plane valve 10' to rotate relative to the fixed valve disc 12 ', thereby forming a An eleventh communication passage 10011 communicating with the inner cavity 110 and the third opening 1103 of the valve body 11 ′, and one communicating with the seventh opening 1107 and the fourth opening 1104 of the valve body 11 respectively.
  • the first opening 1101 of the body 11 ′ flows into the inner cavity 110 of the valve body 11 ′, and then flows into the third opening 1103 through the eleventh communication passage 10011, and then flows into the ejection outlet 321 of the ejector 32, Jets passing through the jet 32, mixing from
  • the liquid of the salt solution tank 33 flows into the fourth opening 1104 of the valve body 11 ′ through the injection inlet 322 of the ejector 32, and then flows into the seventh opening 1107 through the thirteenth communication passage 10013 and enters the softening.
  • the second conductive opening 302 of the tank 31 is reflowed from the softened resin in the softening tank 31 countercurrently, flows out from the first conductive opening 301, and then flows through the sixth opening 1106 of the valve body 11 ′ and flows into the first The fourteen communication passages 10014 ′ then flow out from the drain opening 1108 ′ of the plane valve 10 ′.
  • control instructions such as purification-softening control instructions, softening device backwashing control instructions, softening device forward-washing control instructions, water supply control instructions, purification device forward-washing control instructions, purification device backwashing control instructions, and softening filter elements
  • Control instructions such as the regeneration control instruction may be preset in the control module of the control device 16, or may be received from a control terminal through an electronic communication network, or input by a user through an input interface.
  • the purifying-demineralizing water treatment system of the present invention is provided with an input interface for the plane valve 10 ', such as a touchpad or control button
  • the user can use the touch panel or the corresponding control button to the
  • the control module of the control device 16 sends the above-mentioned control instruction, so that the control module of the control device 16 controls the motor of the control device 16 to rotate, thereby driving the driving element 18 to rotate through a transmission mechanism 14.
  • the purification-demineralization treatment of raw water according to the first preferred embodiment of the purification-demineralization water treatment system of the present invention is exemplarily explained, wherein the purification The device 20 is a purification filter element, wherein the purification device 20 includes a housing 21, a connector 22 provided in the housing 21, and a filtering portion 23 provided in the housing 21, wherein the filtering portion 23 It can be an ultrafiltration wire, a mesh filter or a lamination filter, PP cotton or other water treatment materials or filter materials capable of filtering raw water for ultrafiltration filtration. Exemplarily, as shown in FIG. 31A to FIG.
  • the softening device 30 of the purification-softening water treatment system of the present invention includes a softening box 31, wherein the softening box 31 includes a box 311 and a liquid collecting unit 312 and a water softening unit 313, wherein the box 311 has a softening cavity 3110, a first conduction opening 301 and a second conduction opening 302, wherein the liquid collecting unit 312 includes a central tube 3121, the water softening The unit 313 is adapted to be accommodated in the softening cavity 3110, wherein the central tube 3121 is adapted to communicate with the second conduction opening 302, wherein the central tube 3121 has a high-end opening 31211 and a low-end opening 31212, wherein the box
  • the liquid in the body 311, such as water is suitable to be processed by the water softening unit 313, and then flows into the center pipe 3121 from the low end opening 31212 of the center pipe 3121 of the liquid collecting unit 312 and flows out from the high end opening
  • the first channel 101, the second channel 102, the third channel 103, the fourth channel 104, the fifth channel 105, the The sixth channel 106, the seventh channel 107, and the eighth channel 108 can be split or separated into two adjacent smaller channels by a reinforced solid structure.
  • the eighth passage 108 of the fixed valve disc 12 of the flat valve 10 of the purified-demineralized water treatment system according to the first preferred embodiment of the present invention is reinforced by a The ribs or ribs are separated into two passages 1081 and 1082 with a smaller inner diameter.
  • the eleventh passage 1011 of the plane valve 10 is connected to the passage 1081.
  • the ninth channel 109 of the plane valve 10 communicates with the channel 1081, thereby forming the fifth communication channel 1005;
  • the eleventh channel 1011 of the plane valve 10 is in communication with the channel 1081 to form the ninth communication channel 1009;
  • the ninth channel 109 communicates with the channel 1082 to form the twelfth communication channel 10012.
  • the eleventh channel 1011 communicates with the channel 1082, thereby The fourteenth communication passage 10014 is formed. Accordingly, when the plane valve 10 is in the first working position, the water treatment machine is in a purifying-softening working state, and raw water flows from the first opening 1101 of the valve body 11 into the inner cavity 110 of the valve body 11, It then flows into the first passage 101 of the fixed valve disc 12 through the ninth passage 109 of the moving valve disc 13, and then enters the first communication opening 201 of the purification device 20 through the fifth opening 1105 of the valve body 11.
  • the water treatment material or mechanism of the purification device 20 After being processed by the water treatment material or mechanism of the purification device 20, it flows out from the second communication opening 202 of the purification device 20, and then flows into the first conduction opening 301 of the softening box 31 and passes through the softening box 31.
  • the softening resin After the softening resin is processed, it flows out from the second conducting opening 302 of the softening box 31, then flows through the seventh opening 1107 of the valve body 11 and enters the third channel 103 of the fixed valve disc 12, and passes through the moving The tenth channel 1010 of the valve plate 13 guides into the fifth channel 105 of the fixed valve plate 12, and then supplies the treated water to the user through the second opening 1102 of the valve body 11.
  • the water treatment machine When the plane valve 10 is in the first In two working positions, the water treatment machine is in the softening filter element (softening device In the backwashing working state, raw water flows from the first opening 1101 of the valve body 11 into the inner cavity 110 of the valve body 11, and then flows into the fixed valve plate 12 through the ninth channel 109 of the moving valve plate 13.
  • softening filter element softening device In the backwashing working state
  • the fourth channel 104 then enters the second conduction opening 302 of the softening box 31 through the seventh opening 1107 of the valve body 11, and after the softening resin in the softening box 31 is backwashed, it is removed from the softening box
  • the first conducting opening 301 of 31 flows out, then flows through the sixth opening 1106 of the valve body 11, and then flows through the channel 1081 of the fixed valve disc 12 and the eleventh channel 1011 of the moving valve disc 13.
  • the first opening 1101 flows into the inner cavity 110 of the valve body 11, and then flows through the ninth channel 109 of the moving valve disc 13 into the channel 1081 of the fixed valve disc 12, and then passes through the first body of the valve body 11.
  • the eleventh channel 1011 of 13 flows out from the sewage opening 1108 of the plane valve 10; when the plane valve 10 is in the fourth working position, the water treatment machine is in a state of replenishment of the salt tank, and the raw water comes from the
  • the first opening 1101 of the valve body 11 flows into the inner cavity 110 of the valve body 11, and then flows into the seventh channel 107 of the fixed valve plate 12 through the ninth channel 109 of the moving valve plate 13, and then flows through
  • the fourth opening 1104 of the valve body 11 flows into the injection inlet 322 of the ejector 32 to replenish water to the salt solution tank 33.
  • the passage 1081 flows through the eleventh passage 1011 of the moving valve plate 13 and flows out from the drain opening 1108 of the plane valve 10. Further, when the plane valve 10 is in the sixth working position, the water treatment machine is in a backwashing working state of the purification device, and raw water flows into the inner cavity 110 of the valve body 11 from the first opening 1101 of the valve body 11.
  • the first channel 101 of 12 flows through the eleventh channel 1011 of the moving valve plate 13 and flows out from the drain opening 1108 of the plane valve 10; when the plane valve 10 is in the seventh working position, the water treatment The machine is in the regenerating working state of the softening filter element.
  • Raw water flows from the first opening 1101 of the valve body 11 into the inner cavity 110 of the valve body 11, and then flows into the fixed valve through the ninth channel 109 of the moving valve plate 13.
  • the sixth passage 106 of the sheet 12 then passes through the third opening of the valve body 11 1103 flows into the ejection port 321 of the ejector 32, passes through the ejector 32, mixes liquid from the salt solution tank 33, and flows into the fourth opening 1104 of the valve body 11 through the ejection inlet 322 of the ejector 32 Then, it enters the seventh channel 107 of the fixed valve disc 12, and then is guided by the tenth channel 1010 of the moving valve disc 13 into the fourth channel 104 of the fixed valve disc 12, and then flows through the valve body 11.
  • the seventh opening 1107 enters the second conducting opening 302 of the softening box 31, and after regenerating, such as softened resin, the softening box 31 flows out from the first conducting opening 301, and then flows through the valve body 11
  • the sixth opening 1106 enters the passage 1082 of the fixed valve disc 12, and then passes through the eleventh passage 1011 of the moving valve disc 13, and flows out from the drain opening 1108 of the plane valve 10.
  • the first channel 101 ', the second channel 102', the third channel 103 ', the fourth channel 104', the The fifth channel 105 ′, the sixth channel 106 ′, the seventh channel 107 ′, and the eighth channel 108 ′ may be split or separated into two adjacent smaller channels by a reinforced solid structure.
  • the present invention further provides an application Valve plate assembly for a flat valve (or fluid valve), wherein the valve plate assembly includes a fixed valve plate 12 and a moving valve plate 13, wherein the fixed valve plate 12 has a first fluid control surface 120, and the moving valve plate 13 has a second fluid control surface 130, wherein the second fluid control surface 130 of the moving valve plate 13 is adapted to be disposed on the first fluid control surface 120 of the fixed valve plate 12, and the moving valve plate 13 is The device can be rotated relative to the fixed valve disc 12, wherein the flat valve has a first channel 101, a second channel 102, a third channel 103, a fourth channel 104, a fifth channel 105, and a sixth channel 106.
  • the flat valve has a first channel 101, a second channel 102, a third channel 103, a fourth channel 104, a fifth channel 105, and a sixth channel 106.
  • a seventh channel 107, an eighth channel 108, a ninth channel 109, a tenth channel 1010, and an eleventh channel 1011 wherein the first channel 101, the second channel 102, and the third channel 103 ,
  • the fourth channel 104, the fifth channel 105, the sixth channel 106, the Seven channels 107 and eighth channels 108 are respectively provided on the fixed valve disc 12 and respectively extend from the first fluid control surface 120 of the fixed valve disc 12;
  • a channel 1011 is respectively provided on the moving valve plate 13 and extends from the second fluid control surface 130 of the moving valve plate 13, respectively.
  • a purification-demineralized water treatment system according to a second preferred embodiment of the present invention is clarified, which is suitable for purifying-softening treatment of raw water or water to be treated, wherein the purification-
  • the demineralized water treatment system includes a fluid valve 10A, a purification device 20A, and a softening device 30A.
  • the fluid valve 10A includes a valve body 11A and a valve core 1A.
  • the valve body 11A forms an internal cavity 110A, a first Opening 1101A, a second opening 1102A, a third opening 1103A, a fourth opening 1104A, a fifth opening 1105A, a sixth opening 1106A, and a seventh opening 1107A, wherein the spool 1A is disposed in the inner cavity 110A, wherein the purified-demineralized water treatment system according to the second preferred embodiment of the present invention has a first working state, a second working state, a third working state, a fourth working state, and a fifth working state Wherein, when the purification-demineralized water treatment system is in the first working state, the fluid valve 10A forms a first opening 1101A and a fifth opening respectively with the valve body 11A.
  • the fourth communication channel 1004A that communicates with the opening 1106A and a drain opening (or eighth opening) 1108A.
  • the fluid valve 10A forms a separate body from the valve body.
  • the purified-demineralized water treatment system according to the second preferred embodiment of the present invention further has a sixth working state and a seventh working state, wherein when the purified-demineralized water treatment system is in the sixth working state
  • the fluid valve 10A forms a tenth communication channel 10010A that communicates with the fifth opening 1105A and the sewage opening 1108A of the valve body 11A respectively; when the purification-demineralized water treatment system is in the seventh working state,
  • the fluid valve 10A forms an eleventh communication passage 10011A that communicates with the first opening 1101A and the third opening 1103A of the valve body 11A, respectively.
  • the fluid valve 10A when the purification-demineralized water treatment system is in the sixth working state, the fluid valve 10A further forms a first communicating with the first opening 1101A and the sixth opening 1106A of the valve body 11A, respectively. Twelve communication passages 10012A.
  • the fluid valve 10A forms a communication with the seventh opening 1107A and the fourth opening 1104A of the valve body 11A, respectively.
  • a thirteenth communication passage 10013A and a fourteenth communication passage 10014A that communicate with the sixth opening 1106A of the valve body 11A and the drain opening 1108A of the plane valve 10A, respectively.
  • the fluid valve 10A of the purification-demineralization water treatment system is a plane valve, wherein the plane valve 10A further includes a moving valve disc 13A and A fixed valve disc 12A has a first fluid control surface 120A, and the moving valve disc 13A has a second fluid control surface 130A.
  • the moving valve disc 13A and the fixed valve disc 12A are both disposed at In the inner cavity 110A, the second fluid control surface 130A of the movable valve disc 13A is disposed on the first fluid control surface 120A of the fixed valve disc 12A, and the movable valve disc 13A is disposed so as to be opposite to the fixed valve disc.
  • the purification device 20 has a first communication opening 201 and a second communication opening 202
  • the softening device 30 includes at least one softening box 31, wherein the softening box 31 has a first conduction opening 301 and a The second conduction opening 302, wherein the internal cavity 110A of the valve body 11A is in communication with the first opening 1101A, the first communication opening 201 of the purification device 20 is in communication with the fifth opening 1105A of the valve body 11A , The second communication of the purification device 20
  • the port 202 and the first conduction opening 301 of the softening box 31 are in communication with the sixth opening 1106A of the valve body 11A, and the second conduction opening 302 of the softening box 31 and the first opening 302 of the valve body 11A Seven openings 1107A communicate. Therefore, when the fluid valve 10A is a flat valve, the spool 1A of the fluid valve 10A includes the moving valve disc 13A and the fixed valve disc 12A.
  • the softening device 30 of the purification-demineralizing water treatment system further includes a jet 32 and a salt tank 33, wherein the ejector 32 has an injection port 321 adapted to communicate with the third opening 1103A of the valve body 11A and an injection port 322 adapted to communicate with the fourth opening 1104A of the valve body 11A,
  • the salt liquid tank 33 is adapted to communicate with the ejector 32 so that the salt liquid from the salt liquid tank 33 can pass through the ejector 32 and the fourth opening 1104A, and flow to the softening device through the plane valve 10A.
  • the purification-demineralized water treatment system of the present invention when the purification-demineralized water treatment system of the present invention is in a state where the softening filter element absorbs salt, the raw water or water to be treated flows from the first opening 1101A of the valve body 11A into the inner cavity 110A of the valve body 11A Then, it flows into the third opening 1103A through an eleventh communication channel 10011A, and then flows into the ejection outlet 321 of the ejector 32. After passing through the ejector 32, the liquid from the salt tank 33 is mixed and passes through the ejector.
  • the injection port 322 of 32 flows into the fourth opening 1104A of the valve body 11A, and then flows into the seventh opening 1107A through a thirteenth communication passage 10013A, enters the second conduction opening 302 of the softening box 31, and is regenerated countercurrently.
  • the water treatment material or mechanism in the softening box 31, such as softened resin flows out from the first conductive opening 301, then flows through the sixth opening 1106A of the valve body 11A, and flows into a fourteenth communication channel 10014A, and then It flows out from a drain opening (or eighth opening) 1108A of the flat valve 10A.
  • the present invention only exemplarily describes the manner in which the salt liquid is provided to the softening tank 31 through the ejector 32, the salt liquid may also be provided to the softening tank 31 through the fourth opening 1104A of the plane valve 10A by other methods or mechanisms.
  • Softening box 31 Therefore, the manner of supplying the salt solution to the softening tank 31 through the ejector 32 should not be a limitation of the present invention.
  • the plane valve 10A of the purification-demineralization water treatment system of the present invention further has a connection mechanism, such as a connection thread, a snap joint, etc., which is arranged on the valve body 11A, so that the plane valve 10A and Other structural components of the purification-demineralizing water treatment system, such as the purification device 20, the softening device 30, are connected to guide the water to the communication channels formed by the purification device 20, the softening tank 31, and the plane valve 10A, respectively.
  • a connection mechanism such as a connection thread, a snap joint, etc.
  • the purification-demineralized water treatment system has a first working state, a second working state, and a first working state. Three working states, a fourth working state and a fifth working state, wherein when the purification-demineralized water treatment system is in the first working state, the moving valve disc 13A and the fixed valve disc 12A of the plane valve 10A A first communication passage 1001A communicating with the inner cavity 110A (or the first opening 1101A) and the fifth opening 1105A of the valve body 11A and a second opening 1102A and the second opening 1102A with the valve body 11A, respectively, are formed.
  • the second communication channel 1002A that communicates with the seventh opening 1107A.
  • the moving valve disc 13A and the fixed valve disc 12A of the plane valve 10A form a separate one.
  • a third communication passage 1003A communicating with the internal cavity 110A (or the first opening 1101A) and the seventh opening 1107A of the valve body 11A and a sixth opening 1106A and the plane valve respectively communicating with the valve body 11A
  • the moving valve disc 13A and the fixed valve disc 12A of the plane valve 10A form a cavity 110A with the valve chamber 11A ( Or the first opening 1101A) and the sixth opening 1106A communicate with a fifth communication passage 1005A and a sixth communicating with the seventh opening 1107A of the valve body 11A and the drain opening 1108A of the plane valve 10A, respectively
  • the moving valve disc 13A of the plane valve 10A And the fixed valve disc 12A form an eighth communication passage 1008A which is in communication with the inner cavity 110A (or the first opening 1101A) and the fifth opening 1105A of the valve body 11A and a valve body 11A respectively
  • the sixth opening 1106A is connected to the sewage opening 1108A of the plane valve 10A.
  • the flat valve 10A is formed by The first communication passage 1001A is in communication with the inner cavity 110A (or the first opening 1101A) and the fifth opening 1105A of the valve body 11A, and the second communication passage 1002A is in communication with the second opening of the valve body 11A.
  • the opening 1102A is in communication with the seventh opening 1107A, thereby allowing raw water to flow from the first opening 1101A of the valve body 11A into the inner cavity 110A of the valve body 11A, and then through the first communication channel formed by the plane valve 10A.
  • the purified water can flow into the softening tank 31 through the first conducting opening 301 of the softening tank 31, and the softened water is obtained after the softening treatment, and the softened water is passed from the second guide of the softening tank 31 Flows out through the opening 302, and then passes through the seventh of the valve body 11A
  • the second communication opening 202 of the purification device 20 is in communication with a water supply outlet 401 (or water supply passage 400), so as to provide users with clean water. Therefore, when the purified-demineralized water treatment system is in the first working state, the purified-demineralized water treatment system of the present invention can simultaneously provide purified water and demineralized water to users. Accordingly, the first working state of the purification-demineralized water treatment system corresponds to the purification-demineralization working state of the purification-demineralized water treatment system.
  • the first opening 1101A of the valve body 11A (or the inner cavity 110A of the valve body 11A), the fifth opening of the valve body 11A Opening 1105A, the first communication opening 201 of the purification device 20, the second communication opening 202 of the purification device 20, the first communication opening 301 of the softening box 31 of the softening device 30, and the softening device 30
  • the second conduction opening 302 of the softening box 31, the seventh opening 1107A of the valve body 11A, and the second opening 1102A of the valve body 11A are sequentially communicated, thereby forming a purification device 20 and the softening device.
  • the water flow paths 30 are connected in series so that the raw water can flow from the purification device 20 to the softening device 30 and the raw water is sequentially purified and softened.
  • the flat valve 10A is formed by The third communication passage 1003A is in communication with the inner cavity 110A (or the first opening 1101A) and the seventh opening 1107A of the valve body 11A, and the fourth communication passage 1004A is in communication with the sixth body of the valve body 11A.
  • the opening 1106A is in communication with the drain opening 1108A of the plane valve 10A, so as to allow raw water to flow from the first opening 1101A of the valve body 11A into the inner cavity 110A of the valve body 11A, and then pass through the plane formed by the plane valve 10A.
  • the third communication channel 1003A flows into the seventh opening 1107A, and then flows into the softening box 31 through the second conducting opening 302 of the softening box 31, and the softening material (or water treatment material) in the softening box 31, such as After the softening resin and the like are flushed back, the obtained sewage or wastewater flows out from the first conducting opening 301 of the softening box 31, and then flows through the sixth opening 1106A of the valve body 11A and flows into the first opening of the plane valve 10A.
  • Four communication channels 1004A and then opened from the drain of the plane valve 10A 1108A outflow.
  • the purification-demineralized water treatment system of the present invention can control reverse flushing of the softening filter element, such as the softening tank 31. Accordingly, the second working state of the purification-demineralizing water treatment system corresponds to the backwashing working state of the softening filter element (softening device) of the purification-demineralizing water treatment system.
  • the flat valve 10A is formed by The fifth communication passage 1005A is in communication with the inner cavity 110A (or the first opening 1101A) and the sixth opening 1106A of the valve body 11A, and the sixth communication passage 1006A is in communication with the seventh of the valve body 11A.
  • the opening 1107A communicates with the drain opening 1108A of the plane valve 10A, thereby allowing raw water to flow from the first opening 1101A of the valve body 11A into the inner cavity 110A of the valve body 11A, and then flows in through the fifth communication passage 1005A
  • the sixth opening 1106A enters the first conduction opening 301 of the softening box 31, and after the water treatment material or mechanism in the softening box 31 is flushed forward, the second conduction opening from the softening box 31 is flushed. 302 flows out, then flows through the seventh opening 1107A of the valve body 11A, flows into the sixth communication passage 1006A, and then flows out from the drain opening 1108A of the flat valve 10A.
  • the purification-demineralized water treatment system of the present invention can control the forward flushing of the softening filter element, such as the softening tank 31. Accordingly, the third working state of the purification-demineralized water treatment system corresponds to the normal washing operation state of the softening filter element (softening device) of the purification-demineralized water treatment system.
  • the flat valve 10A is formed by The seventh communication passage 1007A is in communication with the inner cavity 110A (or the first opening 1101A) and the fourth opening 1104A of the valve body 11A, thereby allowing raw water to flow from the first opening 1101A of the valve body 11A to The inner cavity 110A of the valve body 11A then flows into the fourth opening 1104A through the seventh communication passage 1007A, and then flows into the injection inlet 322 of the ejector 32 to replenish the salt solution tank 33.
  • the purification-demineralized water treatment system of the present invention can control the replenishment of water to the salt tank 33. Accordingly, the fourth working state of the purification-demineralized water treatment system corresponds to the state of replenishment of the salt solution tank of the purification-demineralized water treatment system.
  • the flat valve 10A is formed by The eighth communication passage 1008A is in communication with the inner cavity 110A (or the first opening 1101A) and the fifth opening 1105A of the valve body 11A, and the ninth communication passage 1009A is respectively connected with the sixth of the valve body 11A.
  • the opening 1106A is in communication with the drain opening 1108A of the plane valve 10A, thereby allowing raw water to flow from the first opening 1101A of the valve body 11A into the inner cavity 110A of the valve body 11A, and then flows in through the eighth communication passage 1008A
  • the fifth opening 1105A enters the first communication opening 201 of the purification device 20, and after the water treatment material or mechanism in the purification device 20 is flushed forward, it flows out of the second communication opening 202 of the purification device 20
  • the sixth opening 1106A flowing through the valve body 11A flows into the ninth communication passage 1009A, and then flows out from the drain opening 1108A of the flat valve 10A.
  • the purification-demineralized water treatment system of the present invention can control the forward flushing of the purification device 20. Accordingly, the fifth working state of the purification-demineralized water treatment system corresponds to the normal washing operation state of the purification device of the purification-demineralized water treatment system.
  • the purification-demineralized water treatment system according to the second preferred embodiment of the present invention further has a sixth working state and a seventh working state.
  • the moving valve disc 13A and the fixed valve disc 12A of the plane valve 10A form a fifth opening 1105A and the plane valve respectively with the valve body 11A
  • the moving valve disc 13A and the fixed valve disc 12A of the flat valve 10A form a Eleventh communication passages 10011A that communicate with the inner cavity 110A (or the first opening 1101A) and the third opening 1103A of the valve body 11A, respectively.
  • the moving valve disc 13A and the fixed valve disc 12A of the plane valve 10A further form a cavity 110A separately from the inner cavity of the valve body 11A. (Or the first opening 1101A) and the twelfth communication channel 10012A communicating with the sixth opening 1106A.
  • the moving valve plate of the flat valve 10A 13A and the fixed valve disc 12A form a thirteenth communication passage 10013A communicating with the seventh opening 1107A and the fourth opening 1104A of the valve body 11A and the sixth opening 1106A respectively with the valve body 11A
  • the flat valve 10A is formed by The tenth communication passage 10010A communicates with the fifth opening 1105A of the valve body 11A and the drain opening 1108A of the plane valve 10A, respectively, and the twelfth communication passage 10012A communicates with the inner cavity 110A of the valve body 11A ( Or the first opening 1101A) communicates with the sixth opening 1106A, thereby allowing raw water to flow from the first opening 1101A of the valve body 11A into the inner cavity 110A of the valve body 11A, and then through the twelfth communication channel 10012A flows into the sixth opening 1106A, and then enters the second communication opening 202 of the purification device 20.
  • the first communication opening of the purification device 20 201 flows out, then flows through the fifth opening 1105A of the valve body 11A, flows into the tenth communication passage 10010A, and then flows out of the drain opening 1108A of the plane valve 10A; when purifying according to the second preferred embodiment of the present invention- Demineralized water treatment system
  • the eleventh communication channel 10011A formed by the plane valve 10A is in communication with the inner cavity 110A (or the first opening 1101A) and the third opening 1103A of the valve body 11A, and the thirteenth communication
  • the passage 10013A communicates with the seventh opening 1107A and the fourth opening 1104A of the valve body 11A
  • the fourteenth communication passage 10014A communicates with the sixth opening 1106A of the valve body 11A and the drain of the plane valve 10A, respectively
  • the opening 1108A communicates, thereby allowing raw water to flow from the first opening 1101A of the valve body 11A into the inner cavity 110
  • the sixth working state of the purification-demineralized water treatment system corresponds to the backwashing working state of the purification device of the purification-demineralized water treatment system
  • the seventh working state of the purification-demineralized water treatment system corresponds to the purification -The softening filter element (softening device) of the softening water treatment system regenerates the working state.
  • the moving valve disc 13A and the fixed valve disc 12A of the plane valve 10A form a respective one of the valve body 11A and the valve body 11A.
  • the fluid valve (or plane valve) 10A of the purification-softening water treatment system has A first work position, a second work position, a third work position, a fourth work position, a fifth work position, a sixth work position and a seventh work position, wherein when the fluid valve (or plane When the valve 10A is in the first working position, the spool 1A of the fluid valve 10A forms the first communication passage 1001A and the second communication passage 1002A.
  • the spool 1A of the fluid valve 10A forms the third communication passage 1003A and the fourth communication passage 1004A.
  • the fluid valve (or plane valve) 10A is in the third working position, the fluid The spool 1A of the valve 10A forms the fifth communication passage 1005A and the sixth communication passage 1006A.
  • the spool 1A of the fluid valve 10A Forming the seventh communication channel 1007A
  • the spool 1A of the fluid valve 10A forms the eighth communication passage 1008A and the ninth communication passage 1009A; when the fluid valve (or plane valve) 10A is in the sixth working position, the valve of the fluid valve 10A
  • the core 1A forms the tenth communication channel 10010A; when the fluid valve (or plane valve) 10A is in the seventh working position, the valve core 1A of the fluid valve 10A forms the eleventh communication channel 10011A.
  • the spool 1A of the fluid valve 10A when the fluid valve (or plane valve) 10A is in the sixth working position, the spool 1A of the fluid valve 10A further forms the twelfth communication passage 10012A.
  • the spool 1A of the fluid valve 10A When the fluid valve (or plane valve) When 10A is in the seventh working position, the spool 1A of the fluid valve 10A further forms the thirteenth communication passage 10013A and the fourteenth communication passage 10014A.
  • the fluid valve (or plane valve) 10A of the purification-softening water treatment system according to the second preferred embodiment of the present invention is in the second working position, the third working position, the fourth working position, In the fifth working position, the sixth working position, and the seventh working position, the spool 1A of the fluid valve 10A forms the fifteenth communication passage 10015A.
  • the purification-demineralization water treatment system according to the second preferred embodiment of the present invention further has a water supply unit 40, wherein the water supply unit 40 forms a water supply passage. 400, wherein the water supply path 400 is provided in communication with the second communication opening 202 of the purification device 20 to provide clean water to a user.
  • the water supply unit 40 includes a water purification pipe (or a water purification pipe) 41 and a fluid valve 42, wherein the fluid valve 42 is provided in the net A water pipe 41 to control the supply of purified water to the user. It can be understood that the water purification pipe 41 forms the water supply outlet 401.
  • the fluid valve 42 is an electric ball valve or an electric plane valve, so that the user can automatically control the supply of purified water through a control device 16A. Therefore, the second communication opening 202 of the purification device 20 and the sixth opening 1106A of the plane valve 10A, the first conduction opening 301 of the softening box 31, and the water supply passage 400 (or the water supply outlet 401) are respectively Connected. In addition, the sixth opening 1106A of the plane valve 10A is further communicated with the first communication opening 301 of the softening box 31.
  • the plane valve 10A of the purification-demineralizing water treatment system has a first passage 101A and a second passage 102A, a third channel 103A, a fourth channel 104A, a fifth channel 105A, a sixth channel 106A, a seventh channel 107A, an eighth channel 108A, a ninth channel 109A, a tenth channel 1010A, and An eleventh channel 1011A, wherein the first channel 101A, the second channel 102A, the third channel 103A, the fourth channel 104A, the fifth channel 105A, the sixth channel 106A, the seventh channel 107A, and The eighth channel 108A is respectively provided on the fixed valve disc 12A and extends from the first fluid control surface 120A of the fixed valve disc 12A; the ninth channel 109A, the tenth channel 1010A, and the eleventh channel 1011A are respectively The first and second passage
  • the third passage is communicated with the fifth opening 1105A. 103A and the fourth channel 104A and the seventh channel Port 1107A is in communication, the fifth channel 105A is in communication with the second opening 1102A, the sixth channel 106A is in communication with the third opening 1103A, the seventh channel 107A is in communication with the fourth opening 1104A, and the eighth The passage 108A is in communication with the sixth opening 1106A, the ninth passage 109A is in communication with the inner cavity 110A of the valve body 11A, and the eleventh passage 1011A is in communication with the sewage opening 1108A.
  • the drain opening 1108A is provided in the valve body 11A of the plane valve 10A, and the drain opening 1108A is communicated with the eleventh channel 1011A through a drain channel 150A. Therefore, optionally, the drain opening 1108A of the plane valve 10A is formed in the moving valve disc 13A, and the drain opening 1108A of the plane valve 10A is in communication with the eleventh channel 1011A and the drain channel 150A, respectively. It can be understood that the communication between the second communication opening 202 of the purification device 20 and the first communication opening 301 of the softening box 31 and the sixth opening 1106A of the valve body 11A can be achieved in various ways. As shown in FIG.
  • the sixth opening 1106A of the valve body 11A can be communicated with the second communication opening 202 of the purification device 20 and the first communication opening 301 of the softening box 31 respectively through one
  • the communication pipe (or three-way pipe) realizes the communication between the second communication opening 202 of the purification device 20, the first communication opening 301 of the softening box 31, and the sixth opening 1106 of the valve body 11.
  • the communication between the second communication opening 202 of the purification device 20 and the first conduction opening 301 of the softening box 31 and the sixth opening 1106 of the valve body 11 may also be provided through the valve body.
  • the communication path of 11A is realized, wherein the communication path may be provided to communicate with the second communication opening 202 of the purification device 20 and the sixth opening 1106A of the valve body 11A, respectively, and the first communication port of the softening box 31 respectively.
  • a conducting opening 301 communicates with the sixth opening 1106A of the valve body 11A. Therefore, the eighth passage 108A of the valve body 11A, the second communication opening 202 of the purification device 20, and the first conduction opening 301 of the softening box 31 form one through the sixth opening 1106A of the valve body 11A. Tee structure.
  • the ninth channel 109A is provided to be always connected with the valve body 11A through a water inlet 1091A that is always in communication with the external space.
  • the inner cavity 110A communicates.
  • first passage 101A and the second passage 102A of the plane valve 10A are respectively communicated with the fifth opening 1105A, and may be separately and independently communicated with the fifth opening 1105A, or through A fluid passage communicates;
  • the third passage 103A and the fourth passage 104A of the plane valve 10A are respectively communicated with the seventh opening 1107A, and may be separately and independently communicated with the seventh opening 1107A, or may be Connected through a fluid channel.
  • a fluid channel For example, as shown in FIG. 43 to FIG.
  • the first passage 101A and the second passage 102A of the plane valve 10A are communicated through a first fluid passage 1211A, and the second passage 102A is set to directly communicate with the The fifth opening 1105A is in communication, so that the first passage 101A is also in communication with the fifth opening 1105A through the first fluid passage 1211A and the second passage 102A; the third passage 103A of the plane valve 10A and the The fourth channels 104A are respectively communicated with the seventh openings 1107A.
  • the first channel 101A is provided to directly communicate with the fifth opening 1105A, and the second channel 102A passes through the first fluid channel 1211A and the first channel 101A, and It communicates with the fifth opening 1105A.
  • the first passage 101A and the second passage 102A of the plane valve 10A may communicate with the fifth opening 1105A separately and independently; or alternatively, as shown in FIG.
  • the third passage 103A and the fourth passage 104A of the plane valve 10A communicate with each other through a second fluid passage 1212A, and the third passage 103A is provided to directly communicate with the seventh opening 1107A, so that the fourth passage 104A
  • the second fluid passage 1212A and the third passage 103A are also in communication with the seventh opening 1107A.
  • the third passage 103A and the plane valve 10A are The fourth channel 104A communicates through a second fluid channel 1212A, and the fourth channel 104A is configured to directly communicate with the seventh opening 1107A, so that the third channel 103A passes through the second fluid channel 1212A and the fourth channel.
  • first fluid passage 1211A and the second fluid passage 1212A may be disposed on the first fluid control surface 120A of the fixed valve disc 12A, and may also be disposed on the valve body 11A or the fixed valve The interior of the sheet 12A. It can be understood that the first passage 101A and the second passage 102A of the plane valve 10A are in communication with the fifth opening 1105A, and the third passage 103A and the fourth passage 104A of the plane valve 10A are in communication with the first passage The communication of the seven openings 1107A may also be by other means.
  • the moving valve disc 13A of the plane valve 10A of the purification-demineralizing water treatment system can rotate relative to the fixed valve disc 12A to make the plane
  • the valve 10A has a first working position, a second working position, a third working position, a fourth working position, and a fifth working position.
  • the plane valve 10A When the plane valve 10A is in the first working position, the plane valve 10A The ninth channel 109A is in communication with the first channel 101A, and the tenth channel 1010A is in communication with the third channel 103A and the fifth channel 105A; when the plane valve 10A is in the second working position, the The ninth channel 109A of the plane valve 10A is in communication with the fourth channel 104A, the eleventh channel 1011A is in communication with the eighth channel 108A, and the fifth channel 105A is in communication with the inner cavity 110A of the valve body 11A ; When the plane valve 10A is in the third working position, the ninth channel 109A of the plane valve 10A is in communication with the eighth channel 108A, the eleventh channel 1011A and the third channel 103A of the plane valve 10A In communication, the fifth channel 105A and the inner portion of the valve body 11A 110A is in communication; when the plane valve 10A is in the fourth working position, the ninth channel 109A of the plane valve 10A is in communication
  • the plane valve 10A of the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention further has a sixth working position and a seventh working position.
  • the eleventh channel 1011A of the plane valve 10A communicates with the first channel 101A
  • the fifth channel 105A communicates with the inner cavity 110A of the valve body 11A
  • the ninth channel 109A of the plane valve 10A is in communication with the sixth channel 106A
  • the fifth channel 105A is in communication with the inner cavity 110A of the valve body 11A.
  • the eighth channel 108A is in communication with the ninth channel 109A
  • the tenth channel 1010A is respectively It is connected to the fourth channel 104A and the seventh channel 107A
  • the eleventh channel 1011A is connected to the eighth channel 108A.
  • the purification-softening water treatment system according to the second preferred embodiment of the present invention is controlled to be in the purification-softening working state.
  • Nine channels 109A communicate with the first channel 101A to form the first communication channel 1001A, and the tenth channel 1010A communicates with the third channel 103A and the fifth channel 105A, respectively, thereby forming the second communication channel 1002A ;
  • the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention is controlled to be in the backwashing working state of the softening filter (softening device), the plane valve 10A
  • the ninth channel 109A communicates with the fourth channel 104A to form the third communication channel 1003A, the eleventh channel 1011A communicates with the eighth channel 108A to form the fourth communication channel 1004A; when the When the plane valve 10A is in the third working position, the purification-demineralizing water treatment system
  • the channel 109A communicates with the eighth channel 108A to form the fifth communication channel 1005A.
  • the eleventh channel 1011A of the plane valve 10A communicates with the third channel 103A to form the sixth communication channel 1006A; when When the plane valve 10A is in the fourth working position, the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention is controlled to be in the state of replenishment of the salt tank, and the ninth channel 109A of the plane valve 10A It communicates with the seventh channel 107A to form the seventh communication channel 1007A.
  • the purification-demineralized water treatment system according to the second preferred embodiment of the present invention is controlled at When the purification device is being washed, the ninth channel 109A of the plane valve 10A communicates with the second channel 102A, thereby forming the eighth communication channel 1008A, the eleventh channel 1011A of the plane valve 10A and the The eighth channel 108A communicates with each other, thereby forming the ninth communication channel 1009A. Further, when the plane valve 10A is in the sixth working position, the purification-demineralized water treatment system according to the second preferred embodiment of the present invention is controlled to be in the backwashing working state of the purification device.
  • the eleventh channel 1011A communicates with the first channel 101A to form the tenth communication channel 10010A.
  • the purified-demineralized water according to the second preferred embodiment of the present invention The processing system is controlled to be in the softened filter element regeneration working state, the ninth channel 109A of the plane valve 10A is in communication with the sixth channel 106A, thereby forming the eleventh communication channel 10011A.
  • the eighth channel 108A is in communication with the ninth channel 109A, thereby forming the twelfth communication channel 10012A.
  • the tenth channel 1010A communicates with the fourth channel 104A and the seventh channel 107A, respectively, thereby forming the thirteenth communication channel 10013A, and the eleventh channel 1011A communicates with the eighth channel 108A. Thereby, the fourteenth communication passage 10014A is formed.
  • the eleventh channel 1011A may be a through hole provided in the moving valve disc 13A, wherein the eleventh channel 1011A extends upward from the second fluid control surface 130A of the moving valve disc 13A to its opposite side On the other side, the sewage or waste water is discharged upward to the sewage channel 150A at the corresponding work station.
  • the tenth channel 1010A of the plane valve 10A is in communication with the third channel 103A and the fifth channel 105A, and the movement of the plane valve 10A
  • the valve plate 13A separates the fifth passage 105A from the inner cavity 110A of the valve body 11A, so as to prevent raw water in the inner cavity 110A of the valve body 11A from entering the fifth passage 105A.
  • the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention when the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention is in the second working position, the third working position, the In the fourth working position, the fifth working position, the sixth working position, and the seventh working position, the fifth channel 105A of the fixed valve disc 12A of the plane valve 10A and the inner cavity 110A of the valve body 11A They communicate with each other to form the fifteenth communication passage 10015A.
  • the purification-demineralizing water treatment system when the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention is in the second work position, the third work position, the fourth work position, the fifth work position, and the sixth work And the seventh working position, raw water is allowed to flow into the inner cavity 110A of the valve body 11A from the first opening 1101A of the valve body 11A, and further pass through the fixed valve from the inner cavity 110A of the valve body 11A.
  • the fifth passage 105A of the sheet 12A flows to the second opening 1102A of the valve body 11A.
  • the water treatment machine when the plane valve 10A is in the first working position, the water treatment machine is in a purifying-softening working state, and raw water comes from the first opening 1101A of the valve body 11A.
  • the first communication opening 201 entering the purification device 20 is treated by the water treatment material or mechanism of the purification device 20, flows out from the second communication opening 202 of the purification device 20, and then flows into the first communication opening of the softening box 31.
  • a conducting opening 301 flows through the second conducting opening 302 of the softening box 31 after being treated with the softening resin in the softening box 31, and then flows through the seventh opening 1107A of the valve body 11A and enters the fixed valve.
  • the third channel 103A of the plate 12A is guided through the tenth channel 1010A of the moving valve plate 13A into the fifth channel 105A of the fixed valve plate 12A, and then passes through the second opening 1102A of the valve body 11A to the user.
  • Supply treated water when the plane valve 10A is in the second work In the position, the water treatment machine is in the backwashing working state of the softening filter element (softening device).
  • Raw water flows from the first opening 1101A of the valve body 11A into the inner cavity 110A of the valve body 11A, and then passes through the moving valve disc.
  • the ninth channel 109A of 13A flows into the fourth channel 104A of the fixed valve disc 12A, and then enters the second conduction opening 302 of the softening box 31 through the seventh opening 1107A of the valve body 11A, and the softening box After the softening resin in 31 is backwashed, it flows out from the first conduction opening 301 of the softening box 31, then flows through the sixth opening 1106A of the valve body 11A, and then flows through the first opening of the fixed valve disc 12A.
  • Eight channels 108A and the eleventh channel 1011A of the moving valve disc 13A flow out from the drain opening 1108A of the plane valve 10A, and raw water can also flow to the valve body through the fifth channel 105A of the fixed valve disc 12A.
  • the ninth passage 109A flows into the eighth passage 108A of the fixed valve disc 12A, and then enters the first conduction opening 301 of the softening box 31 through the sixth opening 1106A of the valve body 11A, and the After the softening resin is flushed forward, it flows out from the second conduction opening 302 of the softening box 31, then flows through the seventh opening 1107A of the valve body 11A, and then flows through
  • the eleventh channel 1011A of the moving valve disc 13A and then flows out from the sewage opening 1108A of the plane valve 10A, and at the same time raw water can also flow through the fifth channel 105A of the fixed valve disc 12A to the valve body 11A.
  • the second opening 1102A when the plane valve 10A is in the fourth working position, the water treatment machine is in the state of replenishment of the salt tank, and raw water flows from the first opening 1101A of the valve body 11A into the valve body 11A.
  • the internal cavity 110A then flows through the ninth channel 109A of the moving valve disc 13A into the seventh channel 107A of the fixed valve disc 12A, and then flows through the fourth opening 1104A of the valve body 11A and flows into the ejector 32.
  • the injection port 322 replenishes water to the salt tank 33, and raw water can also pass through the fixed valve disc 12A.
  • the fifth channel 105A flows to the second opening 1102A of the valve body 11A.
  • the water treatment machine is in the washing state of the purification device, and the raw water flows from the valve body 11A.
  • the first opening 1101A flows into the inner cavity 110A of the valve body 11A, and then flows through the ninth channel 109A of the moving valve disc 13A into the second channel 102A of the fixed valve disc 12A, and then passes through the valve body 11A.
  • the fifth opening 1105A enters the first communication opening 201 of the purification device 20, and after the water treatment material or mechanism in the purification device 20 is flushed forward, flows out from the second communication opening 202 of the purification device 20, and then Flowing through the sixth opening 1106A of the valve body 11A, entering the eighth passage 108A of the fixed valve disc 12A, and then flowing through the eleventh passage 1011A of the moving valve disc 13A from the drain opening of the plane valve 10A 1108A flows out, and raw water can also flow through the fifth channel 105A of the fixed valve disc 12A to the second opening 1102A of the valve body 11A.
  • the water treatment machine is in a backwashing working state of the purification device, and raw water flows from the first opening 1101A of the valve body 11A into the inner cavity 110A of the valve body 11A. Then, it flows into the eighth channel 108A of the fixed valve disc 12A through the ninth channel 109A of the moving valve disc 13A, and then enters the second communication opening of the purification device 20 through the sixth opening 1106A of the valve body 11A. 202. After the water treatment material or mechanism in the purification device 20 is backwashed, it flows out from the first communication opening 201 of the purification device 20, and then flows through the fifth opening 1105A of the valve body 11A, and enters the fixing device.
  • the first passage 101A of the valve disc 12A flows through the eleventh passage 1011A of the moving valve disc 13A from the drain opening 1108A of the plane valve 10A, and raw water can also pass through the first passage of the fixed valve disc 12A.
  • Five channels 105A flow to the second opening 1102A of the valve body 11A; when the plane valve 10A is in the seventh working position, the water treatment machine is in a regenerating working state of the softening filter element, and raw water comes from the first opening of the valve body 11A 1101A flows into the inside of the valve body 11A 110A, then flows into the sixth channel 106A of the fixed valve plate 12A through the ninth channel 109A of the moving valve plate 13A, and then flows into the injection outlet 321 of the ejector 32 through the third opening 1103A of the valve body 11A.
  • the liquid from the salt tank 33 After passing through the jet 32, the liquid from the salt tank 33 is mixed, and then flows into the fourth opening 1104A of the valve body 11A through the jet inlet 322 of the jet 32, and then enters the first opening of the fixed valve disc 12A.
  • the seven channels 107A are guided by the tenth channel 1010A of the moving valve disc 13A into the fourth channel 104A of the fixed valve disc 12A, and then flow through the seventh opening 1107A of the valve body 11A and enter the softening box 31.
  • the second conductive opening 302 regenerates the softened resin in the softening box 31 countercurrently, it flows out from the first conductive opening 301 and then flows through the sixth opening 1106A of the valve body 11A and enters the fixed valve disc 12A.
  • the eighth channel 108A passes through the eleventh channel 1011A of the moving valve disc 13A and flows out from the sewage opening 1108A of the plane valve 10A. At the same time, the raw water can also pass through the fifth channel 105A of the fixed valve disc 12A. Flow to the second opening 1102A of the valve body 11A.
  • the passive valve disc 13A is closed respectively; when the plane valve 10A is in the second working position, the first passage 101A and the third passage 103A of the plane valve 10A are closed by the moving valve disc 13A, respectively; when the plane valve 10A When in the third working position, the second channel 102A and the fourth channel 104A of the plane valve 10A are respectively closed by the moving valve disc 13A; when the plane valve 10A is in the fourth working position, the plane valve 10A
  • the sixth passage 106A is closed by the moving valve disc 13A; when the plane valve 10A is in the fifth working position, the first passage 101A, the third passage 103A, and the fourth passage 104A of the plane valve 10A are respectively Closed by the moving valve disc 13A; when the plane valve 10A is in the sixth working position, the
  • the sixth passage 106A and the seventh passage 107A of the plane valve 10A are respectively moved by the moving valve.
  • the sheet 13A is closed; when the plane valve 10A is in the third working position, the tenth channel 1010A is communicated with the first channel 101A and the eighth channel 108A, respectively, the sixth channel 106A and the plane valve 10A
  • the seventh passage 107A is closed by the moving valve disc 13A.
  • the first passage 101A and the third passage 103A of the plane valve 10A are closed by the moving valve disc 13A.
  • the sixth channel 106A and the seventh channel 107A of the plane valve 10A are respectively closed by the moving valve disc 13A; when the plane valve 10A is in the sixth working position, the plane The tenth passage 1010A of the valve 10A is in communication with the eighth passage 108A, and the sixth passage 106A and the seventh passage 107A of the plane valve 10A are closed by the moving valve disc 13A, respectively.
  • the sixth passage 106A and the seventh passage 107A of the plane valve 10A are moved by the moving valve disc 13A.
  • the eleventh channel 1011A is closed by the fixed valve disc 12A; when the plane valve 10A is in the second working position, the tenth channel 1010A of the plane valve 10A and the second channel 102A and the eighth channel are respectively The channel 108A communicates; when the plane valve 10A is in the fourth working position, the tenth channel 1010A of the plane valve 10A communicates with the second channel 102A and the fourth channel 104A, and the eleventh channel 1011A Communicating with the eighth channel 108A; when the plane valve 10A is in the fifth working position, the tenth channel 1010A of the plane valve 10A is connected with the eighth channel 108A.
  • first channel 101A, the second channel 102A, the third channel 103A, the fourth channel 104A, the fifth channel 105A, the sixth channel 106A, and the seventh channel 107A of the plane valve 10A The first fluid control surface 120A of the fixed valve disc 12A is provided separately from the eighth channel 108A; the ninth channel 109A, the tenth channel 1010A, and the eleventh channel 1011A are respectively separated from each other.
  • the second fluid control surface 130A is provided on the moving valve disc 13A.
  • the eighth channel 108A respectively form a channel opening provided on the first fluid control surface 120A of the fixed valve disc 12A
  • the ninth channel 109A, the tenth channel 1010A and the eleventh channel 1011A form one respectively
  • the passage opening of the second fluid control surface 130A provided in the moving valve plate 13A is opposite to the surface (the second fluid control surface 130A) of the moving valve plate 13A of the plane valve 10A (the first fluid control surface 120A), and when the moving valve disc 13A rotates relative to the fixed valve disc 12A, the passage provided in the moving valve disc 13A and the passage provided in the fixed valve disc 12A are selectively communicated through corresponding passage openings.
  • corresponding communication channels and control the flow direction of fluid such as water flow).
  • the eighth channel 108A, the ninth channel 109A, the tenth channel 1010A, and the eleventh channel 1011A may have any extension path (or direction) capable of achieving the mutual connection relationship herein;
  • the first of the plane valve 10A Channel 101A, the second channel 102A, the third channel 103A, the fourth channel 104A, the fifth channel 105A, the sixth channel 106A, the seventh channel 107A, and the eighth channel 108A are respectively formed in the fixed valve
  • the passage opening of the first fluid control surface 120A of the blade 12A, and the ninth passage 109A, the tenth channel 1010A, and the eleventh channel 1011A are respectively formed on the second fluid control surface 130A of the moving valve plate 13
  • the channel opening may have any shape capable of achieving the mutual connection relationship herein.
  • the passage opening of the eighth passage 108A formed on the first fluid control surface 120A of the fixed valve disc 12A may be provided with a regular shape or may be provided with an irregular shape. Therefore, the first channel 101A, the second channel 102A, the third channel 103A, the fourth channel 104A, the fifth channel 105A, the sixth channel 106A, the seventh channel 107A, the The extension path (or direction) of the eighth channel 108A, the ninth channel 109A, the tenth channel 1010A, and the eleventh channel 1011A and the shape of the channel openings thereof should not be a limitation on the present invention.
  • the first passage 101A, the eighth passage 108A, and the second passage of the plane valve 10A of the purification-demineralization water treatment system according to the second preferred embodiment of the present invention 102A, the fourth channel 104A, the seventh channel 107A, the sixth channel 106A, the third channel 103A, and the fifth channel 105A are arranged clockwise on the fixed valve disc 12A in this order; the plane valve 10A
  • the eleventh channel 1011A, the tenth channel 1010A, and the ninth channel 109A are arranged clockwise on the moving valve disc 13A in this order.
  • the fifth channel 105A are arranged counterclockwise on the fixed valve disc 12A; the eleventh channel 1011A, the tenth channel 1010A and the ninth channel 109A of the plane valve 10A are counterclockwise in this order Arranged on the moving valve disc 13A.
  • the fixed valve disc 12A of the flat valve 10A of the planar valve 10A of the purification-demineralized water treatment system has a first center 121A, a first extension 122A extending outward from the first central portion 121A, and a first edge portion 123A extending outward from the first extension 122A
  • the moving valve disc 13A has a second center portion 131A, a second extension portion 132A extending outward from the second central portion 131A, and a second edge portion 133A extending outward from the second extension portion 132A
  • the surface 120A has a center portion 1200A shown by a dashed line in the figure, wherein the center portion 1200A is provided at the first center portion 121A of the fixed valve disc 12A, and the center portion 1200A of the first fluid control surface 120A is The outer part is divided
  • the second fluid control surface 130A of the moving valve disc 13A of the plane valve 10A has a center shown by a dotted line in the figure Area 1300A, where the center area 1300A is provided at the second center portion 131A of the moving valve disc 13A, and the portion outside the center area 1300A of the second fluid control surface 130A is equally divided by a clockwise and dotted line
  • the second fluid control surface 130A of the moving valve disc 13A when the second fluid control surface 130A of the moving valve disc 13A is disposed on the first fluid control surface 120A of the fixed valve disc 12A, the second fluid control surface 130A of the moving valve disc 13A
  • the second central portion 131A is directly opposite the first central portion 121A of the first fluid control surface 120A of the fixed valve disc 12A
  • the second extension 132A of the second fluid control surface 130A of the movable valve disc 13A is directly opposite
  • the second edge portion 133A of the second fluid control surface 130A of the moving valve disc 13A is facing the same of the fixed valve disc 12A.
  • the first edge portion 123A of the first fluid control surface 120A when the second fluid control surface 130A of the moving valve disc 13A is disposed on the first fluid control surface 120A of the fixed valve disc 12A, the second fluid control surface 130A of the moving valve disc 13A
  • the first fluid control surface 120A of the fixed valve disc 12A of the plane valve 10A and the second fluid control surface 130A of the movable valve disc 13A are both circular, the first passage 101A, the second passage 102A, the The third channel 103A, the fourth channel 104A, the fifth channel 105A, the sixth channel 106A, the seventh channel 107A, and the eighth channel 108A are all provided with the first fluid in the fixed valve disc 12A in the radial direction.
  • the control surface 120A, and the ninth channel 109A and the tenth channel 1010A are both disposed on the second fluid control surface 130A of the moving valve disc 13A in the radial direction.
  • the seventh channel 107A and the eighth channel 108A are respectively provided on the first extension portion 122A of the first fluid control surface 120A of the fixed valve disc 12A
  • the fifth channel 105A is provided on the first fluid control surface
  • the first edge portion 123A of 120A extends inward from the first edge portion 123A.
  • the fifth channel 105A is disposed at the first edge portion 123A of the first fluid control surface 120A and extends inward from the first edge portion 123A to the first extension of the first fluid control surface 120A. ⁇ 122A.
  • the ninth channel 109A and the eleventh channel 1011A of the plane valve 10A are respectively disposed on the second fluid control surface 130A of the moving valve disc 13A
  • the second extension portion 132A and the tenth channel 1010A are disposed on the second edge portion 133A of the second fluid control surface 130A of the moving valve disc 13A and extend inwardly from the second edge portion 133A to the second Extension 132A.
  • the valve body 11A of the plane valve 10A of the purification-demineralizing water treatment system has an inner wall 111A, wherein the fixed valve disc 12A is suitable.
  • the first fluid control surface 120A is disposed upward in the inner cavity 110A, and the moving valve plate 13A is adapted to be disposed in the inner cavity 110A downward with the second fluid control surface 130A.
  • the inner cavity 110A is always connected to the inner cavity 110A.
  • the ninth channel 109A is connected.
  • the fixed valve disc 12A of the plane valve 10A may be detachably disposed on the inner wall 111A of the valve body 11A, or may be integrally formed with the inner wall 111A of the valve body 11A of the plane valve 10A.
  • the fixed valve disc 12A and the valve body 11A hold the fixed valve disc 12A and the valve body 11A through a fixing mechanism.
  • This valve body 11A is synchronized. For example, as shown in FIG. 43 to FIG.
  • the fixed valve disc 12A has a stopper 123A protruding outward from the edge of the fixed valve disc 12A, and the inner wall 111A of the valve body 11A has a brake Slot 1110A, in which the brake member 123A of the fixed valve disc 12A is arranged to be able to engage with the brake groove 1110A of the inner wall 111A of the valve body 11A to ensure the space between the fixed valve disc 12A and the valve body 11A Phase synchronization (or relative rotation does not occur) and ensure that each channel provided in the fixed valve disc 12A communicates with a corresponding opening provided in the valve body 11A.
  • the fixed valve disc 12A when the fixed valve disc 12A is detachably disposed in the valve body 11A, the fixed valve disc 12A can be manufactured separately. In other words, at this time, the fixed valve disc 12A may be made of a wear-resistant material, thereby improving the service life of the fixed valve disc 12A (or the entire flat valve).
  • the plane valve 10A of the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention further includes a flow guiding element 15A, wherein the flow guiding element 15A forms the sewage discharge.
  • Channel 150A in which the deflector element 15A is provided to extend upward from the moving valve disc 13A and the drain channel 150A of the deflector element 15A is in communication with the drain opening 1108A of the plane valve and the eleventh channel 1011A (
  • the blowdown opening 1108A is provided in the valve body 11A of the plane valve 10A), or the blowdown channel 150A is directly connected to the blowdown opening 1108A (the blowdown opening 1108A is provided in the moving valve plate 13A of the flat valve 10A, And communicates with the eleventh channel 1011A) so that sewage or wastewater can flow out of it.
  • the plane valve 10A of the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention further includes a driving element 18A extending upward from the moving valve disc 13A, wherein The driving element 18A is provided to be capable of driving the moving valve disc 13A of the flat valve 10A to rotate relative to the fixed valve disc 12A.
  • the driving element 18A is integrally formed with the flow guiding element 15.
  • the driving element 18A and the flow guiding element 15 are two independent mechanisms.
  • the plane valve 10A of the purification-demineralization water treatment system further includes a sealing element 17A, wherein the sealing element 17A is provided in connection with the driving Element 18A faces each other, wherein the sealing element 17A forms a first sealing surface 170A, and the driving element 18A forms a second sealing surface 180A, wherein the first sealing surface 170A of the sealing element 17A is disposed on the driving element 18A
  • the second sealing surface 180A is such that when the driving element 18A rotates relative to the sealing element 17A to drive the moving valve disc 13A relative to the fixed valve disc 12A, the driving element 18A and the sealing element 17A are sealed. And prevent water leakage.
  • the sealing element 17A is provided to keep the driving element 18A in a proper position, thereby keeping the moving valve disc 13A in a preset position.
  • the diameter of the moving valve plate 13A of the plane valve 10A of the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention is set slightly smaller than that of the valve body 11A.
  • the control device 16A of the plane valve 10A of the purification-demineralized water treatment system is provided to be capable of performing -Soften the control command to drive the driving element 18A to rotate through a transmission mechanism 14A, such as a transmission gear, to drive the moving valve disc 13A of the plane valve 10A to rotate relative to the fixed valve disc 12A, thereby forming a separate valve from the plane valve.
  • a transmission mechanism 14A such as a transmission gear
  • the communication passage 1002A allows raw water to pass from the inner cavity 110A of the valve body 11A, through the first communication passage 1001A formed by the plane valve 10A, the fifth opening 1105A of the valve body 11A, and the first A communication opening 201 flows into the purification device 20, and purified water obtained after the raw water is purified by the purification device 20 flows out from the second communication opening 202 of the purification device 20, and the purified water can pass through the first guide of the softening box 31 Inflow through opening 301
  • the softening tank 31 is subjected to softening treatment to obtain softened water.
  • the softened water flows out from the second conduction opening 302 of the softening tank 31, and then passes through the seventh opening 1107A of the valve body 11A, and the plane valve 10A.
  • the second communication channel 1002A finally flows out through the second opening 1102A of the valve body 11A and supplies softened water to the user; according to a softening filter (softening device) backwash control command, it is driven by the transmission mechanism 14A, such as a transmission gear
  • the driving element 18A rotates to drive the moving valve disc 13A of the plane valve 10A to rotate relative to the fixed valve disc 12A, thereby forming a cavity 110A and a seventh opening respectively with the valve body 11A of the plane valve 10A.
  • the first opening 1101A flows into the inner cavity 110A of the valve body 11A, and then flows into the seventh opening 1107A through the third communication passage 1003A formed by the plane valve 10A, and then passes through the second guide of the softening box 31 Flow through opening 302
  • the softening tank 31 and the softening material (or water treatment material) such as softening resin in the softening tank 31 are backwashed
  • the obtained sewage or waste water flows from the first conduction opening 301 of the softening tank 31 It flows out, then flows through the sixth opening 1106A of the valve body 11A, flows into the fourth communication channel 1004A of the plane valve 10A, and then flows out from the drain opening 1108A of the plane valve 10A.
  • valve A fifteenth communication passage 10015A communicating with the second opening 1102A of the body 11A and the inner cavity 110A to allow raw water to flow from the first opening 1101A of the valve body 11A into the inner cavity 110A of the valve body 11A, and then Flow through the fifteenth communication channel 10015A into the second opening 1102A of the valve body 11A to provide the user with raw water; according to a softening filter (softening device) forward washing control command, drive through the transmission mechanism 14A, such as a transmission gear, to drive The driving element 18A rotates to drive the moving valve disc 13A of the plane valve 10A to rotate relative to the fixed valve disc 12A, thereby forming a first communicating with the inner cavity 110A and the sixth opening 1106A of the valve body 11A.
  • a softening filter softening device
  • the inner cavity 110A of the valve body 11A then flows into the sixth opening 1106A through the fifth communication passage 1005A, and then enters the first conduction opening 301 of the softening box 31, and the water treatment material in the softening box 31 Or the mechanism is flushed forward, flows out from the second conduction opening 302 of the softening box 31, then flows through the seventh opening 1107A of the valve body 11A, flows into the sixth communication passage 1006A, and then flows from the plane valve 10A.
  • the drain opening 1108A flows out, and at the same time, a fifteenth communication channel 10015A is formed to communicate with the second opening 1102A and the inner cavity 110A of the valve body 11A, respectively, so as to allow raw water to pass from the first of the valve body 11A.
  • the opening 1101A flows into the inner cavity 110A of the valve body 11A, and then flows into the second opening 1102A of the valve body 11A through the fifteenth communication passage 10015A to provide the user with raw water; according to a water supplement control instruction, through the transmission Institution 14A, A transmission gear drives the driving element 18A to rotate to drive the moving valve disc 13A of the flat valve 10A to rotate relative to the fixed valve disc 12A, so as to form a cavity 110A and a fourth opening 1104A respectively with the valve body 11A.
  • the seventh communication passage 1007A communicates to allow raw water to flow from the first opening 1101A of the valve body 11A into the inner cavity 110A of the valve body 11A, and then flows into the fourth opening 1104A through the seventh communication passage 1007A.
  • a fifteenth communication channel 10015A is formed to communicate with the second opening 1102A of the valve body 11A and the inner cavity 110A.
  • the driving mechanism 18A is driven to rotate by the transmission mechanism 14A, such as a transmission gear, to drive the moving valve disc 13A of the plane valve 10A to rotate relative to the fixed valve disc 12A.
  • a ninth communication channel 1009A communicating with 1108A allows raw water to flow from the first opening 1101A of the valve body 11A into the inner cavity 110A of the valve body 11A, and then flows into the fifth opening 1105A through the eighth communication channel 1008A.
  • Body 11A of the The second opening 1102A provides raw water to a user.
  • the control device 16A of the plane valve 10A of the purification-demineralized water treatment system is further set to be able to be based on a
  • the backwash control command of the purification device drives the driving element 18A to rotate through the transmission mechanism 14A, such as a transmission gear, to drive the moving valve disc 13A of the plane valve 10A to rotate relative to the fixed valve disc 12A, thereby forming a separate one with the A tenth communication passage 10010A communicating with the fifth opening 1105A of the valve body 11A and the drain opening 1108A of the plane valve 10A and a first communicating passage communicating with the inner cavity 110A and the sixth opening 1106A of the valve body 11A, respectively.
  • Twelve communication passages 10012A to allow raw water to flow from the first opening 1101A of the valve body 11A into the inner cavity 110A of the valve body 11A, and then flow into the sixth opening 1106A through the twelfth communication passage 10012A, and then enter
  • the second communication opening 202 of the purification device 20 is backwashed from the water treatment material or mechanism in the purification device 20, it flows out from the first communication opening 201 of the purification device 20 and then flows through the valve body 11A.
  • the fifth opening 1105A flows into the tenth communication passage 10010A, and then flows out from the drain opening 1108A of the plane valve 10A.
  • a second opening 1102A and the inner cavity 110A are formed to communicate with the valve body 11A.
  • the fifteenth communication passage 10015A allows raw water to flow from the first opening 1101A of the valve body 11A into the inner cavity 110A of the valve body 11A, and then flows into the first cavity of the valve body 11A through the fifteenth communication passage 10015A.
  • Two openings 1102A provide raw water to the user.
  • the control device 16A of the plane valve 10A of the purification-demineralized water treatment system is further set to be able to be based on a Soften the filter element regeneration control command, and drive the driving element 18A to rotate through the transmission mechanism 14A, such as a transmission gear, to drive the moving valve disc 13A of the plane valve 10A to rotate relative to the fixed valve disc 12A, thereby forming a separate one with the valve
  • the second conduction opening 302 after regenerating the softened resin in the softening box 31, flows out from the first conduction opening 301, and then flows through the sixth opening 1106A of the valve body 11A and flows into the fourteenth communication passage 10014A. Then, it flows out from the drain opening 1108A of the plane valve 10A, and at the same time, a fifteenth communication channel 10015A is formed to communicate with the second opening 1102A of the valve body 11A and the inner cavity 110A, respectively, to allow raw water to flow from The first opening 1101A of the valve body 11A flows into the inner cavity 110A of the valve body 11A, and then flows into the second opening 1102A of the valve body 11A through the fifteenth communication passage 10015A to provide the user with raw water.
  • control instructions such as purification-softening control instructions, softening device backwashing control instructions, softening device forward-washing control instructions, water supply control instructions, purification device forward-washing control instructions, purification device backwashing control instructions, softening filter
  • Control instructions such as the regeneration control instruction can be preset in the control module of the control device 16A, can also be received from a control terminal through an electronic communication network, or can be input by a user through an input interface.
  • the purifying-demineralizing water treatment system of the present invention is provided with an input interface for the plane valve 10A, such as a touchpad or a control button, the user can control the control through the touchpad or the corresponding control button.
  • the control module of the device 16A sends the above-mentioned control instruction, so that the control module of the control device 16A controls the motor of the control device 16A to rotate, thereby driving the driving element 18A to rotate through a transmission mechanism 14A.
  • the plane valve 10A of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention, which is suitable for controlling purification -Demineralized water treatment system purifies raw water or water to be treated-demineralized
  • the plane valve (fluid valve) 10A ′ includes a valve body 11A ′ and a spool 1A ′, wherein the spool 1A ′ includes a moving valve 13A ′ and a fixed valve disc 12A ′, wherein the valve body 11A ′ forms an internal cavity 110A, a first opening 1101A, a second opening 1102A, a third opening 1103A, a fourth opening 1104A, and a fifth The opening 1105A, a sixth opening 1106A, a seventh opening 1107A, and a drain opening (or eighth opening) 1108A ′, the fixed valve disc 12A ′ has a first fluid control surface 120A, and the moving
  • the softening device 30 of the purification-demineralizing water treatment system further includes a jet 32 and a salt tank 33, wherein the ejector 32 has an injection port 321 adapted to communicate with the third opening 1103A of the valve body 11A ′ and an injection port adapted to communicate with the fourth opening 1104A of the valve body 11A ′ 322, wherein the salt solution tank 33 is adapted to communicate with the ejector 32, so that the salt liquid from the salt solution tank 33 can pass through the ejector 32 and the fourth opening 1104A, and flow through the plane valve 10A ′
  • the softening box 31 of the softening device 30 is used to regenerate the softened resin in the softening box 31.
  • the purification-demineralized water treatment system of the present invention when the purification-demineralized water treatment system of the present invention is in a state where the softening filter element absorbs salt, the raw water or water to be treated flows from the first opening 1101A of the valve body 11A ′ into the inside of the valve body 11A ′.
  • the cavity 110A then flows into the third opening 1103A through an eleventh communication channel 10011A, and then flows into the ejection port 321 of the ejector 32.
  • the liquid from the salt tank 33 is mixed and passed through the The injection inlet 322 of the ejector 32 flows into the fourth opening 1104A of the valve body 11A ′, and then flows into the seventh opening 1107A through a thirteenth communication passage 10013A, and enters the second conduction opening 302 of the softening box 31
  • the water treatment material or mechanism in the softening tank 31 is regenerated countercurrently, such as after softening the resin, flows out from the first conducting opening 301, and then flows through the sixth opening 1106A of the valve body 11A ′ into a fourteenth communication
  • the channel 10014A ′ then flows out of the drain opening 1108A ′ of the plane valve 10A ′.
  • the present invention only exemplarily describes the manner of supplying the salt solution to the softening tank 31 through the ejector 32
  • the salt solution may also be provided to the softening tank 31 through the fourth opening 1104A of the plane valve 10A ′ by other methods or mechanisms.
  • the softening box 31 Therefore, the manner of supplying the salt solution to the softening tank 31 through the ejector 32 should not be a limitation of the present invention.
  • the plane valve 10A ′ of the purification-demineralization water treatment system of the present invention may further have a connection mechanism, such as a connection thread, a snap joint, etc., disposed on the valve body 11A ′, so as to facilitate the plane.
  • the valve 10A ′ is connected to other structural components of the purification-demineralized water treatment system, such as a waterway connection joint and the like, to guide water to the communication channels formed by the purification device 20, the softening tank 31, and the plane valve 10A ′, respectively.
  • the purification-demineralized water treatment system has a first working state, a second working state, a third working state, and a first working state.
  • Four working states and a fifth working state wherein when the purification-demineralized water treatment system is in the first working state, the moving valve disc 13A ′ and the fixed valve disc 12A ′ of the plane valve 10A ′ form a separate A first communication passage 1001A communicating with the inner cavity 110A (or the first opening 1101A) and the fifth opening 1105A of the valve body 11A ′ and a second opening 1102A and the second opening 1102A with the valve body 11A ′, respectively.
  • the second communication channel 1002A that communicates with the seventh opening 1107A.
  • the fourth communication passage 1004A ′ when the purification-demineralized water treatment system is in the third working state, the moving valve disc 13A ′ and the fixed valve disc 12A ′ of the plane valve 10A ′ form a separate valve from the valve, respectively.
  • the sheet 12A ′ forms a seventh communication channel 1007A which communicates with the inner cavity 110A (or the first opening 1101A) and the fourth opening 1104A of the valve body 11A ′, respectively.
  • the moving valve disc 13A ′ and the fixed valve disc 12A ′ of the plane valve 10A ′ form a cavity 110A (or the first opening 1101A) and the inner cavity 110A ′ of the valve body 11A ′, respectively.
  • An eighth communication passage 1008A communicating with the fifth opening 1105A and a valve body 11A respectively
  • the first communication channel formed by the plane valve 10A ′ 1001A communicates with the internal cavity 110A (or the first opening 1101A) and the fifth opening 1105A of the valve body 11A ′
  • the second communication passage 1002A communicates with the second opening 1102A and 1102A of the valve body 11A ′, respectively.
  • the seventh opening 1107A communicates, thereby allowing raw water to flow from the first opening 1101A of the valve body 11A ′ into the inner cavity 110A of the valve body 11A ′, and then through the first communication channel formed by the plane valve 10A ′.
  • the fifth opening 1105A of the valve body 11A ′, the first communication opening 201 of the purification device 20 flows into the purification device 20, and purified water obtained after the raw water is purified by the purification device 20 is purged from the purification device 20
  • the second communication opening 202 flows out, and the purified water can flow into the softening tank 31 through the first conducting opening 301 of the softening tank 31, and the softened water is obtained after the softening treatment, and the softened water is passed from the second of the softening tank 31
  • the conduction opening 302 flows out, and then passes through the valve body 11A ′.
  • the second communication opening 202 of the purification device 20 is in communication with a water supply outlet 401 (or water supply passage 400), so as to provide users with clean water. Therefore, when the purified-demineralized water treatment system is in the first working state, the purified-demineralized water treatment system of the present invention can simultaneously provide purified water and demineralized water to users.
  • the first working state of the purification-demineralized water treatment system corresponds to the purification-demineralization working state of the purification-demineralized water treatment system. Therefore, when the purified-demineralized water treatment system is in the first working state, the first opening 1101A of the valve body 11A ′ (or the inner cavity 110A of the valve body 11A ′), the valve body 11A ′ The fifth opening 1105A, the first communication opening 201 of the purification device 20, the second communication opening 202 of the purification device 20, the first communication opening 301 of the softening box 31 of the softening device 30, the softening The second conduction opening 302 of the softening box 31 of the device 30, the seventh opening 1107A of the valve body 11A ′, and the second opening 1102A of the valve body 11A ′ are sequentially communicated, thereby forming a purification device
  • the water flow path 20 and the softening device 30 are connected in series so that the raw water can flow from the purification device 20 to the softening
  • the third communication channel formed by the plane valve 10A ′ 1003A is in communication with the internal cavity 110A (or the first opening 1101A) and the seventh opening 1107A of the valve body 11A ′, and the fourth communication passage 1004A ′ is respectively connected with the sixth opening 1106A of the valve body 11A ′ Communicates with the drain opening 1108A ′ of the plane valve 10A ′, thereby allowing raw water to flow from the first opening 1101A of the valve body 11A ′ into the inner cavity 110A of the valve body 11A ′, and then passes through the plane valve 10A ′
  • the formed third communication channel 1003A flows into the seventh opening 1107A, and then flows into the softening box 31 through the second conducting opening 302 of the softening box 31, and the softening material (or water treatment material) in the softening box 31 ),
  • the purification-demineralized water treatment system of the present invention can control reverse flushing of the softening filter element, such as the softening tank 31. Accordingly, the second working state of the purification-demineralizing water treatment system corresponds to the backwashing working state of the softening filter element (softening device) of the purification-demineralizing water treatment system.
  • the fifth communication channel formed by the plane valve 10A ′ 1005A is in communication with the internal cavity 110A (or the first opening 1101A) and the sixth opening 1106A of the valve body 11A ′, and the sixth communication passage 1006A ′ is respectively connected with the seventh opening 1107A of the valve body 11A ′ Communicates with the drain opening 1108A ′ of the plane valve 10A ′, thereby allowing raw water to flow from the first opening 1101A of the valve body 11A ′ into the inner cavity 110A of the valve body 11A ′, and then through the fifth communication passage 1005A flows into the sixth opening 1106A, and then enters the first conducting opening 301 of the softening box 31.
  • the purification-demineralized water treatment system of the present invention can control the forward flushing of the softening filter element, such as the softening tank 31. Accordingly, the third working state of the purification-demineralized water treatment system corresponds to the normal washing operation state of the softening filter element (softening device) of the purification-demineralized water treatment system.
  • the seventh communication channel formed by the plane valve 10A ′ 1007A communicates with the inner cavity 110A (or the first opening 1101A) and the fourth opening 1104A of the valve body 11A ′, thereby allowing raw water to flow into the valve body from the first opening 1101A of the valve body 11A ′.
  • the internal cavity 110A of 11A ′ then flows into the fourth opening 1104A through the seventh communication channel 1007A, and then flows into the injection inlet 322 of the ejector 32 to replenish water to the salt tank 33.
  • the purification-demineralized water treatment system of the present invention can control the replenishment of water to the salt tank 33. Accordingly, the fourth working state of the purification-demineralized water treatment system corresponds to the state of replenishment of the salt solution tank of the purification-demineralized water treatment system.
  • the eighth communication channel formed by the plane valve 10A ′ 1008A communicates with the internal cavity 110A (or the first opening 1101A) and the fifth opening 1105A of the valve body 11A ′, and the ninth communication passage 1009A ′ is respectively connected with the sixth opening 1106A of the valve body 11A ′ Communicates with the drain opening 1108A ′ of the plane valve 10A ′, thereby allowing raw water to flow from the first opening 1101A of the valve body 11A ′ into the inner cavity 110A of the valve body 11A ′, and then through the eighth communication passage 1008A flows into the fifth opening 1105A, and then enters the first communication opening 201 of the purification device 20.
  • the second communication opening of the purification device 20 202 flows out, then flows through the sixth opening 1106A of the valve body 11A ′, flows into the ninth communication passage 1009A ′, and then flows out from the drain opening 1108A ′ of the plane valve 10A ′.
  • the purification-demineralized water treatment system of the present invention can control the forward flushing of the purification device 20. Accordingly, the fifth working state of the purification-demineralized water treatment system corresponds to the normal washing operation state of the purification device of the purification-demineralized water treatment system.
  • the purification-demineralized water treatment system according to the second preferred embodiment of the present invention further has a sixth working state and a seventh working state, wherein when the purified-demineralized water treatment When the system is in the sixth working state, the moving valve disc 13A ′ and the fixed valve disc 12A ′ of the plane valve 10A ′ form a fifth opening 1105A and the plane valve 10A ′ respectively with the valve body 11A ′.
  • the tenth communication channel 10010A ′ connected to the sewage discharge opening 1108A ′; when the purification-demineralized water treatment system is in the seventh working state, the moving valve disc 13A ′ and the fixed valve disc of the plane valve 10A ′ 12A ′ forms an eleventh communication passage 10011A that communicates with the inner cavity 110A (or the first opening 1101A) and the third opening 1103A of the valve body 11A ′, respectively.
  • the moving valve disc 13A ′ and the fixed valve disc 12A ′ of the plane valve 10A ′ further form a separate valve body 11A ′ from the valve body 11A ′.
  • the plane valve 10A ′ The moving valve disc 13A ′ and the fixed valve disc 12A ′ form a thirteenth communication passage 10013A communicating with the seventh opening 1107A and the fourth opening 1104A of the valve body 11A ′ and a valve communicating with the valve, respectively.
  • a fourteenth communication passage 10014A ′ communicating with the sixth opening 1106A of the body 11A ′ and the drain opening 1108A ′ of the plane valve 10A ′.
  • the tenth communication channel formed by the plane valve 10A ′ 10010A ′ communicates with the fifth opening 1105A of the valve body 11A ′ and the drain opening 1108A ′ of the plane valve 10A ′, and the twelfth communication passage 10012A is respectively connected with the inner cavity 110A of the valve body 11A ′ ( Or the first opening 1101A) communicates with the sixth opening 1106A, thereby allowing raw water to flow from the first opening 1101A of the valve body 11A ′ into the inner cavity 110A of the valve body 11A ′, and then pass through the twelfth
  • the communication channel 10012A flows into the sixth opening 1106A, and then enters the second communication opening 202 of the purification device 20.
  • the communication opening 201 flows out, then flows through the fifth opening 1105A of the valve body 11A ′, flows into the tenth communication passage 10010A ′, and then flows out from the drain opening 1108A ′ of the plane valve 10A ′; Purification-demineralized water treatment system of the preferred embodiment
  • the eleventh communication passage 10011A formed by the plane valve 10A ′ is in communication with the inner cavity 110A (or the first opening 1101A) and the third opening 1103A of the valve body 11A ′, respectively.
  • the thirteenth communication passage 10013A communicates with the seventh opening 1107A and the fourth opening 1104A of the valve body 11A ′, and the fourteenth communication passage 10014A ′ communicates with the sixth opening of the valve body 11A ′, respectively.
  • 1106A communicates with the drain opening 1108A ′ of the plane valve 10A ′, thereby allowing raw water to flow from the first opening 1101A of the valve body 11A ′ into the inner cavity 110A of the valve body 11A ′, and then pass through the eleventh
  • the communication channel 10011A flows into the third opening 1103A, and then flows into the ejection port 321 of the ejector 32.
  • the liquid from the salt tank 33 After passing through the ejector 32, the liquid from the salt tank 33 is mixed, and then flows in through the ejection inlet 322 of the ejector 32.
  • the fourth opening 1104A of the valve body 11A ′ then flows into the seventh opening 1107A through the thirteenth communication passage 10013A, enters the second conduction opening 302 of the softening box 31, and regenerates the After softening the resin, 301 effluent, which then flows through valve 11A 'flows into the sixth opening 1106A of the fourteenth communication channel 10014A', then the valve 10A from the plane 'of the discharge opening 1108A' flows.
  • the sixth working state of the purification-demineralized water treatment system corresponds to the backwashing working state of the purification device of the purification-demineralized water treatment system
  • the seventh working state of the purification-demineralized water treatment system corresponds to the purification -The softening filter element (softening device) of the softening water treatment system regenerates the working state.
  • the moving valve disc 13A ′ and the fixed valve disc 12A ′ of the plane valve 10A ′ form one with the valve body, respectively.
  • the purification-demineralization water treatment system further has a water supply unit 40, wherein the water supply unit 40 forms a water supply passage. 400, wherein the water supply path 400 is provided in communication with the second communication opening 202 of the purification device 20 to provide clean water to a user.
  • the water supply unit 40 includes a water purification pipe (or water purification pipe) 41 and a fluid valve 42, wherein the fluid valve 42 is provided in the water purification pipe 41 to control Provide users with clean water. It can be understood that the water purification pipe 41 forms the water supply outlet 401.
  • the fluid valve 42 is an electric ball valve or an electric plane valve, so that the user can automatically control the supply of purified water through a control device 16A. Therefore, the second communication opening 202 of the purification device 20 and the sixth opening 1106A of the plane valve 10A ′, the first conduction opening 301 of the softening box 31, and the water supply passage 400 (or the water supply outlet 401, respectively) ) Connected. In addition, the sixth opening 1106A of the plane valve 10A ′ is further communicated with the first conducting opening 301 of the softening box 31.
  • the plane valve 10A ′ of the purification-demineralizing water treatment system has a first passage 101A, a second passage 102A, and a third Channel 103A, a fourth channel 104A, a fifth channel 105A, a sixth channel 106A, a seventh channel 107A, an eighth channel 108A, a ninth channel 109A, a tenth channel 1010A, and an eleventh channel 1011A ′ and a twelfth channel 1012A ′, wherein the first channel 101A, the second channel 102A, the third channel 103A, the fourth channel 104A, the fifth channel 105A, the sixth channel 106A, the first channel Seven channels 107A, the eighth channel 108A, and the twelfth channel 1012A ′ are respectively provided on the fixed valve disc 12A ′ and extend from the first fluid control surface 120A of the fixed valve disc 12A ′
  • the third channel 103A and the fourth channel 104A are in communication with the seventh opening 1107A
  • the fifth channel 105A is in communication with the second opening 1102A
  • the sixth channel 106A is in communication with the third opening 1103A.
  • the seventh channel 107A is in communication with the fourth opening 1104A
  • the eighth channel 108A is in communication with the sixth opening 1106A
  • the ninth channel 109A is in communication with the inner cavity 110A of the valve body 11A ′
  • An eleven channel 1011A ′ is in communication with the twelfth channel 1012A ′
  • the twelfth channel 1012A ′ is in communication with the sewage opening 1108A ′.
  • the communication between the second communication opening 202 of the purification device 20 and the first communication opening 301 of the softening box 31 and the sixth opening 1106A of the valve body 11A ′ can be achieved in various ways.
  • the sixth opening 1106A of the valve body 11A ′ may be connected to the second communication opening 202 of the purification device 20 and the first conduction opening 301 of the softening box 31 respectively.
  • the communication pipe (or three-way pipe) communicates with the second communication opening 202 of the purification device 20, the first communication opening 301 of the softening box 31, and the sixth opening 1106 of the valve body 11 '. Connectivity.
  • the communication between the second communication opening 202 of the purification device 20 and the first communication opening 301 of the softening box 31 and the sixth opening 1106A of the valve body 11A ′ may also be provided through the valve.
  • the communication passage of the body 11 ′ is realized, wherein the communication passage may be provided to communicate with the second communication opening 202 of the purification device 20 and the sixth opening 1106A of the valve body 11A, and respectively with the softening box 31.
  • the first conducting opening 301 communicates with the sixth opening 1106A of the valve body 11A ′.
  • the eighth passage 108A of the valve body 11A ′, the second communication opening 202 of the purification device 20 and the first conduction opening 301 of the softening box 31 pass through the sixth opening 1106A of the valve body 11A ′.
  • Form a three-way structure in order to ensure that water in the inner cavity 110A of the valve body 11A ′ enters the ninth channel 109A of the plane valve 10A ′, the ninth channel 109A is provided through a water inlet 1091A that is always in communication with the external space. It is always in communication with the inner cavity 110A of the valve body 11A ′.
  • first passage 101A and the second passage 102A of the plane valve 10A ′ are respectively communicated with the fifth opening 1105A, and may be separately and independently communicated with the fifth opening 1105A, or may be Communicating through a fluid channel;
  • the third channel 103A and the fourth channel 104A of the plane valve 10A ′ are respectively connected to the seventh opening 1107A, and may be separately and independently connected to the seventh opening 1107A, It can also communicate through a fluid channel.
  • the first passage 101A and the second passage 102A of the plane valve 10A ′ are communicated through a first fluid passage 1211A, and the second passage 102A is set to directly communicate with
  • the fifth opening 1105A is in communication, so that the first passage 101A is also in communication with the fifth opening 1105A through the first fluid passage 1211A and the second passage 102A; the third passage 103A of the plane valve 10A ′ And the fourth channel 104A are respectively communicated with the seventh opening 1107A.
  • the first channel 101A is provided to directly communicate with the fifth opening 1105A, and the second channel 102A passes through the first fluid channel 1211A and the first channel 101A, and also communicates with the first channel 101A.
  • the fifth opening 1105A is communicated.
  • the first passage 101A and the second passage 102A of the plane valve 10A ′ may communicate with the fifth opening 1105A separately and independently; or alternatively, as shown in FIG.
  • the third passage 103A and the fourth passage 104A of the plane valve 10A ′ communicate with each other through a second fluid passage 1212A, and the third passage 103A is arranged to directly communicate with the seventh opening 1107A, so that the fourth passage
  • the passage 104A is also in communication with the seventh opening 1107A through the second fluid passage 1212A and the third passage 103A; or alternatively, as shown in FIG.
  • the third passage of the plane valve 10A ′ 103A is in communication with the fourth channel 104A through a second fluid channel 1212A, and the fourth channel 104A is configured to directly communicate with the seventh opening 1107A, so that the third channel 103A passes through the second fluid channel 1212A and the The fourth channel 104A is also in communication with the seventh opening 1107A.
  • the first fluid passage 1211A and the second fluid passage 1212A may be disposed on the first fluid control surface 120A of the fixed valve disc 12A ′, or may be disposed on the valve body 11A ′ or the The inside of the fixed valve disc 12A ′.
  • first passage 101A and the second passage 102A of the plane valve 10A ′ communicate with the fifth opening 1105A
  • the third passage 103A and the fourth passage 104A of the plane valve 10A ′ communicate with the fifth opening 1105A, respectively.
  • the communication of the seventh opening 1107A may also be by other means.
  • the moving valve disc 13A ′ of the plane valve 10A ′ of the purification-demineralized water treatment system can be rotated relative to the fixed valve disc 12A ′ to thereby
  • the plane valve 10A ′ has a first working position, a second working position, a third working position, a fourth working position, and a fifth working position, wherein when the plane valve 10A ′ is in the first working position
  • the ninth channel 109A of the plane valve 10A ′ communicates with the first channel 101A
  • the tenth channel 1010A communicates with the third channel 103A and the fifth channel 105A, respectively
  • the ninth channel 109A of the plane valve 10A ′ is in communication with the fourth channel 104A
  • the eleventh channel 1011A ′ is connected to the eighth channel 108A and the twelfth channel 1012A ′
  • the fifth channel 105A is in communication with the inner cavity 110A of the valve body 11A; when the plane valve 10A ′ is in the third working position, the ninth channel 109A and the eighth channel of the plane valve 10A ′ 108A communicates with the eleventh channel 1011A ′ of the plane valve 10A ′ Do not communicate with the third channel 103A and the twelfth channel 1012A ′, the fifth channel 105A communicates with the inner cavity 110A of the valve body 11A; when the plane valve 10A ′ is in the fourth working position, The ninth channel 109A of the plane valve 10A ′ communicates with the seventh channel 107A, the fifth channel 105A communicates with the inner cavity 110A of the valve body 11A; when the plane valve 10A ′ is in the fifth working position At this time, the ninth channel 109A of the plane valve 10A ′ is in communication with the second channel 102A, and the eleventh channel 1011A ′ of the plane valve 10A ′ is connected to the eighth channel 108A and
  • the plane valve 10A ′ of the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention further has a sixth working position and a seventh working position.
  • the eleventh channel 1011A ′ of the plane valve 10A ′ communicates with the first channel 101A and the twelfth channel 1012A ′, respectively, and the fifth channel 105A and The internal cavity 110A of the valve body 11A ′ is in communication;
  • the ninth passage 109A of the plane valve 10A ′ is in communication with the sixth passage 106A, and the fifth passage 105A is in communication with the inner cavity 110A of the valve body 11A.
  • the eighth channel 108A is in communication with the ninth channel 109A
  • the tenth channel 1010A is in communication with the fourth channel 104A and the seventh channel 107A
  • the eleventh channel 1011A ′ is in communication with the eighth channel 108A and the twelfth channel 1012A ′, respectively.
  • the purification-softening water treatment system when the plane valve 10A ′ is in the first working position, the purification-softening water treatment system according to the second preferred embodiment of the present invention is controlled to be in the purification-softening working state.
  • the ninth channel 109A communicates with the first channel 101A to form the first communication channel 1001A, and the tenth channel 1010A communicates with the third channel 103A and the fifth channel 105A, respectively, thereby forming the second communication.
  • the ninth channel 109A of the plane valve 10A ′ communicates with the fourth channel 104A to form the third communication channel 1003A.
  • the eleventh channel 1011A ′ is connected to the eighth channel 108A and the twelfth channel 1012A ′, respectively.
  • the purification-demineralized water treatment system is controlled at the softened filter element (soften (Device) is in a washing state, the ninth channel 109A of the plane valve 10A ′ communicates with the eighth channel 108A, thereby forming the fifth communication channel 1005A, and the eleventh channel 1011A ′ of the plane valve 10A ′, respectively Communicates with the third channel 103A and the twelfth channel 1012A ′, thereby forming the sixth communication channel 1006A ′; when the plane valve 10A ′ is in the fourth working position, according to the second preferred embodiment of the present invention
  • the purified-demineralized water treatment system is controlled to be in the state of replenishment of the salt solution tank.
  • the ninth channel 109A of the plane valve 10A ′ communicates with the seventh channel 107A, thereby forming the seventh communication channel 1007A; the plane When the valve 10A ′ is in the fifth working position, the ninth channel of the plane valve 10A ′ is controlled when the purification-demineralized water treatment system according to the second preferred embodiment of the present invention is controlled to be in the forward washing operation state of the purification device.
  • 109A communicates with the second channel 102A to form the eighth communication channel 1008A.
  • the eleventh channel 1011A ′ of the plane valve 10A ′ communicates with the eighth channel 108A and the twelfth channel 1012A ′, respectively. Thereby forming the ninth Through passage 1009A '.
  • the purification-demineralized water treatment system according to the second preferred embodiment of the present invention is controlled to be in a backwashing working state of the purification device.
  • the plane valve 10A ′ The eleventh channel 1011A ′ is in communication with the first channel 101A and the twelfth channel 1012A ′, respectively, thereby forming the tenth communication channel 10010A ′; when the plane valve 10A ′ is in the seventh working position, The purification-demineralized water treatment system according to the second preferred embodiment of the present invention is controlled to be in the softened filter element regeneration working state.
  • the ninth channel 109A of the plane valve 10A ′ communicates with the sixth channel 106A, thereby forming the The eleventh communication passage 10011A. Furthermore, when the plane valve 10A ′ is in the sixth working position, the eighth channel 108A is in communication with the ninth channel 109A, thereby forming the twelfth communication channel 10012A; when the plane valve 10A ′ is in the In the seventh working position, the tenth channel 1010A communicates with the fourth channel 104A and the seventh channel 107A, respectively, thereby forming the thirteenth communication channel 10013A, and the eleventh channel 1011A ′ and the eighth channel, respectively.
  • the 108A is in communication with the twelfth channel 1012A ′, thereby forming the fourteenth communication channel 10014A ′.
  • the eleventh channel 1011A ′ may be a conduction blind hole or a conduction groove provided on the second fluid control surface 130A of the moving valve disc 13A ′ to communicate with the fixed valve at a corresponding working position.
  • the different channels of the slice 12A ′ for example, communicate (or conduct) the eighth channel 108A and the twelfth channel 1012A ′ in the second working position.
  • FIGS. 63A to 73G of the drawings correspondingly, when the plane valve 10A ′ is in the first working position, the water treatment machine is in a purifying-softening working state, and raw water comes from the first of the valve body 11A ′.
  • the opening 1101A flows into the inner cavity 110A of the valve body 11A ′, and then flows through the ninth channel 109A of the moving valve disc 13A ′ into the first channel 101A of the fixed valve disc 12A ′, and then passes through the valve body 11A ′.
  • the fifth opening 1105A enters the first communication opening 201 of the purification device 20, after being treated by the water treatment material or mechanism of the purification device 20, flows out from the second communication opening 202 of the purification device 20, and then flows into the
  • the first conducting opening 301 of the softening box 31 is treated by the softening resin in the softening box 31, flows out from the second conducting opening 302 of the softening box 31, and then flows through the first conducting opening of the valve body 11A ′.
  • the second opening 1102A of the body 11A ′ supplies the treated water to the user;
  • the water treatment machine is in a backwashing state of the softening filter element (softening device), and raw water flows into the valve body 11A ′ from the first opening 1101A of the valve body 11A ′.
  • the inner cavity 110A then flows into the fourth passage 104A of the fixed valve disc 12A ′ through the ninth passage 109A of the moving valve disc 13A ′, and then enters the softening box through the seventh opening 1107A of the valve body 11A ′.
  • the second conducting opening 302 of 31 is flushed back from the softening resin in the softening box 31, flows out from the first conducting opening 301 of the softening box 31, and then flows through the first conducting opening 301 of the valve body 11A ′.
  • the water treatment machine is in the washing state of the softening filter element (softening device), and the raw water is
  • the first opening 1101A of the valve body 11A ′ flows into the inner cavity 110A of the valve body 11A ′, and then flows into the eighth channel 108A of the fixed valve plate 12A ′ through the ninth channel 109A of the moving valve disc 13A ′.
  • the sixth opening 1106A of the valve body 11A ′ enter the first conducting opening 301 of the softening box 31, flush the softened resin in the softening box 31 forward, and then remove the softening resin from the first opening of the softening box 31.
  • the two conduction openings 302 flow out, then flow through the seventh opening 1107A of the valve body 11A ′, and then flow through the third passage 103A of the fixed valve disc 12A ′ and the eleventh passage of the moving valve disc 13A ′.
  • 1011A ′ and the twelfth channel 1012A ′ and then flows out from the drain opening 1108A ′ of the plane valve 10A ′, and at the same time raw water can also flow through the fifth channel 105A of the fixed valve disc 12A to the valve body 11A.
  • Second opening 1102 when the plane valve 10A ′ is in the fourth working position, the water treatment machine is in a state of replenishing the salt solution tank, and raw water flows from the first opening 1101A of the valve body 11A ′ to the valve body 11A ′
  • the internal cavity 110A and then flows into the fixed valve through the ninth channel 109A of the moving valve disc 13A ′
  • the seventh channel 107A of the sheet 12A ′ then flows through the fourth opening 1104A of the valve body 11A ′ and flows into the injection inlet 322 of the ejector 32 to replenish the salt solution tank 33, and the raw water can also pass through the fixed valve.
  • the fifth channel 105A of the sheet 12A flows to the second opening 1102 of the valve body 11A; when the plane valve 10A ′ is in the fifth working position, the water treatment machine is in the forward washing working state of the purification device, and raw water comes from the valve
  • the first opening 1101A of the body 11A ′ flows into the inner cavity 110A of the valve body 11A ′, and then flows into the second channel 102A of the fixed valve disc 12A ′ through the ninth channel 109A of the moving valve disc 13A ′, Then through the fifth opening 1105A of the valve body 11A ′ and enter the first communication opening 201 of the purification device 20, after the water treatment material or mechanism in the purification device 20 is flushed forward,
  • the second communication opening 202 flows out, then flows through the sixth opening 1106A of the valve body 11A ′, enters the eighth passage 108A of the fixed valve disc 12A ′, and then flows through the eleventh passage of the moving valve disc 13A.
  • the internal cavity 110A then flows into the eighth channel 108A of the fixed valve disc 12A ′ through the ninth channel 109A of the moving valve disc 13A ′, and then enters the purification device 20 through the sixth opening 1106A of the valve body 11A ′.
  • the second communication opening 202 flows out from the first communication opening 201 of the purification device 20 and then flows through the first communication opening 201 of the valve body 11A ′.
  • the eleventh channel 1011A ′ and the twelfth channel 1012A ′, and then, from the plane valve 10A ′ Discharge openings 1108A 'flows, while raw water flows to the valve element 105A can be further 11A of the fifth passage through the fixed valve plate 12A of the second opening 1102.
  • the tenth channel 1010A of the plane valve 10A ′ communicates with the third channel 103A and the fifth channel 105A, respectively, and the plane valve 10A ′
  • the moving valve disc 13A separates the fifth channel 105A from the internal cavity 110A of the valve body 11A ′, so as to prevent raw water in the internal cavity 110A of the valve body 11A ′ from entering the fifth channel 105A.
  • the purification-demineralization water treatment system according to the second preferred embodiment of the present invention is in the second work position, the third work position, and the fourth work Position, the fifth working position, the sixth working position and the seventh working position, the fifth passage 105A of the fixed valve disc 12A ′ of the plane valve 10A ′ and the inner cavity 110A of the valve body 11A ′ They communicate with each other to form the fifteenth communication passage 10015A.
  • the purification-demineralizing water treatment system when the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention is in the second work position, the third work position, the fourth work position, the fifth work position, and the sixth work And the seventh working position, raw water is allowed to flow from the first opening 1101A of the valve body 11A ′ into the inner cavity 110A of the valve body 11A ′, and further pass from the inner cavity 110A of the valve body 11A through the The fifth passage 105A of the fixed valve disc 12A ′ flows to the second opening 1102A of the valve body 11A ′.
  • the second passage 102A, the fourth passage 104A, and the eighth passage of the plane valve 10A ′ 108A are respectively closed by the moving valve disc 13A ′;
  • the first passage 101A and the third passage 103A of the plane valve 10A ′ are respectively closed by the moving valve disc 13A ′ ;
  • the second channel 102A and the fourth channel 104A of the plane valve 10A ′ are closed by the moving valve disc 13A ′;
  • the sixth passage 106A of the plane valve 10A ′ is closed by the moving valve disc 13A ′;
  • the sixth channel 106A and the seventh channel 107A of the plane valve 10A ′ are respectively moved by the movable valve.
  • the valve plate 13A ′ is closed; when the plane valve 10A ′ is in the third working position, the tenth passage 1010A is communicated with the first passage 101A and the eighth passage 108A, respectively, and the sixth passage of the plane valve 10A ′ 106A and the seventh channel 107A are respectively closed by the moving valve disc 13A ′; when the plane valve 10A ′ is in the fourth working position, the first channel 101A and the third channel 103A of the plane valve 10A ′ are moved by the moving The valve plate 13A ′ is closed; when the plane valve 10A ′ is in the fifth working position, the sixth channel 106A and the seventh channel 107A of the plane valve 10A ′ are closed by the moving valve plate 13A ′, respectively; when the plane valve When 10A ′ is in the sixth working position, the tenth passage 1010A of the plane valve 10A ′ communicates with the eighth passage 108A, and the sixth passage 106A and the seventh passage 107A of the plane valve 10A ′ are respectively moved
  • the sixth channel 106A and the seventh channel 107 of the plane valve 10A ′ are respectively moved by the movable valve.
  • the valve plate 13A ′ is closed, and the eleventh channel 1011A ′ is in communication with the twelfth channel 1012A ′; when the plane valve 10A ′ is in the second working position, the tenth channel 1010A of the plane valve 10A ′ is respectively connected with The second channel 102A is in communication with the eighth channel 108A; when the plane valve 10A ′ is in the fourth working position, the tenth channel 1010A of the plane valve 10A ′ is respectively connected with the second channel 102A and the fourth channel 104A is in communication, the eleventh channel 1011A ′ is in communication with the eighth channel 108A and the twelfth channel 1012A ′, respectively; when the plane valve 10A ′ is in the fifth working position, the first The ten-channel 1010A is in communication with the eighth channel 108A.
  • the passages herein are closed, which means that the corresponding passages are formed in the first of the fixed valve disc 12A (or the fixed valve disc 12A ′) of the plane valve 10A.
  • the passage opening of the fluid control surface 120A and the second fluid control surface 130A of the moving valve disc 13A (or the moving valve disc 13A ′) is at a specific working position (or working state of the water treatment system) of the plane valve 10A, and is The solid part of the moving valve disc 13A and the fixed valve disc 12A are covered, so that the corresponding channels cannot communicate with each other through the channel opening.
  • the solid part of the moving valve disc 13A is directly formed in the sixth passage 106A and the seventh passage 107A of the plane valve 10A at the first position of the fixed valve disc 12A.
  • the passage of the fluid control surface 120A is opened, so that the sixth passage 106A and the seventh passage 107A of the plane valve 10A are closed (or blocked) by the moving valve disc 13A.
  • the communication between the channel provided in the moving valve disc 13A and the channel provided in the fixed valve disc 12A herein refers to the specific working position of the plane valve 10A (or the work of the water treatment system).
  • the passage provided in the moving valve disc 13A is formed in the passage opening of the second fluid control surface 130A of the moving valve disc 13A and the passage provided in the fixed valve disc 12A forms the first of the fixed valve disc 12A.
  • the passage openings of a fluid control surface 120A are selectively partially or exactly aligned and form a water flow path through which water flows. For example, when the plane valve 10A is in the first working position, the passage opening of the ninth passage 109A of the plane valve 10A is aligned with the passage opening of the first passage 101A, so that the two communicate with each other and form the first Connected channel 1001A.
  • first passage 101A, the second passage 102A, the third passage 103A, the fourth passage 104A, the fifth passage 105A, the sixth passage 106A, and the seventh passage of the plane valve 10A ′ 107A, the eighth channel 108A and the twelfth channel 1012A ′ are respectively provided on the first fluid control surface 120A of the fixed valve disc 12A ′; the ninth channel 109A, the tenth channel 1010A and the Eleventh channels 1011A ′ are respectively provided on the second fluid control surface 130A of the moving valve disc 13A ′.
  • the first passage 101A, the eighth passage 108A, and the second passage 10A ′ of the plane valve 10A ′ of the purification-demineralization water treatment system according to the second preferred embodiment of the present invention
  • the channel 102A, the fourth channel 104A, the seventh channel 107A, the sixth channel 106A, the third channel 103A, and the fifth channel 105A are arranged clockwise on the fixed valve disc 12A ′ in this order;
  • the eleventh passage 1011A ′, the tenth passage 1010A, and the ninth passage 109A of the valve 10A ′ are arranged clockwise on the moving valve disc 13A ′ in this order.
  • the first passage 101A, the eighth passage 108A, the second passage 102A, the fourth passage 104A, the seventh passage 107A, the sixth passage 106A, and the third passage of the plane valve 10A ′ 103A and the fifth channel 105A are arranged counterclockwise on the fixed valve disc 12A ′; the eleventh channel 1011A ′, the tenth channel 1010A, and the ninth channel 109A of the plane valve 10A ′ are arranged in this order.
  • the moving valve discs 13A ′ are sequentially arranged counterclockwise.
  • the fixed valve disc 12A ′ of the flat valve 10A ′ of the purification-demineralized water treatment system has a first central portion 121A, a A first extending portion 122A extending outward from the first central portion 121A and a first edge portion 123A extending outward from the first extending portion 122A.
  • the moving valve disc 13A ′ has a second central portion 131A, a A second extension portion 132A extending outward from the second central portion 131A and a second edge portion 133A extending outward from the second extension portion 132A, wherein the first fluid control surface 120A of the fixed valve disc 12A ′
  • the parts are divided clockwise into a first part 1201A, a second part 1202A, a third part 1203A, a fourth part 1204A, a fifth part 1205A, a sixth part 1206A, and a Seventh part 1207A, one eighth part 120 8A, a ninth part 1209A, a tenth part 12010A, and an eleventh part 12011A; the second fluid control surface 130A
  • the second fluid control surface 130A of the moving valve disc 13A ′ when the second fluid control surface 130A of the moving valve disc 13A ′ is disposed on the first fluid control surface 120A of the fixed valve disc 12A ′, the second fluid control surface of the moving valve disc 13A ′
  • the second central portion 131A of 130A faces the first central portion 121A of the first fluid control surface 120A of the fixed valve disc 12A ′, and the second of the second fluid control surface 130A of the movable valve disc 13A ′.
  • the extension portion 132A faces the first extension portion 122A of the first fluid control surface 120E of the fixed valve disc 12A ′, and the second edge portion 133A of the second fluid control surface 130A of the movable valve disc 13A ′.
  • the first fluid control surface 120A of the fixed valve disc 12A ′ of the plane valve 10A ′ and the second fluid control surface 130A of the movable valve disc 13A ′ are both circular, the first passage 101A, the second The channel 102A, the third channel 103A, the fourth channel 104A, the fifth channel 105A, the sixth channel 106A, the seventh channel 107A, and the eighth channel 108A are all provided on the fixed valve disc 12A ′ in the radial direction.
  • the first fluid control surface 120A, and the ninth channel 109A and the tenth channel 1010A are both disposed on the second fluid control surface 130A of the moving valve disc 13A ′ in the radial direction.
  • the first channel 101A, the second channel 102A, the third channel 103A, the fourth channel 104A, the fifth channel 105A, the sixth channel 106A, and the seventh channel of the plane valve 10 ' 107A, the eighth channel 108A and the twelfth channel 1012A ′ form a channel opening respectively disposed on the first fluid control surface 120A of the fixed valve disc 12A ′, the ninth channel 109A, and the tenth channel 1010A
  • the eleventh channel 1011A ′ respectively form a channel opening provided on the second fluid control surface 130A of the moving valve disc 13A ′, and when the moving valve disc 13A ′ of the plane valve 10A is faced (the second The fluid control surface 130A) is disposed opposite to the first fluid control surface 120A, and when the moving valve disc 13A ′ is rotated relative to the fixed valve disc 12A ′, it is provided in the passage of the moving valve disc 13A ′ and is disposed in the The channels of the fixed valve disc 12A ′ are selective
  • first channel 101A, the second channel 102A, the third channel 103A, the fourth channel 104A, the fifth channel 105A, the sixth channel 106A, and the seventh channel 107A of the plane valve 10A ′ The eighth channel 108A, the ninth channel 109A, the tenth channel 1010A, the eleventh channel 1011A ′, and the twelfth channel 1012A ′ may have any extension path (or direction) capable of achieving the mutual connection relationship herein.
  • the eighth passage 108A and the twelfth passage 1012A ′ are respectively formed in the passage openings of the first fluid control surface 120A of the fixed valve disc 12A ′, and the ninth passage 109A, the tenth passage 1010A, and the tenth passage A channel 1011A ′ is respectively formed in the channel opening of the second fluid control surface 130A of the moving valve disc 13A ′, and may have any shape capable of achieving the mutual communication relationship herein.
  • the first channel 101A, the second channel 102A, the third channel 103A, the fourth channel 104A, the fifth channel 105A, the sixth channel 106A, the seventh channel 107A, the The extension path (or direction) of the eighth channel 108A, the twelfth channel 1012A ′, the ninth channel 109A, the tenth channel 1010A, and the eleventh channel 1011A ′, and the shape of the channel openings should not be construed as a limitation to the invention limits.
  • the seventh channel 107A and the eighth channel 108A are respectively provided on the first extension 122A of the first fluid control surface 120A of the fixed valve disc 12A ′, and the fifth channel 105A is provided on the first fluid control
  • the first edge portion 123A of the surface 120A extends inward from the first edge portion 123A. More preferably, the fifth channel 105A is disposed at the first edge portion 123A of the first fluid control surface 120A and extends inward from the first edge portion 123A to the first extension of the first fluid control surface 120A. ⁇ 122A.
  • the ninth channel 109A of the plane valve 10A ′ is disposed on the second extension portion 132A of the second fluid control surface 130A of the moving valve disc 13A ′.
  • the eleventh channel 1011A extends from the central region 1300A of the second fluid control surface 130A of the movable valve disc 13A ′ to the second extension 132A of the second fluid control surface 130A, and the tenth channel 1010A is The second edge portion 133A of the second fluid control surface 130A of the moving valve disc 13A ′ is extended inward from the second edge portion 133A to the second extension portion 132A.
  • the valve body 11A ′ of the plane valve 10A ′ of the purification-demineralization water treatment system has an inner wall 111A, wherein the fixed valve disc 12A ′ is adapted to be disposed in the inner cavity 110A with the first fluid control surface 120A facing upward, and the moving valve disc 13A ′ is adapted to be disposed in the inner cavity 110A with the second fluid control surface 130A facing downward, in which the inner cavity 110A is always in communication with the ninth channel 109A.
  • the fixed valve disc 12A ′ of the plane valve 10A ′ may be detachably disposed on the inner wall 111A of the valve body 11A ′, or may be connected to the inner wall of the valve body 11A ′ of the plane valve 10A ′.
  • 111A phase is integrally molded.
  • the fixed valve disc 12A ′ has a stopper 123A protruding outward from the edge of the fixed valve disc 12A ′, and the inner wall 111A of the valve body 11A ′ has A brake groove 1110A, in which the brake piece 123A of the fixed valve disc 12A ′ is provided to be able to engage with the brake groove 1110A of the inner wall 111A of the valve body 11A ′ to ensure that the fixed valve disc 12A ′ and
  • the valve bodies 11A ′ are synchronized with each other (or no relative rotation occurs) and ensure that each passageway provided in the fixed valve disc 12A ′ communicates with a corresponding opening provided in the valve body 11A ′.
  • the fixed valve disc 12A ′ when the fixed valve disc 12A ′ is detachably disposed in the valve body 11A ′, the fixed valve disc 12A ′ may be manufactured separately. In other words, at this time, the fixed valve disc 12A ′ may be made of a wear-resistant material, thereby improving the service life of the fixed valve disc 12A ′ (or the entire flat valve).
  • the plane valve 10A ′ of the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention further includes a driving element 18A extending upward from the moving valve disc 13A ′.
  • the driving element 18A is provided to be able to drive the moving valve disc 13A ′ of the flat valve 10A ′ to rotate relative to the fixed valve disc 12A ′.
  • the plane valve 10A ′ of the purification-demineralization water treatment system further includes a sealing element 17A, wherein the sealing element 17A is provided in connection with The driving element 18A faces each other, wherein the sealing element 17A forms a first sealing surface 170A, the driving element 18A forms a second sealing surface 180A, and the first sealing surface 170A of the sealing element 17A is disposed on the driving element 18A 180A of the second sealing surface, so that when the driving element 18A rotates relative to the sealing element 17A to drive the moving valve disc 13A ′ relative to the fixed valve disc 12A ′, the driving element 18A and the sealing element 17A The room is sealed and prevents water leakage.
  • the sealing element 17A is provided to keep the driving element 18A in a proper position, so as to keep the moving valve disc 13A ′ in a preset position.
  • the diameter of the moving valve disc 13A ′ of the plane valve 10A ′ of the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention is set slightly smaller than the valve body.
  • the control device 16A of the plane valve 10A ′ of the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention is set to be capable of responding to a purification-softening control instruction,
  • a transmission mechanism 14A such as a transmission gear
  • the driving element 18A is driven to rotate, so that the moving valve disc 13A ′ of the plane valve 10A ′ is rotated relative to the fixed valve disc 12A ′, so as to form a plane valve 10A ′, respectively.
  • the first communication opening 201 of 20 flows into the purification device 20, and purified water obtained after the raw water is purified by the purification device 20 flows out from the second communication opening 202 of the purification device 20, and the purified water can pass through the softening box 31.
  • the first turn on The port 301 flows into the softening box 31, and softened water is obtained after the softening treatment.
  • the softened water flows out from the second conducting opening 302 of the softening box 31, and then passes through the seventh opening 1107A of the valve body 11A ′, the plane
  • the second communication channel 1002A of the valve 10A ′ flows out through the second opening 1102A of the valve body 11A ′ and supplies softened water to the user; according to a softening filter (softening device) backwash control command, the transmission mechanism 14A is passed As a transmission gear, the driving element 18A is driven to rotate to drive the moving valve disc 13A ′ of the plane valve 10A ′ relative to the fixed valve disc 12A ′, so as to form a valve body 11A respectively corresponding to the plane valve 10A ′.
  • a softening filter softening device
  • the fourth communication passage 1004A ′ allows raw water to flow from the first opening 1101A of the valve body 11A ′ into the inner cavity 110A of the valve body 11A ′, and then passes through the third communication passage 1003A formed by the plane valve 10A ′.
  • the softening material (or water treatment material) in the softening box 31, such as softening resin is backwashed to obtain Sewage or waste water flows from the first conduction opening 301 of the softening tank 31, then flows through the sixth opening 1106A of the valve body 11A ′, and flows into the fourth communication passage 1004A ′ of the plane valve 10A ′, and then from The drain opening 1108A ′ of the plane valve 10A ′ flows out, and at the same time, a fifteenth communication channel 10015A is formed to communicate with the second opening 1102A of the valve body 11A ′ and the inner cavity 110A, respectively, to allow raw water to flow from The first opening 1101A of the valve body 11A ′ flows into the inner cavity 110A of the valve body 11A ′, and then flows into the second opening 1102A of the valve body 11A ′ through the fifteenth communication passage 100
  • the driving mechanism 18A is driven to rotate by the transmission mechanism 14A, such as a transmission gear, to drive the moving valve plate 13A ′ of the plane valve 10A ′ relative to the fixed valve
  • the sheet 12A ′ rotates to form a A fifth communication channel 1005A communicating with the inner cavity 110A and the sixth opening 1106A of the valve body 11A ′ and a seventh opening 1107A of the valve body 11A ′ and the plane valve 10A ′ respectively.
  • the sixth communication passage 1006A ′ communicating with the sewage discharge opening 1108A ′ allows raw water to flow from the first opening 1101A of the valve body 11A ′ into the inner cavity 110A of the valve body 11A ′, and then passes through the fifth communication passage 1005A. It flows into the sixth opening 1106A, and then enters the first conduction opening 301 of the softening tank 31. After the water treatment material or mechanism in the softening tank 31 is flushed forward, the second conduction from the softening tank 31 is conducted.
  • the opening 302 flows out, then flows through the seventh opening 1107A of the valve body 11A ′ and flows into the sixth communication passage 1006A ′, and then flows out from the drain opening 1108A ′ of the plane valve 10A ′, and at the same time, a separate connection is formed with the A fifteenth communication passage 10015A connecting the second opening 1102A of the valve body 11A ′ and the inner cavity 110A to allow raw water to flow from the first opening 1101A of the valve body 11A ′ into the inside of the valve body 11A ′.
  • the moving valve disc 13A ′ is rotated relative to the fixed valve disc 12A ′, so as to form a seventh communication channel 1007A that communicates with the inner cavity 110A and the fourth opening 1104A of the valve body 11A ′, respectively, so as to allow raw water to pass through.
  • the first opening 1101A of the valve body 11A ′ flows into the inner cavity 110A of the valve body 11A ′, then flows into the fourth opening 1104A through the seventh communication passage 1007A, and then flows into the injection inlet 322 of the ejector 32 To replenish water to the salt tank 33, and at the same time, a fifteenth communication channel 10015A communicating with the second opening 1102A and the inner cavity 110A of the valve body 11A ′ is formed to allow raw water to pass from the valve body 11A ′
  • the first opening 1101A flows into the inner cavity 110A of the valve body 11A ′, and then flows into the second opening 1102A of the valve body 11A ′ through the fifteenth communication passage 10015A to provide the user with raw water; according to a purification Device is washing and controlling Instruction, through the transmission mechanism 14A, such as a transmission gear, to drive the driving element 18A to rotate, to drive the moving valve disc 13A ′ of the plane valve 10A ′ relative to the fixed valve disc 12A ′, thereby
  • the ninth communication passage 1009A ′ allows raw water to flow from the first opening 1101A of the valve body 11A ′ into the inner cavity 110A of the valve body 11A ′, and then flows into the fifth opening 1105A through the eighth communication passage 1008A. Then, it enters the first communication opening 201 of the purification device 20, flushes the water treatment material or mechanism in the purification device 20 forward, flows out from the second communication opening 202 of the purification device 20, and then flows through the The sixth opening 1106A of the valve body 11A ′ flows into the ninth communication passage 1009A ′, and then flows out of the drain opening 1108A ′ of the plane valve 10A ′. At the same time, a second one is formed separately from the valve body 11A ′.
  • the second opening 1102A flowing into the valve body 11A ′ provides the user with raw water.
  • the control device 16A of the plane valve 10A ′ of the purification-demineralized water treatment system according to the second preferred embodiment of the present invention is further provided with a backwash control according to a purification device Instruction, through the transmission mechanism 14A, such as a transmission gear, to drive the driving element 18A to rotate, to drive the moving valve disc 13A ′ of the plane valve 10A ′ relative to the fixed valve disc 12A ′, thereby forming a separate valve body
  • the fifth opening 1105A of 11A ′ and the drain opening 1108A ′ of the plane valve 10A ′ are connected to a tenth communication passage 10010A ′ and a cavity 110A and a sixth opening 1106A of the valve body 11A ′ are connected respectively.
  • the opening 1106A enters the second communication opening 202 of the purification device 20, and the water treatment material or mechanism in the purification device 20 is reversely flushed, flows out from the first communication opening 201 of the purification device 20, and then flows.
  • the fifth opening 1105A of the valve body 11A ′ flows into the tenth communication passage 10010A ′, and then flows out of the drain opening 1108A ′ of the plane valve 10A ′.
  • a second one is formed separately from the valve body 11A ′.
  • a fifteenth communication passage 10015A communicating with the opening 1102A and the inner cavity 110A to allow raw water to flow from the first opening 1101A of the valve body 11A ′ into the inner cavity 110A of the valve body 11A ′, and then pass through the tenth
  • the five communication passages 10015A flow into the second opening 1102A of the valve body 11A ′, and provide the user with raw water.
  • the control device 16A of the plane valve 10A ′ of the purification-demineralizing water treatment system according to the second preferred embodiment of the present invention is further configured to be capable of controlling a regeneration filter according to a softening filter element.
  • the transmission mechanism 14A such as a transmission gear
  • the driving element 18A is driven to rotate, so as to drive the moving valve disc 13A ′ of the plane valve 10A ′ to rotate relative to the fixed valve disc 12A ′, thereby forming a separate valve body 11A.
  • the first opening 1101A flows into the inner cavity 110A of the valve body 11A ′, and then flows into the third opening 1103A through the eleventh communication passage 10011A, and then flows into the ejection outlet 321 of the ejector 32 and passes through the ejector 32 Jet, After mixing the liquid from the salt tank 33, it flows into the fourth opening 1104A of the valve body 11A ′ through the injection inlet 322 of the ejector 32, and then flows into the seventh opening 1107A through the thirteenth communication passage 10013A,
  • the fourteenth communication passage 10014A ′ then flows out of the drain opening 1108A ′ of the plane valve 10A ′, and at the same time, a second communication port 1102A and the inner cavity 110A of the valve body 11A ′ are formed, respectively.
  • the fifteenth communication channel 10015A allows raw water to flow from the first opening 1101A of the valve body 11A ′ into the inner cavity 110A of the valve body 11A ′, and then flows into the valve body 11A ′ through the fifteenth communication channel 10015A.
  • the second opening 1102A provides raw water to the user.
  • control instructions such as purification-softening control instructions, softening device backwashing control instructions, softening device forward-washing control instructions, water supply control instructions, purification device forward-washing control instructions, purification device backwashing control instructions, softening filter
  • Control instructions such as the regeneration control instruction can be preset in the control module of the control device 16A, can also be received from a control terminal through an electronic communication network, or can be input by a user through an input interface.
  • the purification-demineralizing water treatment system of the present invention is provided with an input interface for the plane valve 10A ′, such as a touchpad or a control button
  • the user can control the
  • the control module of the device 16A sends the above-mentioned control instruction, so that the control module of the control device 16A controls the motor of the control device 16A to rotate, thereby driving the driving element 18A to rotate through a transmission mechanism 14A.
  • the purification-demineralization treatment of raw water according to the second preferred embodiment of the purification-demineralization water treatment system of the present invention is exemplarily explained, wherein the purification The device 20 is a purification filter element, wherein the purification device 20 includes a housing 21, a connector 22 provided in the housing 21, and a filtering portion 23 provided in the housing 21, wherein the filtering portion 23 It can be an ultrafiltration wire, a mesh filter or a lamination filter, PP cotton or other water treatment materials or filter materials capable of filtering raw water for ultrafiltration filtration. Exemplarily, as shown in FIGS.
  • the softening device 30 of the purification-softening water treatment system of the present invention includes a softening box 31, wherein the softening box 31 includes a box 311 and a liquid collection unit 312 and a water softening unit 313, wherein the box 311 has a softening cavity 3110, a first conduction opening 301 and a second conduction opening 302, wherein the liquid collecting unit 312 includes a central tube 3121, the water softening The unit 313 is adapted to be accommodated in the softening cavity 3110, wherein the central tube 3121 is adapted to communicate with the second conduction opening 302, wherein the central tube 3121 has a high-end opening 31211 and a low-end opening 31212, wherein the box
  • the liquid in the body 311, such as water is suitable to be processed by the water softening unit 313, and then flows into the center pipe 3121 from the low end opening 31212 of the center pipe 3121 of the liquid collecting unit 312 and flows out
  • the first channel 101A, the second channel 102A, the third channel 103A, the fourth channel 104A, the fifth channel 105A, the The sixth channel 106A, the seventh channel 107A, and the eighth channel 108A can be split or separated into two adjacent smaller channels by a reinforced solid structure. For example, as shown in FIGS.
  • the eighth channel 108A of the fixed valve disc 12A of the flat valve 10A of the purified-demineralized water treatment system according to the second preferred embodiment of the present invention is reinforced by a The ribs or stiffeners are separated into two passages 1081A and 1082A with a smaller inner diameter.
  • the eleventh passage 1011A communicates with the passage 1081A, thereby forming the The fourth communication passage 1004A; when the plane valve 10A is in the third working position, the ninth passage 109A of the plane valve 10A communicates with the passage 1081A, thereby forming the fifth communication passage 1005A; the plane valve 10A is at In the fifth working position, the eleventh channel 1011A of the plane valve 10A communicates with the channel 1081A to form the ninth communication channel 1009A; when the plane valve 10A is in the sixth working position, the ninth The channel 109A communicates with the channel 1082A to form the twelfth communication channel 10012A.
  • the eleventh channel 1011A communicates with the channel 1082A to form the tenth Four Connected Channels 1001 4A.
  • the water treatment machine is in a purifying-softening working state, and raw water flows from the first opening 1101A of the valve body 11A into the inner cavity 110A of the valve body 11A, It then flows into the first passage 101A of the fixed valve disc 12A through the ninth passage 109A of the moving valve disc 13A, and then enters the first communication opening 201 of the purification device 20 through the fifth opening 1105A of the valve body 11A.
  • the fourth passage 104A of the fixed valve disc 12A is then passed through the seventh opening 1107A of the valve body 11A into the second conduction opening 302 of the softening box 31.
  • the softening resin in the softening box 31 is backwashed, Flowing out from the first conduction opening 301 of the softening box 31, then flowing through the sixth opening 1106A of the valve body 11A, and then flowing through the passage 1081A of the fixed valve disc 12A and the moving valve disc 13A
  • An eleventh channel 1011A flows out from the drain opening 1108A of the plane valve 10A, and raw water can also flow through the fifth channel 105A of the fixed valve disc 12A to the second opening 1102A of the valve body 11A; when the plane When the valve 10A is in the third working position, the water treatment machine is in the washing state of the softening filter element (softening device), and raw water flows from the first opening 1101A of the valve body 11A into the inner cavity 110A of the valve body 11A.
  • the passage 1081A passes through the sixth opening 1106A of the valve body 11A and enters the first conduction opening 301 of the softening box 31. After the softening resin in the softening box 31 is flushed forward, the softening resin from the softening box 31 is flushed.
  • the second conduction opening 302 flows out, then flows through the seventh opening 1107A of the valve body 11A, and then flows through the third passage 103A of the fixed valve disc 12A and the eleventh passage 1011A of the moving valve disc 13A.
  • raw water flows out from the drain opening 1108A of the flat valve 10A, and raw water can also flow through the fifth passage 105A of the fixed valve disc 12A to the second opening 1102A of the valve body 11A; when the flat valve 10A is in the fourth work
  • raw water flows from the first opening 1101A of the valve body 11A to the inner cavity 110A of the valve body 11A, and then passes through the first valve opening 13A of the valve body 11A.
  • Nine channels 109A flow into the seventh channel 107A of the fixed valve disc 12A, and then flow through the fourth opening 1104A of the valve body 11A into the injection inlet 322 of the ejector 32 to replenish the salt solution tank 33 while the raw water is returned.
  • valve body 11A can flow to the valve body 11A through the fifth passage 105A of the fixed valve disc 12A.
  • the cavity 110A then flows into the second passage 102A of the fixed valve disc 12A through the ninth passage 109A of the moving valve disc 13A, and then enters the first of the purification device 20 through the fifth opening 1105A of the valve body 11A.
  • the communication opening 201 after the water treatment material or mechanism in the purification device 20 is flushed forward, flows out from the second communication opening 202 of the purification device 20, and then flows through the sixth opening 1106A of the valve body 11A and enters
  • the passage 1081A of the fixed valve disc 12A flows through the eleventh passage 1011A of the moving valve disc 13A from the drain opening 1108A of the plane valve 10A, and raw water can also pass through the first valve of the fixed valve disc 12A.
  • Five channels 105A flow to the second opening 1102A of the valve body 11A.
  • the water treatment machine when the plane valve 10A is in the sixth working position, the water treatment machine is in a backwashing working state of the purification device, and raw water flows from the first opening 1101A of the valve body 11A into the inner cavity 110A of the valve body 11A. , And then flows into the channel 1082A of the fixed valve disc 12A through the ninth channel 109A of the moving valve disc 13A, and then enters the second communication opening 202 of the purification device 20 through the sixth opening 1106A of the valve body 11A, After the water treatment material or mechanism in the purification device 20 is backwashed, it flows out from the first communication opening 201 of the purification device 20, then flows through the fifth opening 1105A of the valve body 11A, and enters the fixed valve disc.
  • the first passage 101A of 12A, and the eleventh passage 1011A flowing through the moving valve disc 13A flow out from the drain opening 1108A of the plane valve 10A, and the raw water can also pass through the fifth passage of the fixed valve disc 12A.
  • 105A flows to the second opening 1102A of the valve body 11A; when the plane valve 10A is in the seventh working position, the water treatment machine is in a regenerating working state of the softening filter element, and raw water flows into the first opening 1101A of the valve body 11A To the inner cavity 110A of the valve body 11A It then flows through the ninth channel 109A of the moving valve disc 13A into the sixth channel 106A of the fixed valve disc 12A, and then flows into the injection port 321 of the ejector 32 through the third opening 1103A of the valve body 11A, and passes through The jet 32 jets, mixes the liquid from the salt solution tank 33, flows into the fourth opening 1104A of the valve body 11A through the jet inlet 322 of the jet 32, and then enters
  • the 107A flows through the tenth channel 1010A of the moving valve disc 13A and then enters the fourth channel 104A of the fixed valve disc 12A, and then flows through the seventh opening 1107A of the valve body 11A and enters the first softening box 31.
  • the two conducting openings 302, such as the softened resin in the softening box 31, are regenerated countercurrently, flow out from the first conducting opening 301, and then flow through the sixth opening 1106A of the valve body 11A into the fixed valve disc 12A.
  • the channel 1082A passes through the eleventh channel 1011A of the moving valve disc 13A and flows out from the sewage opening 1108A of the plane valve 10A.
  • the raw water can also flow to the valve body through the fifth channel 105A of the fixed valve disc 12A. 11A of the second opening 1102A.
  • the first channel 101A ′, the second channel 102A ′, the third channel 103A ′, the fourth channel 104A ′, the The fifth channel 105A ′, the sixth channel 106A ′, the seventh channel 107A ′, and the eighth channel 108A ′ may be split or separated into two adjacent smaller channels by a reinforced solid structure.
  • the present invention further provides an application Valve plate assembly for planar valve (or fluid valve), wherein the valve plate assembly includes a fixed valve plate 12A and a moving valve plate 13A, wherein the fixed valve plate 12A has a first fluid control surface 120A, and the moving valve plate 13A has a second fluid control surface 130A, wherein the second fluid control surface 130A of the moving valve disc 13A is adapted to be disposed on the first fluid control surface 120A of the fixed valve disc 12A, and the moving valve disc 13A is The device can be rotated relative to the fixed valve disc 12A, wherein the plane valve has a first channel 101A, a second channel 102A, a third channel 103A, a fourth channel 104A, a fifth channel 105A, and a sixth channel 106A , A seventh channel 107A, an eighth channel
  • a purification-demineralizing water treatment system is clarified, which is suitable for purifying-softening treatment of raw water or water to be treated, wherein the purification-
  • the demineralized water treatment system includes a fluid valve 10D, a purification device 20D, and a softening device 30D.
  • the fluid valve 10D includes a valve body 11D and a valve core 1D.
  • the valve body 11D forms an internal cavity 110D, a first The opening 1101D, a second opening 1102D, a third opening 1103D, a fourth opening 1104D, a fifth opening 1105D, a sixth opening 1106D, and a seventh opening 1107D, wherein the spool 1D is disposed in the inner cavity.
  • 110D wherein the purified-demineralized water treatment system according to the third preferred embodiment of the present invention has a first working state, a second working state, a third working state, a fourth working state, and a fifth working state
  • the fluid valve 10D forms a first opening 1101D and a fifth opening respectively with the valve body 11D.
  • the opening 1106D and a sewage opening (or eighth opening) 1108D communicate with the fourth communication channel 1004D.
  • the fluid valve 10D forms a separate body from the valve body.
  • the purified-demineralized water treatment system according to the third preferred embodiment of the present invention further has a sixth working state and a seventh working state, wherein when the purified-demineralized water treatment system is in the sixth working state
  • the fluid valve 10D forms a tenth communication channel 10010D which communicates with the fifth opening 1105D and the sewage opening 1108D of the valve body 11D.
  • the fluid valve 10D forms an eleventh communication passage 10011D in communication with the first opening 1101D and the third opening 1103D of the valve body 11D, respectively.
  • the fluid valve 10D when the purification-demineralized water treatment system is in the sixth working state, the fluid valve 10D further forms a first communicating with the first opening 1101D and the sixth opening 1106D of the valve body 11D, respectively. Twelve communication channels 10012D.
  • the fluid valve 10D forms a communication with the sixth opening 1106D and the fourth opening 1104D of the valve body 11D, respectively.
  • a thirteenth communication passage 10013D and a fourteenth communication passage 10014D communicating with the seventh opening 1107D of the valve body 11D and the drain opening 1108D of the plane valve 10D, respectively.
  • the fluid valve 10D of the purification-demineralization water treatment system is a plane valve 10, wherein the plane valve 10D further includes a moving valve disc 13D.
  • a fixed valve disc 12D the fixed valve disc 12D has a first fluid control surface 120D
  • the moving valve disc 13D has a second fluid control surface 130D
  • the moving valve disc 13D and the fixed valve disc 12D are both provided In the inner cavity 110D
  • the second fluid control surface 130D of the movable valve disc 13D is disposed on the first fluid control surface 120D of the fixed valve disc 12D
  • the movable valve disc 13D is disposed so as to be opposite to the fixed valve
  • the sheet 12D rotates, wherein the purification device 20 has a first communication opening 201 and a second communication opening 202, wherein the softening device 30 includes at least one softening box 31, wherein the softening box 31 has a first conducting opening 301 and A second conducting opening 302, wherein the internal cavity 110D of the valve body 11D is in communication with the first opening 1101D, the first communication opening 201 of the purification device 20 is connected with the fifth opening 1105D in the valve body 11D On, the second communication of the purification
  • the softening device 30 of the purification-demineralizing water treatment system further includes a jet 32 and a salt tank 33, wherein the jet 32 has an injection port 321 adapted to communicate with the third opening 1103D of the valve body 11D and an injection port 322 adapted to communicate with the fourth opening 1104D of the valve body 11D, wherein the salt solution tank 33 It is adapted to communicate with the ejector 32 so that the salt liquid from the salt solution tank 33 can pass through the ejector 32 and the fourth opening 1104D, and flow to the softening box 31 of the softening device 30 through the plane valve 10D.
  • the softened resin in the softening box 31 is regenerated.
  • the purification-demineralized water treatment system of the present invention when the purification-demineralized water treatment system of the present invention is in a state where the softened filter element absorbs salt, the raw water or water to be treated flows from the first opening 1101D of the valve body 11D to the inner cavity 110D of the valve body 11D. Then, it flows into the third opening 1103D through an eleventh communication channel 10011D, and then flows into the ejection outlet 321 of the ejector 32. After passing through the ejector 32, the liquid from the salt tank 33 is mixed and passes through the ejector.
  • the injection port 322 of 32 flows into the fourth opening 1104D of the valve body 11D, and then flows into the sixth opening 1106D through a thirteenth communication passage 10013D, enters the first conduction opening 301 of the softening box 31, and flows downstream After regenerating the water treatment material or mechanism in the softening box 31, such as softened resin, it flows out from the second conducting opening 302, then flows through the seventh opening 1107D of the valve body 11D, and flows into a fourteenth communication channel 10014D. It then flows out of a drain opening (or eighth opening) 1108D of the plane valve 10D.
  • the present invention only exemplarily describes the manner in which the salt solution is provided to the softening tank 31 through the ejector 32, the salt solution may also be provided to the softening tank 31 through the fourth opening 1104D of the plane valve 10D by other methods or mechanisms.
  • Softening box 31 Therefore, the manner of supplying the salt solution to the softening tank 31 through the ejector 32 should not be a limitation of the present invention.
  • the plane valve 10D of the purification-demineralization water treatment system of the present invention further has a connection mechanism, such as a connection thread, a snap joint, etc., which is arranged on the valve body 11D, so that the plane valve 10D and
  • the other structural components of the purification-softening water treatment system such as the purification device 20, the softening device 30, are connected to guide the water to the communication channels formed by the purification device 20, the softening box 31 of the softening device 30, and the plane valve 10D, respectively.
  • the purification-demineralized water treatment system has a first working state, a second working state, a third working state, and a first working state.
  • Four working states and a fifth working state wherein when the purification-demineralized water treatment system is in the first working state, the moving valve disc 13D and the fixed valve disc 12D of the plane valve 10D form one with the valve, respectively.
  • the second communication channel 1002D is opened.
  • the moving valve disc 13D and the fixed valve disc 12D of the plane valve 10D form a separate valve body 11D from the valve body 11D.
  • a third communication channel 1003D communicating with the inner cavity 110D (or the first opening 1101D) and the seventh opening 1107D, and a sixth opening 1106D with the valve body 11D and the drain opening 1108D with the plane valve 10D, respectively.
  • the connected fourth communication channel 1004D when When the purification-demineralizing water treatment system is in the third working state, the moving valve disc 13D and the fixed valve disc 12D of the plane valve 10D form a cavity 110D (or the first opening) with the valve body 11D, respectively.
  • the first communication channel 1001D formed by the plane valve 10D It is in communication with the inner cavity 110D and the fifth opening 1105D of the valve body 11D
  • the second communication passage 1002D is in communication with the second opening 1102D and the seventh opening 1107D of the valve body 11D, thereby allowing raw water Flows from the first opening 1101D of the valve body 11D into the inner cavity 110D of the valve body 11D, and then passes through the first communication passage 1001D formed by the plane valve 10D, the fifth opening 1105D of the valve body 11D, the The first communication opening 201 of the purification device 20 flows into the purification device 20, and purified water obtained after the raw water is purified by the purification device 20 flows out from the second communication opening 202 of the purification device 20, and the purified water can pass through the softening tank
  • the second connection of the plane valve 10D The passage 1002D passes through the second opening 1102D of the valve body 11D and flows out to supply softened water to the user.
  • the second communication opening 202 of the purification device 20 is in communication with a water supply outlet 401 (or water supply passage 400), so as to provide users with clean water. Therefore, when the purified-demineralized water treatment system is in the first working state, the purified-demineralized water treatment system of the present invention can simultaneously provide purified water and demineralized water to users. Accordingly, the first working state of the purification-demineralized water treatment system corresponds to the purification-demineralization working state of the purification-demineralized water treatment system.
  • the first opening 1101D of the valve body 11D (or the inner cavity 110D of the valve body 11D), the fifth opening of the valve body 11D
  • the second conduction opening 302 of the softening box 31, the seventh opening 1107D of the valve body 11D, and the second opening 1102D of the valve body 11D are communicated in sequence, thereby forming a purification device 20 and the softening device.
  • the water flow paths 30 are connected in series so that the raw water can flow from the purification device 20 to the softening device 30 and the raw water is sequentially purified and softened.
  • the third communication channel 1003D formed by the plane valve 10D Communicates with the inner cavity 110D (or the first opening 1101D) and the seventh opening 1107D of the valve body 11D, and the fourth communication passage 1004D communicates with the sixth opening 1106D and the plane valve of the valve body 11D, respectively
  • the drainage opening 1108D of 10D is communicated, thereby allowing raw water to flow from the first opening 1101D of the valve body 11D into the inner cavity 110D of the valve body 11D, and then flow in through the third communication channel 1003D formed by the plane valve 10D.
  • the seventh opening 1107D flows into the softening box 31 through the second conducting opening 302 of the softening box 31, and the softening material (or water treatment material) in the softening box 31, such as a softening resin, is reversed.
  • the obtained sewage or waste water flows out from the first conduction opening 301 of the softening box 31, then flows through the sixth opening 1106D of the valve body 11D, and flows into the fourth communication passage 1004D of the plane valve 10D, and then Flow out from the drain opening 1108D of the plane valve 10D.
  • the purification-demineralized water treatment system of the present invention can control reverse flushing of the softening filter element, such as the softening tank 31. Accordingly, the second working state of the purification-demineralizing water treatment system corresponds to the backwashing working state of the softening filter element (softening device) of the purification-demineralizing water treatment system.
  • the fifth communication channel 1005D formed by the plane valve 10D It is in communication with the inner cavity 110D (or the first opening 1101D) and the sixth opening 1106D of the valve body 11D, and the sixth communication passage 1006D is connected with the seventh opening 1107D and the plane valve of the valve body 11D, respectively.
  • the drainage opening 1108D of 10D communicates, thereby allowing raw water to flow from the first opening 1101D of the valve body 11D into the inner cavity 110D of the valve body 11D, and then flow into the sixth opening 1106D through the fifth communication passage 1005D.
  • the purification-demineralized water treatment system of the present invention can control the forward flushing of the softening filter element, such as the softening tank 31. Accordingly, the third working state of the purification-demineralized water treatment system corresponds to the normal washing operation state of the softening filter element (softening device) of the purification-demineralized water treatment system.

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Abstract

一种净化-软化水处理系统，包括一个平面阀(10)、一个净化装置(20)和一个软化装置(30)，平面阀(10)包括一个阀体(11)、一个动阀片(13)和一个定阀片(12)，阀体(11)形成一个内腔(110)、一个第一开口(1101)、一个第二开口(1102)、一个第三开口(1103)、一个第四开口(1104)、一个第五开口(1105)、一个第六开口(1106)和一个第七开口(1107)，定阀片(12)具有一个第一流体控制面(120)，动阀片(13)具有一个第二流体控制面(130)，动阀片(13)和定阀片(12)均被设置在内腔(110)，动阀片(13)的第二流体控制面(130)被设置在定阀片(12)的第一流体控制面(120)，且动阀片(13)被设置能够相对定阀片(12)转动；净化装置(20)具有一个第一连通开口(201)和一个第二连通开口(202)，软化装置(30)包括一个软化箱(31)，软化箱(31)具有一个第一导通开口(301)和一个第二导通开口(302)，净化装置(20)的第一连通开口(201)与阀体(11)的第五开口(1105)相连通，净化装置(20)的该第二连通开口(202)和软化箱(31)的第一导通开口(301)均与阀体(11)的第六开口(1106)相连通，软化箱(31)的第二导通开口(302)与阀体(11)的第七开口(1107)相连通。

Description

净化-软化水处理系统、水处理方法及其平面阀 技术领域
本发明涉及水处理技术领域，尤其涉及一种净化-软化水处理系统，其中本发明净化-软化水处理系统能够对水净化处理和软化处理。进一步地，该净化-软化水处理系统能够通过单个控制阀，如流体阀，实现对原水(或待处理水)进行净化和软化处理，从而使使用者能够同时得到净水和软化水。因此，本发明还进一步涉及一种用于净化-软化水处理系统的平面阀。
技术背景
随着人们对健康的日益重视和对水污染问题的担忧，水处理机或水处理系统已成为常见家用电器设备。水处理机，尤其是家用水处理机，如中央净水机、软水机等多被安装在厨房里，以对水进行处理和得到更洁净的水。
根据对原水或待处理水的处理方式的不同，水处理机一般可分为净水机和软水机。常见的净水机，如活性炭过滤净水机、超滤净水机、RO膜净水机等，多是为了尽可能除去水中的杂质，如有害物质和异味异物。而软水机主要是为了去除水中的钙离子等离子。超滤净水机和RO膜净水机等净水机对原水进行处理得到的水相对更加洁净和适合饮用，软水机对原水进行处理得到的软水因为含有更少钙离子等，更适合沐浴、洗衣服等。也有部分人群认为，软水更适合美容。然而，现有具有复合水处理功能的水处理机或水处理系统多为单纯对水进行净化处理的水处理机，如活性炭-超滤过滤复合净水系统、超滤-RO膜复合净水系统、PP棉-活性炭复合净水系统等，但几乎很少存在净水-软化复合水处理系统。主要的原因在于，对水的净化和对水进行软化处理时，两者在机制或机理上具有很大区别。在对水进行软化处理时，软水机需要定期向软化箱内(或软化树脂)补充盐液(一般为NaCl溶液)和对软化箱进行清洗，以避免软化箱内的软化树脂失去活性。另外，除了向软化箱中补充盐液之外，软水机还需要向其盐(液)箱中补充水，以防止盐液箱中的盐液被耗尽和无法向软化箱中提供盐液。然而，所有的水处理系统均会涉及到水流的控制。由于对水进行软化处理的软水机的结构和功能实现的复杂性，导致净化-软化复合水处理系统需要形成复杂的水路，并能够实现对其合理控制。为了实现同时对净水通路和软化水路的控制，现有绝大部分净化-软化复合水处理系统具有两个以上的平面阀，这最终导致整个水处理系统机构臃肿、体积庞大和糟糕的使用体验。此外，水处理机，尤其是家用水处理机，一般被安装在厨房的台面下面，如洗手池的下方。现有净化-软化复合水处理系统的庞大体积，占用过多空间，也给使用者的安装带来很大不便。更不用说，在水处理系统出现故障时的维修和滤芯更换。
发明内容
本发明的主要优势在于其提供一种净化-软化水处理系统，其中该净化-软化水处理系统具有至少一个水净化装置(水净化机构)，如超滤滤芯、活性炭滤芯、滤网式过滤器或叠片式过滤器等， 和至少一个水软化装置(水软化机构)，如内置有软化树脂的软化箱，以对原水或待处理水依次进行净化和软化处理。
本发明的另一优势在于其提供一种净化-软化水处理系统，其中该净化-软化水处理系统的水净化装置和水软化装置相串联，且该净化-软化水处理系统的该水净化装置位于该水软化装置的上游，从而使该水软化装置能够对来自该水净化装置的净水进行处理，以得到洁净的软化水。
本发明的另一优势在于其提供一种净化-软化水处理系统，其中该净化-软化水处理系统的该水净化装置、该水软化装置和该净化-软化水处理系统的平面阀之间通过相应的水路相连通，从而实现对水净化水路和水软化水路的控制和对原水依次进行净化和软化处理。尤其是，经该水净化装置处理得到的净水依次流向净水通路和该水软化装置的进水口，从而向该水软化装置提供净水。
本发明的另一优势在于其提供一种净化-软化水处理系统，其中该净化-软化水处理系统的平面阀能够在控制该净化-软化水处理系统对水进行净化和软化处理的同时，还能进一步控制该净化-软化水处理系统实现其它功能，如对软化箱进行冲洗、向软化箱中补充盐液、向盐(水)箱中补充水等功能。
本发明的另一优势在于其提供一种净化-软化水处理系统，其中该净化-软化水处理系统的平面阀能够在不同的工作位形成互不干扰的多个水路(或连通通道)，从而实现本发明水处理系统的上述多种功能。。
本发明的另一优势在于其提供一种适于对原水进行净化和软化处理的净化-软化水处理系统，其中该净化-软化水处理系统不需要精密的部件和复杂的结构，其制造工艺简单，成本低廉。
本发明的其它优势和特点通过下述的详细说明得以充分体现并可通过所附权利要求中特地指出的手段和装置的组合得以实现。
依本发明，能够实现前述目的和其他目的和优势的本发明净化-软化水处理系统包括:
一个平面阀，其中该平面阀包括一个阀体、一个动阀片和一个定阀片，其中该阀体形成一个内腔、一个第一开口、一个第二开口、一个第三开口、一个第四开口、一个第五开口、一个第六开口和一个第七开口，该定阀片具有一个第一流体控制面，该动阀片具有一个第二流体控制面，其中该动阀片和该定阀片均被设置在该内腔，其中该动阀片的该第二流体控制面被设置在该定阀片的该第一流体控制面，且该动阀片被设置能够相对该定阀片转动；
一个净化装置，其中该净化装置具有一个第一连通开口和一个第二连通开口；和
一个软化装置，其中该软化装置包括一个软化箱，其中该软化箱具有一个第一导通开口和一个第二导通开口，其中该阀体的该内腔与该第一开口相连通，其中该净化装置的该第一连通开口与该阀体的该第五开口相连通，该净化装置的该第二连通开口和该软化箱的该第一导通开口均与该阀体的该第六开口相连通，该软化箱的该第二导通开口与该阀体的该第七开口相连通。
依本发明第一较佳实施例，进一步地，本发明净化-软化水处理系统进一步包括一个射流器和 一个盐液箱，其中该射流器具有一个适于与该阀体的该第三开口相连通的射出口和一个适于与该阀体的该第四开口相连通的射入口，其中该盐液箱适于与该射流器相连通，从而使来自该盐液箱的盐液能够通过该射流器和该第四开口，和经该平面阀流向该软化装置的该软化箱，从而使该软化箱内的软化树脂得到再生。
依本发明第一较佳实施例，进一步地，本发明净化-软化水处理系统具有一个第一工作状态、一个第二工作状态、一个第三工作状态、一个第四工作状态和一个第五工作状态，其中当该净化-软化水处理系统处在该第一工作状态时，该平面阀的该动阀片和该定阀片形成一个分别与该阀体的该内腔和该第五开口相连通的第一连通通道和一个分别与该阀体的该第二开口和该第七开口相连通的第二连通通道，当该净化-软化水处理系统处在该第二工作状态时，该平面阀的该动阀片和该定阀片形成一个分别与该阀体的该内腔和该第七开口相连通的第三连通通道和一个分别与该阀体的该第六开口和一个排污开口相连通的第四连通通道，当该净化-软化水处理系统处在该第三工作状态时，该平面阀的该动阀片和该定阀片形成一个分别与该阀体的该内腔和该第六开口相连通的第五连通通道和一个分别与该阀体的该第七开口和该排污开口相连通的第六连通通道，当该净化-软化水处理系统处在该第四工作状态时，该平面阀的该动阀片和该定阀片形成一个分别与该阀体的该内腔和该第四开口相连通的第七连通通道，当该净化-软化水处理系统处在该第五工作状态时，该平面阀的该动阀片和该定阀片形成一个分别与该阀体的该内腔和该第五开口相连通的第八连通通道和一个分别与该阀体的该第六开口和该排污开口相连通的第九连通通道。
依本发明第一较佳实施例，进一步地，本发明净化-软化水处理系统具有一个第六工作状态和一个第七工作状态，其中当该净化-软化水处理系统处在该第六工作状态时，该平面阀的该动阀片和该定阀片形成一个分别与该阀体的该第五开口和该排污开口相连通的第十连通通道和一个分别与该阀体的该内腔和该第六开口相连通的第十二连通通道；当该净化-软化水处理系统处在该第七工作状态时，该平面阀的该动阀片和该定阀片形成一个分别与该阀体的该内腔和该第三开口相连通的第十一连通通道、一个分别与该阀体的该第七开口和该第四开口相连通的第十三连通通道和一个分别与该阀体的该第六开口和该排污开口相连通的第十四连通通道。
依本发明第一较佳实施例，进一步地，本发明净化-软化水处理系统的该平面阀具有一个第一通道，一个第二通道，一个第三通道，一个第四通道、一个第五通道、一个第六通道、一个第七通道、一个第八通道、一个第九通道、一个第十通道和一个第十一通道，其中该第一通道、该第二通道、该第三通道、该第四通道、该第五通道、该第六通道、该第七通道和该第八通道分别设于该定阀片并分别自该定阀片的该第一流体控制面延伸；该第九通道、该第十通道和该第十一通道分别设于该动阀片并分别自该动阀片的该第二流体控制面延伸，其中该第一通道和该第二通道分别与该第五开口相连通，该第三通道和该第四通道分别与该第七开口相连通，该第五通道与该第二开口相连通，该第六通道与该第三开口相连通，该第七通道与该第四开口相连通，该第八通道与该第六开口相连通，该第九通道与该阀体的该内腔相连通，该第十一通道与该排污开口相连通。
依本发明第一较佳实施例，进一步地，本发明净化-软化水处理系统的该平面阀具有一个第一 工作位，一个第二工作位，一个第三工作位，一个第四工作位和一个第五工作位，其中当平面阀处于该第一工作位时，该平面阀的该第九通道与该第一通道相连通，从而形成该第一连通通道，该第十通道分别与该第三通道和该第五通道相连通，从而形成该第二连通通道；当该平面阀处于该第二工作位时，该平面阀的该第九通道与该第四通道相连通，从而形成该第三连通通道，该第十一通道与该第八通道相连通，从而形成该第四连通通道；当该平面阀处于该第三工作位时，该平面阀的该第九通道与该第八通道相连通，从而形成该第五连通通道，该平面阀的该第十一通道与该第三通道相连通，从而形成该第六连通通道；当该平面阀处于该第四工作位时，该平面阀的该第九通道与该第七通道相连通，从而形成该第七连通通道；当该平面阀处于该第五工作位时，该平面阀的该第九通道与该第二通道相连通，从而形成该第八连通通道，该平面阀的该第十一通道与该第八通道相连通，从而形成该第九连通通道。
依本发明第一较佳实施例，进一步地，本发明净化-软化水处理系统的该平面阀进一步具有一个第六工作位和一个第七工作位，其中当该平面阀处于该第六工作位时，该平面阀的该第十一通道与该第一通道相连通，从而形成该第十连通通道，该第八通道与该第九通道相连通，从而形成该第十二连通通道；当平面阀处于该第七工作位时，该平面阀的该第九通道与该第六通道相连通，从而形成该第十一连通通道，该第十通道分别与该第四通道和该第七通道相连通，从而形成该第十三连通通道，该第十一通道与该第八通道相连通，从而形成该第十四连通通道。
根据本发明较佳实施例，本发明进一步提供一种用于净化-软化水处理系统的平面阀，其中该平面阀包括：
一个阀体；
一个动阀片；和
一个定阀片，其中该阀体形成一个内腔、一个第一开口、一个第二开口、一个第三开口、一个第四开口、一个第五开口、一个第六开口和一个第七开口，该定阀片具有一个第一流体控制面，该动阀片具有一个第二流体控制面，其中该动阀片和该定阀片均被设置在该内腔，其中该动阀片的该第二流体控制面被设置在该定阀片的该第一流体控制面，且该动阀片被设置能够相对该定阀片转动，其中该平面阀具有一个第一通道，一个第二通道，一个第三通道，一个第四通道、一个第五通道、一个第六通道、一个第七通道、一个第八通道、一个第九通道、一个第十通道和一个第十一通道，其中该第一通道、该第二通道、该第三通道、该第四通道、该第五通道、该第六通道、该第七通道和该第八通道分别设于该定阀片并分别自该定阀片的该第一流体控制面延伸；该第九通道、该第十通道和该第十一通道分别设于该动阀片并分别自该动阀片的该第二流体控制面延伸，其中该阀体的该内腔与该第一开口相连通，该第一通道和该第二通道分别与该第五开口相连通，该第三通道和该第四通道分别与该第七开口相连通，该第五通道与该第二开口相连通，该第六通道与该第三开口相连通，该第七通道与该第四开口相连通，该第八通道与该第六开口相连通，该第九通道与该阀体的该内腔相连通。
根据本发明较佳实施例，本发明进一步提供一种用于净化-软化水处理系统的水路控制方法，其包括以下步骤：
(A)在该净化-软化水处理系统的净化-软化工作状态，形成一个依次连通该净化-软化水处理系统的净化装置的该第一连通开口、该净化-软化水处理系统的该净化装置的该第二连通开口、该净化-软化水处理系统的软化装置的该第一导通开口、该净化-软化水处理系统的该软化装置的该第二导通开口的净化-软化水路，从而使原水能够自该净化装置流向该净化-软化水处理系统的该软化装置和使原水依次被净化和软化处理；
(B)在该净化-软化水处理系统的软化装置反洗工作状态，形成一个依次连通该软化装置的该第二导通开口和该软化装置的该第一导通开口的软化装置反洗水路，从而使原水能够自该软化装置的该第二导通开口流向该软化装置的该第一导通开口和使该软化装置被反向冲洗；和
(C)在该净化-软化水处理系统的净化装置反洗工作状态，形成一个依次连通该净化装置的该第二连通开口和该净化装置的该第一连通开口的净化装置反洗水路，从而使原水能够自该净化装置的该第二连通开口流向该净化装置的该第一连通开口和使该净化装置被反向冲洗。
通过对随后的描述和附图的理解，本发明进一步的目的和优势将得以充分体现。
本发明的这些和其它目的、特点和优势，通过下述的详细说明，附图和权利要求得以充分体现。
附图说明
图1是依本发明第一较佳实施例的净化-软化水处理系统的正视示意图。
图2是上述依本发明第一较佳实施例的净化-软化水处理系统的装配示意图。
图3是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的立体图。
图4是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的装配图。
图5A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的阀体的立体图。
图5B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的阀体的另一立体图。
图6A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的剖视图，其中该图显示该平面阀的内腔与该平面阀的阀体的第一开口相连通，也显示了该平面阀的定阀片的第八通道与该阀体的第六开口相连通。
图6B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图显示该平面阀的阀体的第一开口、第二开口、第三开口、第四开口、第五开口、第六开口和第七开口。
图6C是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图显示了该平面阀的动阀片的第十一通道与该排污开口相连通。
图6D是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该定阀片和阀体的立体图。
图7A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在一个第一工作位。
图7B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第一工作位。
图7C是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第一工作位。
图7D是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第一工作位。
图8A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在一个第二工作位。
图8B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第二工作位。
图9A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在一个第三工作位。
图9B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第三工作位。
图10是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在一个第四工作位。
图11A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在一个第五工作位。
图11B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第五工作位。
图12A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在一个第六工作位。
图12B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第六工作位。
图13A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统处在一个第七工作位。
图13B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第七工作位。
图13C是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第七工作位。
图13D是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第七工作位。
图14A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该定阀片的立体图。
图14B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该动阀片的立体图。
图14C是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该定阀片的俯视图。
图14D是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该动阀片的俯视图。
图14E是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该定阀片的仰视图。
图14F是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该动阀片的仰视图。
图15A是上述依本发明第一较佳实施例的净化-软化水处理系统的结构示意图，其中该图所示的净化-软化水处理系统处在净化-软化工作状态，该图中箭头指向为水流方向。
图15B是上述依本发明第一较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯(或软化箱)反洗工作状态，该图中箭头指向为水流方向。
图15C是上述依本发明第一较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯(软化装置)正洗工作状态，该图中箭头指向为水流方向。
图15D是上述依本发明第一较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在补水工作状态，该图中箭头指向为水流方向。
图15E是上述依本发明第一较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在净化装置正洗工作状态，该图中箭头指向为水流方向。
图15F是上述依本发明第一较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在净化装置反洗工作状态，该图中箭头指向为水流方向。
图15G是上述依本发明第一较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯再生工作状态，该图中箭头指向为水流方向。
图16A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的定阀片的结构示意图。
图16B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的动阀片的结构示意图，其中该图中的虚线所示为该动阀片的导通通道。
图16C是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的定阀片的等分示意图,其中该图显示了各个通道被设置在该定阀片的具体等分位置。
图16D是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的动阀片的等分示意图,其中该图显示了各个通道被设置在该动阀片的具体等分位置。
图17A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀在其第一工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图17B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀在其第二工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图17C是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀在其第三工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面 阀的动阀片和定阀片的相互连通的通道。
图17D是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀在其第四工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图17E是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀在其第五工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图17F是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀在其第六工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图17G是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀在其第七工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图18A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的一种可选实施的立体图。
图18B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的一种可选实施的剖视图。
图18C是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施的立体图。
图18D是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施的立体图。
图19显示的是依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施。
图20是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的装配图。
图21A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的阀体的立体图。
图21B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的阀体的另一立体图。
图22A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的剖视图，其中该图显示该平面阀的内腔与该平面阀的阀体的第一开口相连通，也显示了该平面阀的定阀片的第八通道与该阀体的第六开口相连通。
图22B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图显示了该平面阀的阀体的第一开口、第二开口、第三开口、第四开口、第五开口、第六开口和第七开口。
图22C是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一 剖视图，其中该图显示该平面阀的动阀片的第十一通道与该排污开口相连通。
图22D是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该定阀片和阀体的立体图。
图23A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第一工作位。
图23B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第一工作位。
图23C是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第一工作位。
图23D是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第一工作位。
图24A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第二工作位。
图24B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第二工作位。
图25A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第三工作位。
图25B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第三工作位。
图26是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第四工作位。
图27A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第五工作位。
图27B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第五工作位。
图27C是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第五工作位。
图28A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第六工作位。
图28B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第六工作位。
图29A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第七工作位。
图29B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第七工作位。
图29C是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第七工作位。
图29D是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第七工作位。
图30A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该定阀片的立体图。
图30B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该动阀片的立体图。
图30C是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该定阀片的俯视图。
图30D是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该动阀片的俯视图。
图30E是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该定阀片的仰视图。
图30F是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的动阀片的仰视图。
图31A为上述依本发明第一较佳实施例的净化-软化水处理系统的该可选实施的结构示意图，其中该图所示的净化-软化水处理系统处在净化-软化工作状态，该图中箭头指向为水流方向。
图31B为上述依本发明第一较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯(或软化箱)反洗工作状态，该图中箭头指向为水流方向。
图31C为上述依本发明第一较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯(软化装置)正洗工作状态，该图中箭头指向为水流方向。
图31D为上述依本发明第一较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在补水工作状态，该图中箭头指向为水流方向。
图31E为上述依本发明第一较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在净化装置正洗工作状态，该图中箭头指向为水流方向。
图31F为上述依本发明第一较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在净化装置反洗工作状态，该图中箭头指向为水流方向。
图31G为上述依本发明第一较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯再生工作状态，该图中箭头指向为水流方向。
图32A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的定阀片的结构示意图。
图32B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的平面阀的该可选实施的动阀片的结构示意图，其中该图中的虚线所示为该动阀片的导通通道。
图32C是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的定阀片的等分示意图,其中该图显示了各个通道被设置在该定阀片的具体等分位置。
图32D是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的动阀片的等分示意图,其中该图显示了各个通道被设置在该动阀片的具体等分位置。
图33A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第一工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图33B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第二工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图33C是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第三工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图33D是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第四工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图33E是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第五工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图33F是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第六工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图33G是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第七工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图34A显示的是依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施的立体图。
图34B显示的是依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施的剖视图。
图35显示的是依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施的立体图。
图36显示的是依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施的立体图。
图37显示的是依本发明第一较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施。
图38显示的是依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的剖视图，其中该图所示的是该平面阀的该第八通道的不同部分分别与该第六开口相连通。
图39A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的定阀片的结构示意图。
图39B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施的定阀片的等分示意图,其中该图显示了各个通道被设置在该定阀片的具体等分位置。
图40A是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第一工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图40B是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第二工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图40C是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第三工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图40D是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第四工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图40E是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第五工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图40F是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第六工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图40G是上述依本发明第一较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第七工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图41是依本发明第二较佳实施例的净化-软化水处理系统的正视示意图。
图42是上述依本发明第二较佳实施例的净化-软化水处理系统的装配示意图。
图43是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的立体图。
图44是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的装配图。
图45A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的阀体的立体图。
图45B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的阀体的另一立体图。
图46A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的剖视图，其中该图显示该平面阀的内腔与该平面阀的阀体的第一开口相连通，也显示了该平面阀的定阀片的第八通道与该阀体的第六开口相连通。
图46B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图显示该平面阀的阀体的第一开口、第二开口、第三开口、第四开口、第五开口、第六开口和第七开口。
图46C是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图显示了该平面阀的动阀片的第十一通道与该排污开口相连通。
图46D是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该定阀片和阀体的立体图。
图46E是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图显示了该平面阀的定阀片的第五通道。
图47A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在一个第一工作位。
图47B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第一工作位。
图47C是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第一工作位。
图47D是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第一工作位。
图48A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在一个第二工作位。
图48B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第二工作位。
图49A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在一个第三工作位。
图49B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第三工作位。
图50是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在一个第四工作位。
图51A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在一个第五工作位。
图51B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第五工作位。
图52A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在一个第六工作位。
图52B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第六工作位。
图53A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统处在一个第七工作位。
图53B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第七工作位。
图53C是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第七工作位。
图53D是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第七工作位。
图54A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该定阀片的立体图。
图54B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该动阀片的立体图。
图54C是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该定阀片的俯视图。
图54D是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该动阀片的俯视图。
图54E是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该定阀片的仰视图。
图54F是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该动阀片的仰视图。
图55A是上述依本发明第二较佳实施例的净化-软化水处理系统的结构示意图，其中该图所示的净化-软化水处理系统处在净化-软化工作状态，该图中箭头指向为水流方向。
图55B是上述依本发明第二较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯(或软化箱)反洗工作状态，该图中箭头指向为水流方向。
图55C是上述依本发明第二较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯(软化装置)正洗工作状态，该图中箭头指向为水流方向。
图55D是上述依本发明第二较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在补水工作状态，该图中箭头指向为水流方向。
图55E是上述依本发明第二较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在净化装置正洗工作状态，该图中箭头指向为水流方向。
图55F是上述依本发明第二较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在净化装置反洗工作状态，该图中箭头指向为水流方向。
图55G是上述依本发明第二较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯再生工作状态，该图中箭头指向为水流方向。
图56A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的定阀片的结构示意 图。
图56B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的动阀片的结构示意图，其中该图中的虚线所示为该动阀片的导通通道。
图56C是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的定阀片的等分示意图,其中该图显示了各个通道被设置在该定阀片的具体等分位置。
图56D是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的动阀片的等分示意图,其中该图显示了各个通道被设置在该动阀片的具体等分位置。
图57A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀在其第一工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图57B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀在其第二工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图57C是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀在其第三工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图57D是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀在其第四工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图57E是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀在其第五工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图57F是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀在其第六工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图57G是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀在其第七工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图58A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的一种可选实施的立体图。
图58B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的一种可选实施的剖视图。
图58C是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施的立体图。
图58D是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施的 立体图。
图59显示的是依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施。
图60是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的装配图。
图61A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的阀体的立体图。
图61B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的阀体的另一立体图。
图62A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的剖视图，其中该图显示该平面阀的内腔与该平面阀的阀体的第一开口相连通，也显示了该平面阀的定阀片的第八通道与该阀体的第六开口相连通。
图62B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图显示了该平面阀的阀体的第一开口、第二开口、第三开口、第四开口、第五开口、第六开口和第七开口。
图62C是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图显示该平面阀的动阀片的第十一通道与该排污开口相连通。
图62D是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该定阀片和阀体的立体图。
图62E是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图显示了该平面阀的定阀片的第五通道。
图63A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第一工作位。
图63B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第一工作位。
图63C是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第一工作位。
图63D是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第一工作位。
图64A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第二工作位。
图64B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第二工作位。
图65A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第三工作位。
图65B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一 剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第三工作位。
图66是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第四工作位。
图67A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第五工作位。
图67B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第五工作位。
图67C是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第五工作位。
图68A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第六工作位。
图68B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第六工作位。
图69A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第七工作位。
图69B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第七工作位。
图69C是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第七工作位。
图69D是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第七工作位。
图70A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该定阀片的立体图。
图70B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该动阀片的立体图。
图70C是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该定阀片的俯视图。
图70D是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该动阀片的俯视图。
图70E是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该定阀片的仰视图。
图70F是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的动阀片的仰视图。
图71A为上述依本发明第二较佳实施例的净化-软化水处理系统的该可选实施的结构示意图，其中该图所示的净化-软化水处理系统处在净化-软化工作状态，该图中箭头指向为水流方向。
图71B为上述依本发明第二较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯(或软化箱)反洗工作状态，该图中箭头指向为水流方向。
图71C为上述依本发明第二较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯(软化装置)正洗工作状态，该图中箭头指向为水流方向。
图71D为上述依本发明第二较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在补水工作状态，该图中箭头指向为水流方向。
图71E为上述依本发明第二较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在净化装置正洗工作状态，该图中箭头指向为水流方向。
图71F为上述依本发明第二较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在净化装置反洗工作状态，该图中箭头指向为水流方向。
图71G为上述依本发明第二较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯再生工作状态，该图中箭头指向为水流方向。
图72A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的定阀片的结构示意图。
图72B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的平面阀的该可选实施的动阀片的结构示意图，其中该图中的虚线所示为该动阀片的导通通道。
图72C是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的定阀片的等分示意图,其中该图显示了各个通道被设置在该定阀片的具体等分位置。
图72D是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的动阀片的等分示意图,其中该图显示了各个通道被设置在该动阀片的具体等分位置。
图73A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第一工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图73B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第二工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图73C是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第三工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图73D是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第 四工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图73E是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第五工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图73F是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第六工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图73G是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第七工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图74A显示的是依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施的立体图。
图74B显示的是依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施的剖视图。
图75显示的是依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施的立体图。
图76显示的是依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施的立体图。
图77显示的是依本发明第二较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施。
图78显示的是依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的剖视图，其中该图所示的是该平面阀的该第八通道的不同部分分别与该第六开口相连通。
图79A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的定阀片的结构示意图。
图79B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施的定阀片的等分示意图,其中该图显示了各个通道被设置在该定阀片的具体等分位置。
图80A是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第一工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图80B是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第二工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图80C是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第三工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图80D是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第四工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图80E是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第五工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图80F是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第六工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图80G是上述依本发明第二较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第七工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图81是依本发明第三较佳实施例的净化-软化水处理系统的正视示意图。
图82是上述依本发明第三较佳实施例的净化-软化水处理系统的装配示意图。
图83是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的立体图。
图84是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的装配图。
图85A是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的阀体的立体图。
图85B是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的阀体的另一立体图。
图86A是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的剖视图，其中该图显示该平面阀的内腔与该平面阀的阀体的第一开口相连通，也显示了该平面阀的定阀片的第八通道与该阀体的第六开口相连通。
图86B是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图显示该平面阀的阀体的第一开口、第二开口、第三开口、第四开口、第五开口、第六开口和第七开口。
图86C是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图显示了该平面阀的动阀片的第十一通道与该排污开口相连通。
图86D是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该定阀片和阀体的立体图。
图87A是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在一个第一工作位。
图87B是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第一工作位。
图87C是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第一工作位。
图87D是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中 该图所示的本发明净化-软化水处理系统的平面阀处在该第一工作位。
图88A是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在一个第二工作位。
图88B是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第二工作位。
图89A是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在一个第三工作位。
图89B是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第三工作位。
图90是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在一个第四工作位。
图91A是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在一个第五工作位。
图91B是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第五工作位。
图92A是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在一个第六工作位。
图92B是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第六工作位。
图93A是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统处在一个第七工作位。
图93B是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第七工作位。
图93C是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第七工作位。
图93D是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第七工作位。
图94A是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该定阀片的立体图。
图94B是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该动阀片的立体图。
图94C是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该定阀片的俯视图。
图94D是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该动阀片的俯视图。
图94E是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该定阀片的仰视图。
图94F是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该动阀片的仰视图。
图95A是上述依本发明第三较佳实施例的净化-软化水处理系统的结构示意图，其中该图所示的净化-软化水处理系统处在净化-软化工作状态，该图中箭头指向为水流方向。
图95B是上述依本发明第三较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯(或软化箱)反洗工作状态，该图中箭头指向为水流方向。
图95C是上述依本发明第三较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯(软化装置)正洗工作状态，该图中箭头指向为水流方向。
图95D是上述依本发明第三较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在补水工作状态，该图中箭头指向为水流方向。
图95E是上述依本发明第三较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在净化装置正洗工作状态，该图中箭头指向为水流方向。
图95F是上述依本发明第三较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在净化装置反洗工作状态，该图中箭头指向为水流方向。
图95G是上述依本发明第三较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯再生工作状态，该图中箭头指向为水流方向。
图96A是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的定阀片的结构示意图。
图96B是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的动阀片的结构示意图，其中该图中的虚线所示为该动阀片的导通通道。
图96C是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的定阀片的等分示意图,其中该图显示了各个通道被设置在该定阀片的具体等分位置。
图96D是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的动阀片的等分示意图,其中该图显示了各个通道被设置在该动阀片的具体等分位置。
图97A是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀在其第一工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图97B是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀在其第二工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图97C是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀在其第三工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图97D是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀在其第四工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图97E是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀在其第五工作位时， 该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图97F是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀在其第六工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图97G是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀在其第七工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图98A是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的一种可选实施的立体图。
图98B是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的一种可选实施的剖视图。
图98C是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施的立体图。
图98D是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施的立体图。
图99显示的是依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施。
图100是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的装配图。
图101A是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的阀体的立体图。
图101B是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的阀体的另一立体图。
图102A是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的剖视图，其中该图显示该平面阀的内腔与该平面阀的阀体的第一开口相连通，也显示了该平面阀的定阀片的第八通道与该阀体的第六开口相连通。
图102B是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图显示了该平面阀的阀体的第一开口、第二开口、第三开口、第四开口、第五开口、第六开口和第七开口。
图102C是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图显示该平面阀的动阀片的第十一通道与该排污开口相连通。
图102D是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该定阀片和阀体的立体图。
图103A是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第一工作 位。
图103B是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第一工作位。
图103C是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第一工作位。
图103D是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第一工作位。
图104A是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第二工作位。
图104B是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第二工作位。
图105A是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第三工作位。
图105B是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第三工作位。
图106是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第四工作位。
图107A是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第五工作位。
图107B是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第五工作位。
图107C是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第五工作位。
图108A是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第六工作位。
图108B是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第六工作位。
图109A是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第七工作位。
图109B是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另 一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第七工作位。
图109C是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第七工作位。
图109D是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第七工作位。
图110A是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该定阀片的立体图。
图110B是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该动阀片的立体图。
图110C是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该定阀片的俯视图。
图110D是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该动阀片的俯视图。
图110E是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该定阀片的仰视图。
图110F是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的动阀片的仰视图。
图111A为上述依本发明第三较佳实施例的净化-软化水处理系统的该可选实施的结构示意图，其中该图所示的净化-软化水处理系统处在净化-软化工作状态，该图中箭头指向为水流方向。
图111B为上述依本发明第三较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯(或软化箱)反洗工作状态，该图中箭头指向为水流方向。
图111C为上述依本发明第三较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯(软化装置)正洗工作状态，该图中箭头指向为水流方向。
图111D为上述依本发明第三较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在补水工作状态，该图中箭头指向为水流方向。
图111E为上述依本发明第三较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在净化装置正洗工作状态，该图中箭头指向为水流方向。
图111F为上述依本发明第三较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在净化装置反洗工作状态，该图中箭头指向为水流方向。
图111G为上述依本发明第三较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯再生工作状态，该图中箭头指向为水流 方向。
图112A是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的定阀片的结构示意图。
图112B是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的平面阀的该可选实施的动阀片的结构示意图，其中该图中的虚线所示为该动阀片的导通通道。
图112C是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的定阀片的等分示意图,其中该图显示了各个通道被设置在该定阀片的具体等分位置。
图112D是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施的动阀片的等分示意图,其中该图显示了各个通道被设置在该动阀片的具体等分位置。
图113A是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第一工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图113B是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第二工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图113C是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第三工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图113D是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第四工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图113E是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第五工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图113F是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第六工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图113G是上述依本发明第三较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第七工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图114A显示的是依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施的立体图。
图114B显示的是依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施的剖视图。
图115显示的是依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施 的立体图。
图116显示的是依本发明第三较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施的立体图。
图117是依本发明第四较佳实施例的净化-软化水处理系统的正视示意图。
图118是上述依本发明第四较佳实施例的净化-软化水处理系统的装配示意图。
图119是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的立体图。
图120是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的装配图。
图121A是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的阀体的立体图。
图121B是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的阀体的另一立体图。
图122A是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的剖视图，其中该图显示该平面阀的内腔与该平面阀的阀体的第一开口相连通，也显示了该平面阀的定阀片的第八通道与该阀体的第六开口相连通。
图122B是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图显示该平面阀的阀体的第一开口、第二开口、第三开口、第四开口、第五开口、第六开口和第七开口。
图122C是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图显示了该平面阀的动阀片的第十一通道与该排污开口相连通。
图122D是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该定阀片和阀体的立体图。
图122E是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图显示了该平面阀的定阀片的第五通道。
图123A是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在一个第一工作位。
图123B是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第一工作位。
图123C是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第一工作位。
图123D是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第一工作位。
图124A是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在一个第二工作位。
图124B是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第二工作位。
图125A是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中 该图所示的本发明净化-软化水处理系统的平面阀处在一个第三工作位。
图125B是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第三工作位。
图126是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在一个第四工作位。
图127A是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在一个第五工作位。
图127B是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第五工作位。
图128A是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在一个第六工作位。
图128B是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第六工作位。
图129A是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统处在一个第七工作位。
图129B是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第七工作位。
图129C是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第七工作位。
图129D是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀处在该第七工作位。
图130A是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该定阀片的立体图。
图130B是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该动阀片的立体图。
图130C是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该定阀片的俯视图。
图130D是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该动阀片的俯视图。
图130E是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该定阀片的仰视图。
图130F是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该动阀片的仰视图。
图131A是上述依本发明第四较佳实施例的净化-软化水处理系统的结构示意图，其中该图所示的净化-软化水处理系统处在净化-软化工作状态，该图中箭头指向为水流方向。
图131B是上述依本发明第四较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯(或软化箱)反洗工作状态，该图中箭头指向为水流方向。
图131C是上述依本发明第四较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯(软化装置)正洗工作状态，该图中箭头指向为水流方向。
图131D是上述依本发明第四较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在补水工作状态，该图中箭头指向为水流方向。
图131E是上述依本发明第四较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在净化装置正洗工作状态，该图中箭头指向为水流方向。
图131F是上述依本发明第四较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在净化装置反洗工作状态，该图中箭头指向为水流方向。
图131G是上述依本发明第四较佳实施例的净化-软化水处理系统的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯再生工作状态，该图中箭头指向为水流方向。
图132A是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的定阀片的结构示意图。
图132B是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的动阀片的结构示意图，其中该图中的虚线所示为该动阀片的导通通道。
图132C是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的定阀片的等分示意图,其中该图显示了各个通道被设置在该定阀片的具体等分位置。
图132D是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的动阀片的等分示意图,其中该图显示了各个通道被设置在该动阀片的具体等分位置。
图133A是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀在其第一工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图133B是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀在其第二工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图133C是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀在其第三工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图133D是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀在其第四工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图133E是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀在其第五工作位时， 该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图133F是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀在其第六工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图133G是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀在其第七工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图134A是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的一种可选实施的立体图。
图134B是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的一种可选实施的剖视图。
图134C是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施的立体图。
图134D是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施的立体图。
图135显示的是依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施。
图136是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的装配图。
图137A是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的阀体的立体图。
图137B是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的阀体的另一立体图。
图138A是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的剖视图，其中该图显示该平面阀的内腔与该平面阀的阀体的第一开口相连通，也显示了该平面阀的定阀片的第八通道与该阀体的第六开口相连通。
图138B是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图显示了该平面阀的阀体的第一开口、第二开口、第三开口、第四开口、第五开口、第六开口和第七开口。
图138C是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图显示该平面阀的动阀片的第十一通道与该排污开口相连通。
图138D是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该定阀片和阀体的立体图。
图138E是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图显示了该平面阀的定阀片的第五通道。
图139A是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第一工作位。
图139B是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第一工作位。
图139C是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第一工作位。
图139D是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第一工作位。
图140A是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第二工作位。
图140B是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第二工作位。
图141A是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第三工作位。
图141B是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第三工作位。
图142是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第四工作位。
图143A是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第五工作位。
图143B是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第五工作位。
图143C是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第五工作位。
图144A是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第六工作位。
图144B是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第六工作位。
图145A是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在一个第七工作 位。
图145B是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第七工作位。
图145C是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第七工作位。
图145D是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的另一剖视图，其中该图所示的本发明净化-软化水处理系统的平面阀的该可选实施处在该第七工作位。
图146A是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该定阀片的立体图。
图146B是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该动阀片的立体图。
图146C是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该定阀片的俯视图。
图146D是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该动阀片的俯视图。
图146E是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的该定阀片的仰视图。
图146F是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的动阀片的仰视图。
图147A为上述依本发明第四较佳实施例的净化-软化水处理系统的该可选实施的结构示意图，其中该图所示的净化-软化水处理系统处在净化-软化工作状态，该图中箭头指向为水流方向。
图147B为上述依本发明第四较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯(或软化箱)反洗工作状态，该图中箭头指向为水流方向。
图147C为上述依本发明第四较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯(软化装置)正洗工作状态，该图中箭头指向为水流方向。
图147D为上述依本发明第四较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在补水工作状态，该图中箭头指向为水流方向。
图147E为上述依本发明第四较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在净化装置正洗工作状态，该图中箭头指向为水流方向。
图147F为上述依本发明第四较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在净化装置反洗工作状态，该图中箭头指向为水流方向。
图147G为上述依本发明第四较佳实施例的净化-软化水处理系统的该可选实施的另一结构示意图，其中该图所示的净化-软化水处理系统处在软化滤芯再生工作状态，该图中箭头指向为水流方向。
图148A是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的定阀片的结构示意图。
图148B是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的平面阀的该可选实施的动阀片的结构示意图，其中该图中的虚线所示为该动阀片的导通通道。
图148C是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的定阀片的等分示意图,其中该图显示了各个通道被设置在该定阀片的具体等分位置。
图148D是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施的动阀片的等分示意图,其中该图显示了各个通道被设置在该动阀片的具体等分位置。
图149A是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第一工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图149B是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第二工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图149C是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第三工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图149D是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第四工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图149E是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第五工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图149F是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第六工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图149G是上述依本发明第四较佳实施例的净化-软化水处理系统的平面阀的该可选实施在其第七工作位时，该平面阀的动阀片的通道和定阀片的通道之间的连通示意图，其中该图中的阴影部分所示为该平面阀的动阀片和定阀片的相互连通的通道。
图150A显示的是依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施的立体图。
图150B显示的是依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一种可选实 施的剖视图。
图151显示的是依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施的立体图。
图152显示的是依本发明第四较佳实施例的净化-软化水处理系统的平面阀的另一种可选实施的立体图。
图153显示的是上述依本发明较佳实施例的水处理方法的流程示意图。
图154显示的是上述依本发明较佳实施例的另一水处理方法的流程示意图。
具体实施方式
以下描述用于揭露本发明以使本领域技术人员能够实现本发明。以下描述中的优选实施例只作为举例，本领域技术人员可以想到其他显而易见的变型。在以下描述中界定的本发明的基本原理可以应用于其他实施方案、变形方案、改进方案、等同方案以及没有背离本发明的精神和范围的其他技术方案。
本领域技术人员应理解的是，在本发明的揭露中，术语“纵向”、“横向”、“上”、“下”、“前”、“后”、“左”、“右”、“竖直”、“水平”、“顶”、“底”“内”、“外”等指示的方位或位置关系是基于附图所示的方位或位置关系，其仅是为了便于描述本发明和简化描述，而不是指示或暗示所指的装置或元件必须具有特定的方位、以特定的方位构造和操作，因此上述术语不能理解为对本发明的限制。
可以理解的是，术语“一”应理解为“至少一”或“一个或多个”，即在一个实施例中，一个元件的数量可以为一个，而在另外的实施例中，该元件的数量可以为多个，术语“一”不能理解为对数量的限制。
下面结合附图和实施例，对本发明的具体实施方式作进一步详细描述。以下实施例仅用于示例性地说明本发明，而不是用来限制本发明的范围。
参考本发明附图之图1至图40G，依本发明第一较佳实施例的净化-软化水处理系统得以阐明，其适用于对原水或待处理水进行净化-软化处理，其中该净化-软化水处理系统包括一个流体阀10、一个净化装置20和一个软化装置30，其中该流体阀10包括一个阀体11和一个阀芯1，其中该阀体11形成一个内腔110、一个第一开口1101、一个第二开口1102、一个第三开口1103、一个第四开口1104、一个第五开口1105、一个第六开口1106和一个第七开口1107，其中该阀芯1被设置在该内腔110，其中依本发明第一较佳实施例的该净化-软化水处理系统具有一个第一工作状态、一个第二工作状态、一个第三工作状态、一个第四工作状态和一个第五工作状态，其中当该净化-软化水处理系统处在该第一工作状态时，该流体阀10形成一个分别与该阀体11的该第一开口1101和该第五开口1105相连通的第一连通通道1001和一个分别与该阀体11的该第二开口1102和该第七开口1107相连通的第二连通通道1002，当该净化-软化水处理系统处在该第二工作状态时，该流体阀10形成一个分别与该阀体11的该第一开口1101和该第七开口1107相连通的第三连通通道1003和一个分别与该阀体11的该第六开口1106和一个排污开口(或第八开口)1108相连通的第四连通通道1004，当该净化-软化水处理系统处在该第三工作状态时，该流体阀10形成一个分别与该阀体11的该第一开口1101和该第六开口1106相连通的第五连通通道1005和一个分别与该阀体11的该第七开口1107和该排污开口 1108相连通的第六连通通道1006，当该净化-软化水处理系统处在该第四工作状态时，该流体阀10形成一个分别与该阀体11的该第一开口1101和该第四开口1104相连通的第七连通通道1007，当该净化-软化水处理系统处在该第五工作状态时，该流体阀10形成一个分别与该阀体11的该第一开口1101和该第五开口1105相连通的第八连通通道1008和一个分别与该阀体11的该第六开口1106和该排污开口1108相连通的第九连通通道1009。优选地，依本发明第一较佳实施例的净化-软化水处理系统进一步具有一个第六工作状态和一个第七工作状态，其中当该净化-软化水处理系统处在该第六工作状态时，该流体阀10形成一个分别与该阀体11的该第五开口1105和该排污开口1108相连通的第十连通通道10010；当该净化-软化水处理系统处在该第七工作状态时，该流体阀10形成一个分别与该阀体11的该第一开口1101和该第三开口1103相连通的第十一连通通道10011。更优选地，当该净化-软化水处理系统处在该第六工作状态时，该流体阀10进一步形成一个分别与该阀体11的该第一开口1101和该第六开口1106相连通的第十二连通通道10012，当该净化-软化水处理系统处在该第七工作状态时，该流体阀10形成一个分别与该阀体11的该第七开口1107和该第四开口1104相连通的第十三连通通道10013和一个分别与该阀体11的该第六开口1106和该平面阀10的该排污开口1108相连通的第十四连通通道10014。
如附图之图1至图40G所示，依本发明第一较佳实施例的净化-软化水处理系统的流体阀10是一个平面阀，其中该平面阀10进一步包括一个动阀片13和一个定阀片12，其中该定阀片12具有一个第一流体控制面120，该动阀片13具有一个第二流体控制面130，其中该动阀片13和该定阀片12均被设置在该内腔110，其中该动阀片13的该第二流体控制面130被设置在该定阀片12的该第一流体控制面120，且该动阀片13被设置能够相对该定阀片12转动，其中该净化装置20具有一个第一连通开口201和一个第二连通开口202，其中该软化装置30包括一个软化箱31，其中该软化箱31具有一个第一导通开口301和一个第二导通开口302，其中该阀体11的该内腔110与该第一开口1101相连通，该净化装置20的该第一连通开口201与该阀体11的该第五开口1105相连通，该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301均与该阀体11的该第六开口1106相连通，该软化箱31的该第二导通开口302与该阀体11的该第七开口1107相连通。因此，当该流体阀10是一个平面阀时，该流体阀10的该阀芯1包括该动阀片13和该定阀片12。
如附图之图1至图40G所示，依本发明第一较佳实施例的净化-软化水处理系统的该软化装置30进一步包括一个射流器32和一个盐液箱33，其中该射流器32具有一个适于与该阀体11的该第三开口1103相连通的射出口321和一个适于与该阀体11的该第四开口1104相连通的射入口322，其中该盐液箱33适于与该射流器32相连通，从而使来自该盐液箱33的盐液能够通过该射流器32和该第四开口1104，和经该平面阀10流向该软化装置30的该软化箱31，从而使该软化箱31内的软化树脂得到再生。相应地，当本发明净化-软化水处理系统处于一个软化滤芯吸盐再生工作状态时，原水或待处理水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过一个第十一连通通道10011流入该第三开口1103，再流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11的该第四开口1104，然后通过一个第十三连通通道10013流入该第七开口1107，进入该软化箱31的该第二导通开口302，逆流再生该软化箱31 中的水处理材料或机构，如软化树脂后，从该第一导通开口301流出，然后流经该阀体11的该第六开口1106流入一个第十四连通通道10014，然后从该平面阀10的一个排污开口(或第八开口)1108流出。可以理解，尽管本发明仅示例性地描述通过射流器32向软化箱31提供盐液方式，然而，盐液也可以通过其它方式或机构经过该平面阀10的该第四开口1104被提供给该软化箱31。因此，通过射流器32向软化箱31提供盐液的方式并不应成为本发明的限制。
本领域技术人员能够理解，本发明净化-软化水处理系统的该平面阀10可进一步具有一个被设置在该阀体11的连接机构，如连接螺纹、卡接接头等，以便于该平面阀10与该净化-软化水处理系统的其它结构部件，如净化装置、软化装置等相连接，以引导水流分别流向净化装置、软化装置的软化箱和该平面阀10形成的各个连通通道。
如附图之图1至图40G所示，依本发明第一较佳实施例的该净化-软化水处理系统具有一个第一工作状态、一个第二工作状态、一个第三工作状态、一个第四工作状态和一个第五工作状态，其中当该净化-软化水处理系统处在该第一工作状态时，该平面阀10的该动阀片13和该定阀片12形成一个分别与该阀体11的该内腔110(或该第一开口1101)和该第五开口1105相连通的第一连通通道1001和一个分别与该阀体11的该第二开口1102和该第七开口1107相连通的第二连通通道1002，当该净化-软化水处理系统处在该第二工作状态时，该平面阀10的该动阀片13和该定阀片12形成一个分别与该阀体11的该内腔110(或该第一开口1101)和该第七开口1107相连通的第三连通通道1003和一个分别与该阀体11的该第六开口1106和该平面阀10的该排污开口1108相连通的第四连通通道1004，当该净化-软化水处理系统处在该第三工作状态时，该平面阀10的该动阀片13和该定阀片12形成一个分别与该阀体11的该内腔110(或该第一开口1101)和该第六开口1106相连通的第五连通通道1005和一个分别与该阀体11的该第七开口1107和该平面阀10的该排污开口1108相连通的第六连通通道1006，当该净化-软化水处理系统处在该第四工作状态时，该平面阀10的该动阀片13和该定阀片12形成一个分别与该阀体11的该内腔110(或该第一开口1101)和该第四开口1104相连通的第七连通通道1007，当该净化-软化水处理系统处在该第五工作状态时，该平面阀10的该动阀片13和该定阀片12形成一个分别与该阀体11的该内腔110(或该第一开口1101)和该第五开口1105相连通的第八连通通道1008和一个分别与该阀体11的该第六开口1106和该平面阀10的该排污开口1108相连通的第九连通通道1009。
如附图之图7A至图13D和图15A至图17G所示，当依本发明第一较佳实施例的净化-软化水处理系统处在该第一工作状态时，该平面阀10形成的该第一连通通道1001分别与该阀体11的该内腔110(或该第一开口1101)和该第五开口1105相连通，该第二连通通道1002分别与该阀体11的该第二开口1102和该第七开口1107相连通，从而允许原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该平面阀10形成的该第一连通通道1001、该阀体11的该第五开口1105、该净化装置20的该第一连通开口201流入该净化装置20，原水经过该净化装置20净化处理后得到的净水从该净化装置20的该第二连通开口202流出，净水流经该软化箱31的该第一导通开口301流入该软化箱31，并经软化处理后得到软化水，软化水从该软化箱31的该第二导通开口302流出，然后经该阀体11的该第七开口1107、该平面阀10的该第二连通通道1002，最后经该阀体11的该第二开口1102流出 和向用户供应软化水。优选地，该净化装置20的该第二连通开口202与一个供水出口401(或供水通路400)相连通，从而向使用者提供净水。因此，当该净化-软化水处理系统处在该第一工作状态时，本发明净化-软化水处理系统可同时向使用者提供净水和软化水。相应地，该净化-软化水处理系统的该第一工作状态对应于该净化-软化水处理系统的净化-软化工作状态。因此，当该净化-软化水处理系统处在该第一工作状态时，该阀体11的该第一开口1101(或该阀体11的该内腔110)、该阀体11的该第五开口1105、该净化装置20的该第一连通开口201、该净化装置20的该第二连通开口202、该软化装置30的该软化箱31的该第一导通开口301、该软化装置30的该软化箱31的该第二导通开口302、该阀体11的该第七开口1107和该阀体11的该第二开口1102被依次连通，从而形成一个将该净化装置20和该软化装置30串联在一起的水流通路，以使原水能够自该净化装置20流向该软化装置30和使原水依次被净化和软化处理。
如附图之图7A至图13D和图15A至图17G所示，当依本发明第一较佳实施例的净化-软化水处理系统处在该第二工作状态时，该平面阀10形成的该第三连通通道1003分别与该阀体11的该内腔110(或该第一开口1101)和该第七开口1107相连通，该第四连通通道1004分别与该阀体11的该第六开口1106和该平面阀10的该排污开口1108相连通，从而允许原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该平面阀10形成的该第三连通通道1003流入该第七开口1107，再经该软化箱31的该第二导通开口302流入该软化箱31，和对该软化箱31中的软化材料(或水处理材料)，如软化树脂等，反向冲洗后，得到的污水或废水从该软化箱31的该第一导通开口301流出，然后流经该阀体11的该第六开口1106流入该平面阀10的该第四连通通道1004，然后从该平面阀10的该排污开口1108流出。换句话说，当该净化-软化水处理系统处在该第二工作状态时，本发明净化-软化水处理系统可控制对软化滤芯，如软化箱31进行反向冲洗。相应地，该净化-软化水处理系统的该第二工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)反洗工作状态。
如附图之图7A至图13D和图15A至图17G所示，当依本发明第一较佳实施例的净化-软化水处理系统处在该第三工作状态时，该平面阀10形成的该第五连通通道1005分别与该阀体11的该内腔110(或该第一开口1101)和该第六开口1106相连通，该第六连通通道1006分别与该阀体11的该第七开口1107和该平面阀10的该排污开口1108相连通，从而允许原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该第五连通通道1005流入该第六开口1106，再进入该软化箱31的该第一导通开口301，对该软化箱31中的水处理材料或机构正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11的该第七开口1107流入该第六连通通道1006，然后从该平面阀10的该排污开口1108流出。换句话说，当该净化-软化水处理系统处在该第三工作状态时，本发明净化-软化水处理系统可控制对软化滤芯，如软化箱31进行正向冲洗。相应地，该净化-软化水处理系统的该第三工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)正洗工作状态。
如附图之图7A至图13D和图15A至图17G所示，当依本发明第一较佳实施例的净化-软化水处理系统处在该第四工作状态时，该平面阀10形成的该第七连通通道1007分别与该阀体11的该内腔110(或该第一开口1101)和该第四开口1104相连通，从而允许原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该第七连通通道1007流入该第四开口1104，再流入该射流器32 的该射入口322，向盐液箱33补水。换句话说，当该净化-软化水处理系统处在该第四工作状态时，本发明净化-软化水处理系统可控制向盐液箱33补水。相应地，该净化-软化水处理系统的该第四工作状态对应于该净化-软化水处理系统的盐液箱补水工作状态。
如附图之图7A至图13D和图15A至图17G所示，当依本发明第一较佳实施例的净化-软化水处理系统处在该第五工作状态时，该平面阀10形成的该第八连通通道1008分别与该阀体11的该内腔110(或该第一开口1101)和该第五开口1105相连通，该第九连通通道1009分别与该阀体11的该第六开口1106和该平面阀10的该排污开口1108相连通，从而允许原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该第八连通通道1008流入该第五开口1105，再进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11的该第六开口1106流入该第九连通通道1009，然后从该平面阀10的该排污开口1108流出。换句话说，当该净化-软化水处理系统处在该第五工作状态时，本发明净化-软化水处理系统可控制对净化装置20进行正向冲洗。相应地，该净化-软化水处理系统的该第五工作状态对应于该净化-软化水处理系统的净化装置正洗工作状态。
如附图之图7A至图13D和图15A至图17G所示，依本发明第一较佳实施例的净化-软化水处理系统进一步具有一个第六工作状态和一个第七工作状态，其中当该净化-软化水处理系统处在该第六工作状态时，该平面阀10的该动阀片13和该定阀片12形成一个分别与该阀体11的该第五开口1105和该平面阀10的该排污开口1108相连通的第十连通通道10010；当该净化-软化水处理系统处在该第七工作状态时，该平面阀10的该动阀片13和该定阀片12形成一个分别与该阀体11的该内腔110(或该第一开口1101)和该第三开口1103相连通的第十一连通通道10011。优选地，当该净化-软化水处理系统处在该第六工作状态时，该平面阀10的该动阀片13和该定阀片12进一步形成一个分别与该阀体11的该内腔110(或该第一开口1101)和该第六开口1106相连通的第十二连通通道10012，当该净化-软化水处理系统处在该第七工作状态时，该平面阀10的该动阀片13和该定阀片12形成一个分别与该阀体11的该第七开口1107和该第四开口1104相连通的第十三连通通道10013和一个分别与该阀体11的该第六开口1106和该平面阀10的该排污开口1108相连通的第十四连通通道10014。
如附图之图7A至图13D和图15A至图17G所示，当依本发明第一较佳实施例的净化-软化水处理系统处在该第六工作状态时，该平面阀10形成的该第十连通通道10010分别与该阀体11的该第五开口1105和该平面阀10的该排污开口1108相连通，该第十二连通通道10012分别与该阀体11的该内腔110(或该第一开口1101)和该第六开口1106相连通，从而允许原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该第十二连通通道10012流入该第六开口1106，再进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11的该第五开口1105流入该第十连通通道10010，然后从该平面阀10的该排污开口1108流出；当依本发明第一较佳实施例的净化-软化水处理系统处在该第七工作状态时，该平面阀10形成的该第十一连通通道10011分别与该阀体11的该内腔110(或该第一开口1101)和该第三开口1103相连通，该第十三连通通道10013分别与该阀体11的该第七开口1107和该第四开口1104相连通，该第十四连通通道10014分别与该阀体11的该第六开口1106和该 平面阀10的该排污开口1108相连通，从而允许原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该第十一连通通道10011流入该第三开口1103，再流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11的该第四开口1104，然后通过该第十三连通通道10013流入该第七开口1107，进入该软化箱31的该第二导通开口302，逆流再生该软化箱31中的软化树脂后，从该第一导通开口301流出，然后流经该阀体11的该第六开口1106流入该第十四连通通道10014，然后从该平面阀10的该排污开口1108流出。相应地，该净化-软化水处理系统的该第六工作状态对应于该净化-软化水处理系统的净化装置反洗工作状态，该净化-软化水处理系统的该第七工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)再生工作状态。
相应地，如附图之图7A至图13D和图15A至图17G所示，依本发明第一较佳实施例的净化-软化水处理系统的该流体阀(或平面阀)10具有一个第一工作位、一个第二工作位、一个第三工作位、一个第四工作位、一个第五工作位、一个第六工作位和一个第七工作位，其中当该流体阀(或平面阀)10处在该第一工作位时，该流体阀10的该阀芯1形成该第一连通通道1001和该第二连通通道1002，当该流体阀(或平面阀)10处在该第二工作位时，该流体阀10的该阀芯1形成该第三连通通道1003和该第四连通通道1004，当该流体阀(或平面阀)10处在该第三工作位时，该流体阀10的该阀芯1形成该第五连通通道1005和该第六连通通道1006，当该流体阀(或平面阀)10处在该第四工作位时，该流体阀10的该阀芯1形成该第七连通通道1007，当该流体阀(或平面阀)10处在该第五工作位时，该流体阀10的该阀芯1形成该第八连通通道1008和该第九连通通道1009；当该流体阀(或平面阀)10处在该第六工作位时，该流体阀10的该阀芯1形成该第十连通通道10010；当该流体阀(或平面阀)10处在该第七工作位时，该流体阀10的该阀芯1形成该第十一连通通道10011。更优选地，当该流体阀(或平面阀)10处在该第六工作位时，该流体阀10的该阀芯1进一步形成该第十二连通通道10012，当该流体阀(或平面阀)10处在该第七工作位时，该流体阀10的该阀芯1进一步形成该第十三连通通道10013和该第十四连通通道10014。
如附图之图1和图2、图15A至图17G所示，依本发明第一较佳实施例的净化-软化水处理系统进一步具有一个供水单元40，其中该供水单元40形成一个供水通路400，其中该供水通路400被设置与该净化装置20的该第二连通开口202相连通，以向使用者提供净水。如附图之图1和图2、图15A至图17G所示，该供水单元40包括一个净水管道(或净水管)41和一个流体阀42，其中该流体阀42被设置在该净水管道41，以控制向使用者提供净水。可以理解，该净水管道41形成该供水出口401。优选地，该流体阀42是一个电动球阀或电动平面阀，以便于使用者通过一个控制装置16自动控制净水的提供。因此，该净化装置20的该第二连通开口202分别与该平面阀10的该第六开口1106、该软化箱31的该第一导通开口301和该供水通路400(或该供水出口401)相连通。此外，该平面阀10的该第六开口1106进一步与该软化箱31的该第一导通开口301相连通。
如附图之图7A至图17G所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10具有一个第一通道101，一个第二通道102，一个第三通道103，一个第四通道104、一个第五通道105、一个第六通道106、一个第七通道107、一个第八通道108、一个第九通道109、一个第十通道1010 和一个第十一通道1011，其中该第一通道101、该第二通道102、该第三通道103、该第四通道104、该第五通道105、该第六通道106、该第七通道107和该第八通道108分别设于该定阀片12并分别自该定阀片12的该第一流体控制面120延伸；该第九通道109、该第十通道1010和该第十一通道1011分别设于该动阀片13并分别自该动阀片13的该第二流体控制面130延伸，该第一通道101和该第二通道102分别与该第五开口1105相连通，该第三通道103和该第四通道104分别与该第七开口1107相连通，该第五通道105与该第二开口1102相连通，该第六通道106与该第三开口1103相连通，该第七通道107与该第四开口1104相连通，该第八通道108与该第六开口1106相连通，该第九通道109与该阀体11的该内腔110相连通，该第十一通道1011与该排污开口1108相连通。优选地，该排污开口1108被设置在该平面阀10的该阀体11，且该排污开口1108通过一个排污通道150与该第十一通道1011相连通。因此，可选地，该平面阀10的该排污开口1108形成在该动阀片13，且该平面阀10的该排污开口1108分别与该第十一通道1011和该排污通道150相连通。可以理解，本发明该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301与该阀体11的该第六开口1106的连通可通过多种方式实现。如附图之图6A所示，该阀体11的该第六开口1106可通过一个分别与该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301相连通的连通管路(或三通管路)实现该净化装置20的该第二连通开口202、该软化箱31的该第一导通开口301和该阀体11的该第六开口1106之间的连通。可选地，该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301与该阀体11的该第六开口1106的连通也可通过被设置在该阀体11的连通通路实现，其中该连通通路可被设置分别与该净化装置20的该第二连通开口202和该阀体11的该第六开口1106相连通，和分别与该软化箱31的该第一导通开口301和该阀体11的该第六开口1106相连通。因此，该阀体11的该第八通道108、该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301通过该阀体11的该第六开口1106形成一个三通结构。此外，为了确保该阀体11的该内腔110中的水进入该第九通道109，该第九通道109被设置可通过一个始终与外部空间相连通的进水口1091保持始终与该阀体11的该内腔110相连通。
值得注意的是，该平面阀10的该第一通道101和该第二通道102分别与该第五开口1105的连通，可以是分别地和独自地与该第五开口1105相连通，也可以通过一个流体通道相连通；该平面阀10的该第三通道103和该第四通道104分别与该第七开口1107的连通，可以是分别地和独自地与该第七开口1107相连通，也可以通过一个流体通道相连通。例如，如附图之图1至图17G所示，该平面阀10的该第一通道101和该第二通道102通过一个第一流体通道1211相连通，该第二通道102被设置直接与该第五开口1105相连通，从而使该第一通道101通过该第一流体通道1211和该第二通道102，也与该第五开口1105相连通；该平面阀10的该第三通道103和该第四通道104分别单独地与该第七开口1107相连通。可选地，如附图之图18A和图18B所示，该第一通道101被设置直接与该第五开口1105相连通，该第二通道102通过该第一流体通道1211和该第一通道101，也与该第五开口1105相连通。或者可选地，该平面阀10的该第一通道101和该第二通道102可分别地和独自地与该第五开口1105相连通；或者可选地，如附图之图18C所示，该平面阀10的该第三通道103和该第四通道104通过一个第二流体通道1212相连通，该第三通道103被设置直接与该第七开口1107相连通，从而使该第四 通道104通过该第二流体通道1212和该第三通道103，也与该第七开口1107相连通；或者可选地，如附图之图18D所示，该平面阀10的该第三通道103和该第四通道104通过一个第二流体通道1212相连通，该第四通道104被设置直接与该第七开口1107相连通，从而使该第三通道103通过该第二流体通道1212和该第四通道104，也与该第七开口1107相连通。可以理解，进一步地，该第一流体通道1211和该第二流体通道1212可被设置在该定阀片12的该第一流体控制面120，也可被设置在该阀体11或该定阀片12的内部。可以理解，该平面阀10的该第一通道101和该第二通道102分别与该第五开口1105的连通，和该平面阀10的该第三通道103和该第四通道104分别与该第七开口1107的连通，也可以是通过其它方式的连通。
如附图之图17A至图17G所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10的该动阀片13能够相对定阀片12转动从而使得该平面阀10具有一个第一工作位，一个第二工作位，一个第三工作位，一个第四工作位和一个第五工作位，其中当平面阀10处于该第一工作位时，该平面阀10的该第九通道109与该第一通道101相连通，该第十通道1010分别与该第三通道103和该第五通道105相连通；当该平面阀10处于该第二工作位时，该平面阀10的该第九通道109与该第四通道104相连通，该第十一通道1011与该第八通道108相连通；当该平面阀10处于该第三工作位时，该平面阀10的该第九通道109与该第八通道108相连通，该平面阀10的该第十一通道1011与该第三通道103相连通；当该平面阀10处于该第四工作位时，该平面阀10的该第九通道109与该第七通道107相连通；当该平面阀10处于该第五工作位时，该平面阀10的该第九通道109与该第二通道102相连通，该平面阀10的该第十一通道1011与该第八通道108相连通。
如附图之图17F至图17G所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10进一步具有一个第六工作位和一个第七工作位，其中当该平面阀10处于该第六工作位时，该平面阀10的该第十一通道1011与该第一通道101相连通；当平面阀10处于该第七工作位时，该平面阀10的该第九通道109与该第六通道106相连通。
更进一步地，当该平面阀10处于该第六工作位时，该第八通道108与该第九通道109相连通，当该平面阀10处于该第七工作位时，该第十通道1010分别与该第四通道104和该第七通道107相连通，该第十一通道1011与该第八通道108相连通。
可以理解，当该平面阀10处于该第一工作位时，依本发明第一较佳实施例的净化-软化水处理系统被控制处在该净化-软化工作状态，该平面阀10的该第九通道109与该第一通道101相连通，从而形成该第一连通通道1001，该第十通道1010分别与该第三通道103和该第五通道105相连通，从而形成该第二连通通道1002；当该平面阀10处于该第二工作位时，依本发明第一较佳实施例的净化-软化水处理系统被控制处在该软化滤芯(软化装置)反洗工作状态，该平面阀10的该第九通道109与该第四通道104相连通，从而形成该第三连通通道1003，该第十一通道1011与该第八通道108相连通，从而形成该第四连通通道1004；当该平面阀10处于该第三工作位时，依本发明第一较佳实施例的净化-软化水处理系统被控制处在该软化滤芯(软化装置)正洗工作状态，该平面阀10的该第九通道109与该第八通道108相连通，从而形成该第五连通通道1005，该平面阀10的该第十一通道1011与该第三通道103相连通，从而形成该第六连通通道1006；当该平面阀10处于该第四工作位时，依 本发明第一较佳实施例的净化-软化水处理系统被控制处在该盐液箱补水工作状态，该平面阀10的该第九通道109与该第七通道107相连通，从而形成该第七连通通道1007；该平面阀10处于该第五工作位时，依本发明第一较佳实施例的净化-软化水处理系统被控制处在该净化装置正洗工作状态时，该平面阀10的该第九通道109与该第二通道102相连通，从而形成该第八连通通道1008，该平面阀10的该第十一通道1011与该第八通道108相连通，从而形成该第九连通通道1009。进一步地，当该平面阀10处于该第六工作位时，依本发明第一较佳实施例的净化-软化水处理系统被控制处在该净化装置反洗工作状态，该平面阀10的该第十一通道1011与该第一通道101相连通，从而形成该第十连通通道10010；当该平面阀10处于该第七工作位时，依本发明第一较佳实施例的净化-软化水处理系统被控制处在该软化滤芯再生工作状态，该平面阀10的该第九通道109与该第六通道106相连通，从而形成该第十一连通通道10011。更进一步地，当该平面阀10处于该第六工作位时，该第八通道108与该第九通道109相连通，从而形成该第十二连通通道10012，当该平面阀10处于该第七工作位时，该第十通道1010分别与该第四通道104和该第七通道107相连通，从而形成该第十三连通通道10013，该第十一通道1011与该第八通道108相连通，从而形成该第十四连通通道10014。可以理解，该第十一通道1011可以是一个被设置在该动阀片13的通孔，其中该第十一通道1011自该动阀片13的该第二流体控制面130向上延伸至其相对的另一面，从而在相应的工作位将污水或废水向上排出至该排污通道150。可以理解，当该平面阀10处于该第一工作位时，该平面阀10的该第十通道1010分别与该第三通道103和该第五通道105相连通,且该平面阀10的该动阀片13将该第五通道105与该阀体11的该内腔110相隔开，以防止该阀体11的该内腔110内的原水进入该第五通道105。
如附图之图1至图17G所示，相应地，当该平面阀10处于第一工作位时，该水处理机处于净化-软化工作状态，原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该动阀片13的该第九通道109流入该定阀片12的该第一通道101，然后通过该阀体11的该第五开口1105进入该净化装置20的该第一连通开口201，经过该净化装置20的水处理材料或机构处理后，从该净化装置20的该第二连通开口202流出，然后流入该软化箱31的该第一导通开口301，经过该软化箱31内的软化树脂处理后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11的该第七开口1107进入该定阀片12的该第三通道103，经过该动阀片13的该第十通道1010导流进入该定阀片12的该第五通道105，然后经过该阀体11的该第二开口1102向用户供应处理后水；当该平面阀10处于第二工作位时，该水处理机处于该软化滤芯(软化装置)反洗工作状态，原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该动阀片13的该第九通道109流入该定阀片12的该第四通道104，然后通过该阀体11的该第七开口1107进入该软化箱31的该第二导通开口302，对该软化箱31中的软化树脂反向冲洗后，从该软化箱31的该第一导通开口301流出，然后流经该阀体11的该第六开口1106，再流经该定阀片12的该第八通道108和该动阀片13的该第十一通道1011，再从该平面阀10的该排污开口1108流出；当该平面阀10处于第三工作位时，该水处理机处于该软化滤芯(软化装置)正洗工作状态，原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该动阀片13的该第九通道109流入该定阀片12的该第八通道108，然后通过该阀体11的该第六开口1106进入该软化箱31的该第一导通开口301，对该软化箱31中的软化树脂正向冲洗后，从该软化箱31的 该第二导通开口302流出，然后流经该阀体11的该第七开口1107，再流经该定阀片12的该第三通道103和该动阀片13的该第十一通道1011，再从该平面阀10的该排污开口1108流出；当该平面阀10处于第四工作位时，该水处理机处于该盐液箱补水工作状态，原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该动阀片13的该第九通道109流入该定阀片12的该第七通道107，然后流经该阀体11的该第四开口1104流入该射流器32的该射入口322，向盐液箱33补水；当该平面阀10处于第五工作位时，该水处理机处于该净化装置正洗工作状态，原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该动阀片13的该第九通道109流入该定阀片12的该第二通道102，然后通过该阀体11的该第五开口1105进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11的该第六开口1106，进入该定阀片12的该第八通道108，再流经该动阀片13的该第十一通道1011从该平面阀10的该排污开口1108流出。进一步地，当该平面阀10处于第六工作位时，该水处理机处于净化装置反洗工作状态，原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该动阀片13的该第九通道109流入该定阀片12的该第八通道108，然后通过该阀体11的该第六开口1106进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11的该第五开口1105，进入该定阀片12的该第一通道101，再流经该动阀片13的该第十一通道1011从该平面阀10的该排污开口1108流出；当该平面阀10处于第七工作位时，该水处理机处于该软化滤芯再生工作状态，原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该动阀片13的该第九通道109流入该定阀片12的该第六通道106，然后通过该阀体11的该第三开口1103流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11的该第四开口1104，然后进入该定阀片12的该第七通道107，再经过动阀片13的该第十通道1010导流进入该定阀片12的该第四通道104，然后流经该阀体11的该第七开口1107进入该软化箱31的该第二导通开口302，逆流再生该软化箱31中的如软化树脂后，从该第一导通开口301流出，然后流经该阀体11的该第六开口1106进入该定阀片12的该第八通道108，再通过该动阀片13的该第十一通道1011，从该平面阀10的该排污开口1108流出。
如附图之图17A至图17G所示，优选地，当该平面阀10处于第一工作位时，该平面阀10的该第二通道102、该第四通道104和该第八通道108分别被该动阀片13封闭；当该平面阀10处于第二工作位时，该平面阀10的该第一通道101和该第三通道103分别被该动阀片13封闭；当平面阀10处于第三工作位时，该平面阀10的该第二通道102和该第四通道104分别被该动阀片13封闭；当该平面阀10处于第四工作位时，该平面阀10的该第六通道106被该动阀片13封闭；当该平面阀10处于第五工作位时，该平面阀10的该第一通道101、该第三通道103和该第四通道104分别被该动阀片13封闭；当该平面阀10处于第六工作位时，该平面阀10的该第二通道102、该第三通道103和该第四通道104分别被该动阀片13封闭；当该平面阀10处于第七工作位时，该平面阀10的该第一通道101、该第二通道102和该第三通道103分别被该动阀片13封闭。
如附图之图17A至图17G所示，更优选地，当该平面阀10处于第二工作位时，该平面阀10的该 第六通道106和该第七通道107分别被该动阀片13封闭；当该平面阀10处于第三工作位时，该第十通道1010分别与该第一通道101和该第八通道108相连通，该平面阀10的该第六通道106和该第七通道107分别被该动阀片13封闭；当该平面阀10处于第四工作位时，该平面阀10的该第一通道101和该第三通道103分别被该动阀片13封闭；当该平面阀10处于第五工作位时，该平面阀10的该第六通道106和该第七通道107分别被该动阀片13封闭；当该平面阀10处于第六工作位时，该平面阀10的该第十通道1010与该第八通道108相连通，该平面阀10的该第六通道106和该第七通道107分别被该动阀片13封闭。
如附图之图17A至图17G所示，最优选地，当该平面阀10处于第一工作位时，该平面阀10的该第六通道106和该第七通道107被该动阀片13封闭，该第十一通道1011被该定阀片12封闭；当该平面阀10处于第二工作位时，该平面阀10的该第十通道1010分别与该第二通道102和该第八通道108相连通，该平面阀10的该第五通道105被该动阀片13封闭；当该平面阀10处于第三工作位时，该平面阀10的该第五通道105被该动阀片13封闭；当该平面阀10处于第四工作位时，该平面阀10的该第十通道1010分别与该第二通道102和该第四通道104相连通，该第十一通道1011与该第八通道108相连通，该平面阀10的该第五通道105被该动阀片13封闭；当该平面阀10处于第五工作位时，该平面阀10的该第十通道1010与该第八通道108相连通，该平面阀10的该第五通道105被该动阀片13封闭；当该平面阀10处于第六工作位时，该平面阀10的该第五通道105被该动阀片13封闭；当该平面阀10处于第七工作位时，该平面阀10的该第五通道105被该动阀片13封闭。
值得注意的是该平面阀10的该第一通道101、该第二通道102、该第三通道103、该第四通道104、该第五通道105、该第六通道106、该第七通道107和该第八通道108分别相隔开地设于该定阀片12的该第一流体控制面120；该第九通道109、该第十通道1010和该第十一通道1011分别相隔开地设于该动阀片13的该第二流体控制面130。换句话说，该平面阀10的该第一通道101、该第二通道102、该第三通道103、该第四通道104、该第五通道105、该第六通道106、该第七通道107和该第八通道108分别形成一个被设置在该定阀片12的该第一流体控制面120的通道开口，该第九通道109、该第十通道1010和该第十一通道1011分别形成一个被设置在该动阀片13的该第二流体控制面130的通道开口，当该平面阀10的该动阀片13被面(该第二流体控制面130)对面(该第一流体控制面120)设置，且该动阀片13相对该定阀片12转动时，被设置在该动阀片13的通道和被设置在该定阀片12的通道通过相应的通道开口选择性地相连通，从而形成相应的连通通道和控制流体(如水流)的流动方向。
可以理解，该平面阀10的该第一通道101、该第二通道102、该第三通道103、该第四通道104、该第五通道105、该第六通道106、该第七通道107、该第八通道108、该第九通道109、该第十通道1010和该第十一通道1011可具有任何能够实现本文中相互连通关系的延伸路径(或方向)；该平面阀10的该第一通道101、该第二通道102、该第三通道103、该第四通道104、该第五通道105、该第六通道106、该第七通道107和该第八通道108分别形成在该定阀片12的该第一流体控制面120的通道开口，和该第九通道109、该第十通道1010和该第十一通道1011分别形成在该动阀片13的该第二流体控制面130的通道开口，可具有任何能够实现本文中相互连通关系的形状。例如，该第八通道108 形成在该定阀片12的该第一流体控制面120的通道开口可被设置具有一个规则形状，也可被设置为具有一个不规则形状。因此，该平面阀10的该第一通道101、该第二通道102、该第三通道103、该第四通道104、该第五通道105、该第六通道106、该第七通道107、该第八通道108、该第九通道109、该第十通道1010和该第十一通道1011的延伸路径(或方向)和其通道开口的形状不应成为对本发明的限制。
如附图之图14A至图16D所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10的该第一通道101、该第八通道108、该第二通道102、该第四通道104、该第七通道107、该第六通道106、该第三通道103和该第五通道105以此顺序顺时针地排布在该定阀片12；该平面阀10的该第十一通道1011、该第十通道1010和该第九通道109以此顺序顺时针地排布在该动阀片13。可选地，该平面阀10的该第一通道101、该第八通道108、该第二通道102、该第四通道104、该第七通道107、该第六通道106、该第三通道103和该第五通道105以此顺序逆时针地排布在该定阀片12；该平面阀10的该第十一通道1011、该第十通道1010和该第九通道109以此顺序逆时针地排布在该动阀片13。
如附图之图14A至图14F和图16A至图16D所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10的该定阀片12具有一个第一中心部121和一个自该第一中心部121向外延伸的第一延伸部122，该动阀片13具有一个第二中心部131和一个自该第二中心部131向外延伸的第二延伸部132，其中该定阀片12的该第一流体控制面120具有一个图中点划线所示的中心部分1200，其中该中心部分1200被设于该定阀片12的该第一中心部121，且该第一流体控制面120的中心部分1200之外的部分被顺时针等分为点划线所示的一个第一部分1201、一个第二部分1202、一个第三部分1203、一个第四部分1204、一个第五部分1205、一个第六部分1206、一个第七部分1207、一个第八部分1208、一个第九部分1209、一个第十部分12010和一个第十一部分12011；该平面阀10的该动阀片13的该第二流体控制面130具有一个图中点划线所示的中心区域1300，其中该中心区域1300设于该动阀片13的该第二中心部131，且该第二流体控制面130的中心区域1300之外的部分被顺时针等分为点划线所示的一个第一区域1301、一个第二区域1302、一个第三区域1303、一个第四区域1304、一个第五区域1305、一个第六区域1306、一个第七区域1307、一个第八区域1308、一个第九区域1309、一个第十区域13010和一个第十一区域13011；其中该第一通道101自第一流体控制面120的该第一部分1201向下延伸；该第八通道108自该定阀片12的该第一流体控制面120的该第二部分1202、该第三部分1203、该第四部分1204和该第五部分1205向下延伸；该第二通道102自该定阀片12的该第一流体控制面120的该第六部分1206向下延伸；该第四通道104自该定阀片12的该第一流体控制面120的该第七部分1207向下延伸；该第七通道107自该第一流体控制面120的该第八部分1208向下延伸；该第六通道106自该第一流体控制面120的该第九部分1209向下延伸；该第三通道103自该第一流体控制面120的该第十部分12010向下延伸；该第五通道105自该第一流体控制面120的该第十一部分12011向下延伸；该第九通道109自该第二流体控制面130的该第一区域1301向上延伸；该第十一通道1011自该第二流体控制面130的该第八区域1308向上延伸；该第十通道1010自该第二流体控制面130的该第十区域13010和该第十一区域13011向上延伸。
可选地，该平面阀10的定阀片12的第一流体控制面120和动阀片13的该第二流体控制面130均为 圆形，该第一通道101、该第二通道102、该第三通道103、该第四通道104、该第五通道105、该第六通道106、该第七通道107和该第八通道108均沿径向设于该定阀片12的该第一流体控制面120，且该第九通道109和该第十通道1010均沿径向设于该动阀片13的该第二流体控制面130。
优选地，该平面阀10的该第一通道101自该定阀片12的该第一流体控制面120向下和向外延伸、该第二通道102自该定阀片12的该第一流体控制面120向下和向外延伸、该第三通道103自该定阀片12的该第一流体控制面120向下和向外延伸、该第四通道104自该定阀片12的第一流体控制面120向下和向外延伸、该第五通道105自该定阀片12的第一流体控制面120向下和向外延伸、该第六通道106自该定阀片12的第一流体控制面120向下和向外延伸、该第七通道107自该定阀片12的第一流体控制面120向下和向外延伸、该第八通道108自该定阀片12的该第一流体控制面120向下和向外延伸。
如附图之图1至图6D所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10的该阀体11具有一个内壁111，其中该定阀片12适于该第一流体控制面120朝上地设于该内腔110，和该动阀片13适于该第二流体控制面130朝下地设于该内腔110，其中该内腔110始终与该第九通道109相连通。值得注意的是，该平面阀10的该定阀片12可以被可拆卸地设置在该阀体11的内壁111，也可以与该平面阀10的该阀体11的该内壁111相一体成型。本领域技术人员可以理解，当该定阀片12被可拆卸地设置在该阀体11内时，该定阀片12和该阀体11之间通过一个固定机构来保持该定阀片12和该阀体11之间的同步。例如，如附图之图1至图6D所示，该定阀片12具有一个自该定阀片12的边缘向外突出的制动件123，该阀体11的该内壁111具有一个制动槽1110，其中该定阀片12的该制动件123被设置能够与该阀体11的该内壁111的该制动槽1110相啮合，以确保该定阀片12和该阀体11之间相同步(或不会发生相对转动)和确保被设置在该定阀片12的各个通道与被设置在该阀体11的相应开口相连通。可以理解，当该定阀片12被可拆卸地设置在该阀体11内时，该定阀片12可被单独制造。换句话说，此时，该定阀片12可由耐磨材料制成，从而提高该定阀片12(或整个平面阀)的使用寿命。优选地，该定阀片12的该第一流体控制面120经平滑处理以减小其粗糙程度。
如附图之图1至图6D所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10进一步包括一个导流元件15，其中该导流元件15形成该排污通道150，其中该导流元件15被设置自该动阀片13向上延伸且该导流元件15的该排污通道150分别与该平面阀的该排污开口1108和该第十一通道1011相连通(该排污开口1108被设置在该平面阀10的该阀体11)，或者该排污通道150直接与该排污开口1108相连通(该排污开口1108被设置在该平面阀10的该动阀片13，并与该第十一通道1011相连通)，以使污水或废水可自其流出。
如附图之图1至图6D所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10进一步包括一个自该动阀片13向上延伸的驱动元件18，其中该驱动元件18被设置能够驱动该平面阀10的该动阀片13相对该定阀片12发生转动。优选地，该驱动元件18与该导流元件15相一体成型。可选地，该驱动元件18与该导流元件15为两个独立的机构。
如附图之图1至图6D所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10进一步包括一个密封元件17，其中该密封元件17被设置与该驱动元件18相面对面，其中该密封元件17形成一个第一密封面170，该驱动元件18形成一个第二密封面180，其中该密封元件17的该第一密封 面170被设置在该驱动元件18的该第二密封面180，从而使得当该驱动元件18相对该密封元件17转动，以驱动该动阀片13相对该定阀片12转动时，该驱动元件18和该密封元件17之间被密封和防止水的泄漏。此外，该密封元件17被设置能够保持该驱动元件18处于适当位置，从而保持该动阀片13处于一个预设位置。
如附图之图7A至图7D所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10的该动阀片13的直径被设置稍小于该阀体11的内腔110的直径，从而使得该平面阀10的该第九通道109可通过该进水口1091保持与该阀体11的该内腔110相连通。
如附图之图1至图17G所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10的该控制装置16被设置能够根据一个净化-软化控制指令，通过一个传动机构14，如传动齿轮，驱动该驱动元件18转动，以驱动该平面阀10的该动阀片13相对该定阀片12转动，从而形成一个分别与该平面阀10的该阀体11的该内腔110和该第五开口1105相连通的第一连通通道1001和一个分别与该阀体11的该第二开口1102和该第七开口1107相连通的第二连通通道1002，以允许原水自该阀体11的该内腔110，经过该平面阀10形成的该第一连通通道1001、该阀体11的该第五开口1105、该净化装置20的该第一连通开口201流入该净化装置20，原水经过该净化装置20净化处理后得到的净水从该净化装置20的该第二连通开口202流出，净水可经该软化箱31的该第一导通开口301流入该软化箱31，并经软化处理后得到软化水，软化水从该软化箱31的该第二导通开口302流出，然后经该阀体11的该第七开口1107、该平面阀10的该第二连通通道1002，最后经该阀体11的该第二开口1102流出和向用户供应软化水；根据一个软化滤芯(软化装置)反洗控制指令，通过该传动机构14，如传动齿轮，驱动该驱动元件18转动，以驱动该平面阀10的该动阀片13相对该定阀片12转动，从而形成一个分别与该平面阀10的该阀体11的该内腔110和该第七开口1107相连通的第三连通通道1003和一个分别与该阀体11的该第六开口1106和该平面阀10的该排污开口1108相连通的第四连通通道1004，以允许原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该平面阀10形成的该第三连通通道1003流入该第七开口1107，再经该软化箱31的该第二导通开口302流入该软化箱31，和对该软化箱31中的软化材料(或水处理材料)，如软化树脂等，反向冲洗后，得到的污水或废水从该软化箱31的该第一导通开口301流出，然后流经该阀体11的该第六开口1106流入该平面阀10的该第四连通通道1004，然后从该平面阀10的该排污开口1108流出；根据一个软化滤芯(软化装置)正洗控制指令，通过该传动机构14，如传动齿轮，驱动该驱动元件18转动，以驱动该平面阀10的该动阀片13相对该定阀片12转动，从而形成一个分别与该阀体11的该内腔110和该第六开口1106相连通的第五连通通道1005和一个分别与该阀体11的该第七开口1107和该平面阀10的该排污开口1108相连通的第六连通通道1006，以允许原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该第五连通通道1005流入该第六开口1106，再进入该软化箱31的该第一导通开口301，对该软化箱31中的水处理材料或机构正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11的该第七开口1107流入该第六连通通道1006，然后从该平面阀10的该排污开口1108流出；根据一个补水控制指令，通过该传动机构14，如传动齿轮，驱动该驱动元件18转动，以驱动该平面阀10的该动阀片13相对该定阀片12转动，从而形成一个分别与该阀体11的该内腔110和该第四开口 1104相连通的第七连通通道1007，以允许原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该第七连通通道1007流入该第四开口1104，再流入该射流器32的该射入口322，向盐液箱33补水；根据一个净化装置正洗控制指令，通过该传动机构14，如传动齿轮，驱动该驱动元件18转动，以驱动该平面阀10的该动阀片13相对该定阀片12转动，从而形成一个分别与该阀体11的该内腔110和该第五开口1105相连通的第八连通通道1008和一个分别与该阀体11的该第六开口1106和该平面阀10的该排污开口1108相连通的第九连通通道1009，以允许原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该第八连通通道1008流入该第五开口1105，再进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11的该第六开口1106流入该第九连通通道1009，然后从该平面阀10的该排污开口1108流出。
如附图之图1至图17G所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10的该控制装置16进一步被设置能够根据一个净化装置反洗控制指令，通过该传动机构14，如传动齿轮，驱动该驱动元件18转动，以驱动该平面阀10的该动阀片13相对该定阀片12转动，从而形成一个分别与该阀体11的该第五开口1105和该平面阀10的该排污开口1108相连通的第十连通通道10010和一个分别与该阀体11的该内腔110和该第六开口1106相连通的第十二连通通道10012，以允许原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该第十二连通通道10012流入该第六开口1106，再进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11的该第五开口1105流入该第十连通通道10010，然后从该平面阀10的该排污开口1108流出。
如附图之图1至图17G所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10的该控制装置16进一步被设置能够根据一个软化滤芯再生控制指令，通过该传动机构14，如传动齿轮，驱动该驱动元件18转动，以驱动该平面阀10的该动阀片13相对该定阀片12转动，从而形成一个分别与该阀体11的该内腔110和该第三开口1103相连通的第十一连通通道10011、一个分别与该阀体11的该第七开口1107和该第四开口1104相连通的第十三连通通道10013和一个分别与该阀体11的该第六开口1106和该平面阀10的该排污开口1108相连通的第十四连通通道10014，以允许原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该第十一连通通道10011流入该第三开口1103，再流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11的该第四开口1104，然后通过该第十三连通通道10013流入该第七开口1107，进入该软化箱31的该第二导通开口302，逆流再生该软化箱31中的软化树脂后，从该第一导通开口301流出，然后流经该阀体11的该第六开口1106流入该第十四连通通道10014，然后从该平面阀10的该排污开口1108流出。
值得注意的是，该控制指令，如净化-软化控制指令、软化装置反洗控制指令、软化装置正洗控制指令、补水控制指令、净化装置正洗控制指令、净化装置反洗控制指令、软化滤芯再生控制指令等控制指令，可以被预设在该控制装置16的控制模块，也可以通过一个电子通讯网络接收自一个控制终端，或者由使用者通过一个输入界面输入。例如，当本发明净化-软化水处理系统的被设置 具有一个用于该平面阀10的输入界面，如触控板或控制按钮时，使用者可通过触控面板或相应的控制按钮向该控制装置16的控制模块发送上述控制指令，以使该控制装置16的控制模块控制该控制装置16的电机转动，从而通过一个传动机构14驱动该驱动元件18转动。
附图之图1和图2、图19至图33G显示的是依本发明第一较佳实施例的净化-软化水处理系统的该平面阀(或流体阀)10的一种可选实施，其适用于控制净化-软化水处理系统对原水或待处理水进行净化-软化处理，其中该平面阀10′包括一个阀体11′和一个阀芯1′，其中该阀芯1′包括一个动阀片13′和一个定阀片12′，其中该阀体11′形成一个内腔110、一个第一开口1101、一个第二开口1102、一个第三开口1103、一个第四开口1104、一个第五开口1105、一个第六开口1106、一个第七开口1107和一个排污开口(或第八开口)1108′，该定阀片12′具有一个第一流体控制面120，该动阀片13′具有一个第二流体控制面130，其中该动阀片13′和该定阀片12′均被设置在该内腔110，其中该动阀片13′的该第二流体控制面130被设置在该定阀片12′的该第一流体控制面120，且该动阀片13′被设置能够相对该定阀片12′转动，其中该净化-软化水处理系统的净化装置20具有一个第一连通开口201和一个第二连通开口202，该净化-软化水处理系统的软化装置30包括一个软化箱31，其中该软化箱31具有一个第一导通开口301和一个第二导通开口302，其中该平面阀10′的该阀体11′的该内腔110与该第一开口1101相连通，该净化装置20的该第一连通开口201与该阀体11′的该第五开口1105相连通，该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301均与该阀体11′的该第六开口1106相连通，该软化箱31的该第二导通开口302与该阀体11′的该第七开口1107相连通。
如附图之图1和图2、图19至图33G所示，依本发明第一较佳实施例的净化-软化水处理系统的该软化装置30进一步包括一个射流器32和一个盐液箱33，其中该射流器32具有一个适于与该阀体11′的该第三开口1103相连通的射出口321和一个适于与该阀体11′的该第四开口1104相连通的射入口322，其中该盐液箱33适于与该射流器32相连通，从而使来自该盐液箱33的盐液能够通过该射流器32和该第四开口1104，和经该平面阀10′流向该软化装置30的该软化箱31，从而使该软化箱31内的软化树脂得到再生。相应地，当本发明净化-软化水处理系统处于一个软化滤芯吸盐再生工作状态时，原水或待处理水自该阀体11′的该第一开口1101流入到该阀体11′的该内腔110，然后通过一个第十一连通通道10011流入该第三开口1103，再流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11′的该第四开口1104，然后通过一个第十三连通通道10013流入该第七开口1107，进入该软化箱31的该第二导通开口302，逆流再生该软化箱31中的水处理材料或机构，如软化树脂后，从该第一导通开口301流出，然后流经该阀体11′的该第六开口1106流入一个第十四连通通道10014′，然后从该平面阀10′的该排污开口1108′流出。可以理解，尽管本发明仅示例性地描述通过射流器32向软化箱31提供盐液方式，然而，盐液也可以通过其它方式或机构经过该平面阀10′的该第四开口1104被提供给该软化箱31。因此，通过射流器32向软化箱31提供盐液的方式并不应成为本发明的限制。
本领域技术人员能够理解，本发明净化-软化水处理系统的该平面阀10′进一步具有一个被设置在该阀体11′的连接机构，如连接螺纹、卡接接头等，以便于该平面阀10′与该净化-软化水处理系统的其它结构部件，如净化装置20、软化装置30等相连接，以引导水分别流向净化装置20、该软化装 置30的软化箱31和该平面阀10′形成的各个连通通道。
如附图之图19至图33G所示，依本发明第一较佳实施例的该净化-软化水处理系统具有一个第一工作状态、一个第二工作状态、一个第三工作状态、一个第四工作状态和一个第五工作状态，其中当该净化-软化水处理系统处在该第一工作状态时，该平面阀10′的该动阀片13′和该定阀片12′形成一个分别与该阀体11′的该内腔110(或该第一开口1101)和该第五开口1105相连通的第一连通通道1001和一个分别与该阀体11′的该第二开口1102和该第七开口1107相连通的第二连通通道1002，当该净化-软化水处理系统处在该第二工作状态时，该平面阀10′的该动阀片13′和该定阀片12′形成一个分别与该阀体11′的该内腔110(或该第一开口1101)和该第七开口1107相连通的第三连通通道1003和一个分别与该阀体11′的该第六开口1106和该平面阀10′的该排污开口1108′相连通的第四连通通道1004′，当该净化-软化水处理系统处在该第三工作状态时，该平面阀10′的该动阀片13′和该定阀片12′形成一个分别与该阀体11′的该内腔110(或该第一开口1101)和该第六开口1106相连通的第五连通通道1005和一个分别与该阀体11′的该第七开口1107和该平面阀10′的该排污开口1108′相连通的第六连通通道1006′，当该净化-软化水处理系统处在该第四工作状态时，该平面阀10′的该动阀片13′和该定阀片12′形成一个分别与该阀体11′的该内腔110(或该第一开口1101)和该第四开口1104相连通的第七连通通道1007，当该净化-软化水处理系统处在该第五工作状态时，该平面阀10′的该动阀片13′和该定阀片12′形成一个分别与该阀体11′的该内腔110(或该第一开口1101)和该第五开口1105相连通的第八连通通道1008和一个分别与该阀体11′的该第六开口1106和该平面阀10′的该排污开口1108′相连通的第九连通通道1009′。
如附图之图19至图33G所示，当依本发明第一较佳实施例的净化-软化水处理系统处在该第一工作状态时，该平面阀10′形成的该第一连通通道1001分别与该阀体11′的该内腔110(或该第一开口1101)和该第五开口1105相连通，该第二连通通道1002分别与该阀体11′的该第二开口1102和该第七开口1107相连通，从而允许原水自该阀体11′的该第一开口1101流入到该阀体11′的该内腔110，然后通过该平面阀10′形成的该第一连通通道1001、该阀体11′的该第五开口1105、该净化装置20的该第一连通开口201流入该净化装置20，原水经过该净化装置20净化处理后得到的净水从该净化装置20的该第二连通开口202流出，净水流经该软化箱31的该第一导通开口301流入该软化箱31，并经软化处理后得到软化水，软化水从该软化箱31的该第二导通开口302流出，然后经该阀体11′的该第七开口1107、该平面阀10′的该第二连通通道1002，最后经该阀体11′的该第二开口1102流出和向用户供应软化水。优选地，该净化装置20的该第二连通开口202与一个供水出口401(或供水通路400)相连通，从而向使用者提供净水。因此，当该净化-软化水处理系统处在该第一工作状态时，本发明净化-软化水处理系统可同时向使用者提供净水和软化水。相应地，该净化-软化水处理系统的该第一工作状态对应于该净化-软化水处理系统的净化-软化工作状态。因此，当该净化-软化水处理系统处在该第一工作状态时，该阀体11′的该第一开口1101(或该阀体11′的该内腔110)、该阀体11′的该第五开口1105、该净化装置20的该第一连通开口201、该净化装置20的该第二连通开口202、该软化装置30的该软化箱31的该第一导通开口301、该软化装置30的该软化箱31的该第二导通开口302、该阀体11′的该第七开口1107和该阀体11′的该第二开口1102被依次连通，从而形成一个将该净化装 置20和该软化装置30串联在一起的水流通路，以使原水能够自该净化装置20流向该软化装置30和使原水依次被净化和软化处理。
如附图之图19至图33G所示，当依本发明第一较佳实施例的净化-软化水处理系统处在该第二工作状态时，该平面阀10′形成的该第三连通通道1003分别与该阀体11′的该内腔110(或该第一开口1101)和该第七开口1107相连通，该第四连通通道1004′分别与该阀体11′的该第六开口1106和该平面阀10′的该排污开口1108′相连通，从而允许原水自该阀体11′的该第一开口1101流入到该阀体11′的该内腔110，然后通过该平面阀10′形成的该第三连通通道1003流入该第七开口1107，再经该软化箱31的该第二导通开口302流入该软化箱31，和对该软化箱31中的软化材料(或水处理材料)，如软化树脂等，反向冲洗后，得到的污水或废水从该软化箱31的该第一导通开口301流出，然后流经该阀体11′的该第六开口1106流入该平面阀10′的该第四连通通道1004′，然后从该平面阀10′的该排污开口1108′流出。换句话说，当该净化-软化水处理系统处在该第二工作状态时，本发明净化-软化水处理系统可控制对软化滤芯，如软化箱31进行反向冲洗。相应地，该净化-软化水处理系统的该第二工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)反洗工作状态。
如附图之图19至图33G所示，当依本发明第一较佳实施例的净化-软化水处理系统处在该第三工作状态时，该平面阀10′形成的该第五连通通道1005分别与该阀体11′的该内腔110(或该第一开口1101)和该第六开口1106相连通，该第六连通通道1006′分别与该阀体11′的该第七开口1107和该平面阀10′的该排污开口1108′相连通，从而允许原水自该阀体11′的该第一开口1101流入到该阀体11′的该内腔110，然后通过该第五连通通道1005流入该第六开口1106，再进入该软化箱31的该第一导通开口301，对该软化箱31中的水处理材料或机构正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11′的该第七开口1107流入该第六连通通道1006′，然后从该平面阀10′的该排污开口1108′流出。换句话说，当该净化-软化水处理系统处在该第三工作状态时，本发明净化-软化水处理系统可控制对软化滤芯，如软化箱31进行正向冲洗。相应地，该净化-软化水处理系统的该第三工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)正洗工作状态。
如附图之图19至图33G所示，当依本发明第一较佳实施例的净化-软化水处理系统处在该第四工作状态时，该平面阀10′形成的该第七连通通道1007分别与该阀体11′的该内腔110(或该第一开口1101)和该第四开口1104相连通，从而允许原水自该阀体11′的该第一开口1101流入到该阀体11′的该内腔110，然后通过该第七连通通道1007流入该第四开口1104，再流入该射流器32的该射入口322，向盐液箱33补水。换句话说，当该净化-软化水处理系统处在该第四工作状态时，本发明净化-软化水处理系统可控制向盐液箱33补水。相应地，该净化-软化水处理系统的该第四工作状态对应于该净化-软化水处理系统的盐液箱补水工作状态。
如附图之图19至图33G所示，当依本发明第一较佳实施例的净化-软化水处理系统处在该第五工作状态时，该平面阀10′形成的该第八连通通道1008分别与该阀体11′的该内腔110(或该第一开口1101)和该第五开口1105相连通，该第九连通通道1009′分别与该阀体11′的该第六开口1106和该平面阀10′的该排污开口1108′相连通，从而允许原水自该阀体11′的该第一开口1101流入到该阀体11′的该内腔110，然后通过该第八连通通道1008流入该第五开口1105，再进入该净化装置20的该第一 连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11′的该第六开口1106流入该第九连通通道1009′，然后从该平面阀10′的该排污开口1108′流出。换句话说，当该净化-软化水处理系统处在该第五工作状态时，本发明净化-软化水处理系统可控制对净化装置20进行正向冲洗。相应地，该净化-软化水处理系统的该第五工作状态对应于该净化-软化水处理系统的净化装置正洗工作状态。
如附图之图19至图33G所示，依本发明第一较佳实施例的净化-软化水处理系统进一步具有一个第六工作状态和一个第七工作状态，其中当该净化-软化水处理系统处在该第六工作状态时，该平面阀10′的该动阀片13′和该定阀片12′形成一个分别与该阀体11′的该第五开口1105和该平面阀10′的该排污开口1108′相连通的第十连通通道10010′；当该净化-软化水处理系统处在该第七工作状态时，该平面阀10′的该动阀片13′和该定阀片12′形成一个分别与该阀体11′的该内腔110(或该第一开口1101)和该第三开口1103相连通的第十一连通通道10011。优选地，当该净化-软化水处理系统处在该第六工作状态时，该平面阀10′的该动阀片13′和该定阀片12′进一步形成一个分别与该阀体11′的该内腔110(或该第一开口1101)和该第六开口1106相连通的第十二连通通道10012，当该净化-软化水处理系统处在该第七工作状态时，该平面阀10′的该动阀片13′和该定阀片12′形成一个分别与该阀体11′的该第七开口1107和该第四开口1104相连通的第十三连通通道10013和一个分别与该阀体11′的该第六开口1106和该平面阀10′的该排污开口1108′相连通的第十四连通通道10014′。
如附图之图19至图33G所示，当依本发明第一较佳实施例的净化-软化水处理系统处在该第六工作状态时，该平面阀10′形成的该第十连通通道10010′分别与该阀体11′的该第五开口1105和该平面阀10′的该排污开口1108′相连通，该第十二连通通道10012分别与该阀体11′的该内腔110和该第六开口1106相连通，从而允许原水自该阀体11′的该第一开口1101流入到该阀体11′的该内腔110，然后通过该第十二连通通道10012流入该第六开口1106，再进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11′的该第五开口1105流入该第十连通通道10010′，然后从该平面阀10′的该排污开口1108′流出；当依本发明第一较佳实施例的净化-软化水处理系统处在该第七工作状态时，该平面阀10′形成的该第十一连通通道10011分别与该阀体11′的该内腔110和该第三开口1103相连通，该第十三连通通道10013分别与该阀体11′的该第七开口1107和该第四开口1104相连通，该第十四连通通道10014′分别与该阀体11′的该第六开口1106和该平面阀10′的该排污开口1108′相连通，从而允许原水自该阀体11′的该第一开口1101流入到该阀体11′的该内腔110，然后通过该第十一连通通道10011流入该第三开口1103，再流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11′的该第四开口1104，然后通过该第十三连通通道10013流入该第七开口1107，进入该软化箱31的该第二导通开口302，逆流再生该软化箱31中的软化树脂后，从该第一导通开口301流出，然后流经该阀体11′的该第六开口1106流入该第十四连通通道10014′，然后从该平面阀10′的该排污开口1108′流出。相应地，该净化-软化水处理系统的该第六工作状态对应于该净化-软化水处理系统的净化装置反洗工作状态，该净化-软化水处理系统的该第七工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)再生工作状态。
如附图之图1至图2和图31A至图31G所示，依本发明第一较佳实施例的净化-软化水处理系统进一步具有一个供水单元40，其中该供水单元40形成一个供水通路400，其中该供水通路400被设置与该净化装置20的该第二连通开口202相连通，以向使用者提供净水。如附图之图1至图2和图31A至图31G所示，该供水单元40包括一个净水管道(或净水管)41和一个流体阀42，其中该流体阀42被设置在该净水管道41，以控制向使用者提供净水。可以理解，该净水管道41形成该供水出口401。优选地，该流体阀42是一个电动球阀或电动平面阀，以便于使用者通过一个控制装置16自动控制净水的提供。因此，该净化装置20的该第二连通开口202分别与该平面阀10′的该第六开口1106、该软化箱31的该第一导通开口301和该供水通路400(或该供水出口401)相连通。此外，该平面阀10′的该第六开口1106进一步与该软化箱31的该第一导通开口301相连通。
如附图之图30A至图33G所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10′具有一个第一通道101，一个第二通道102，一个第三通道103，一个第四通道104、一个第五通道105、一个第六通道106、一个第七通道107、一个第八通道108、一个第九通道109、一个第十通道1010、一个第十一通道1011′和一个第十二通道1012′，其中该第一通道101、该第二通道102、该第三通道103、该第四通道104、该第五通道105、该第六通道106、该第七通道107、该第八通道108和该第十二通道1012′分别设于该定阀片12′并分别自该定阀片12′的该第一流体控制面120延伸；该第九通道109、该第十通道1010和该第十一通道1011′分别设于该动阀片13′并分别自该动阀片13′的该第二流体控制面130延伸，其中该第一通道101和该第二通道102分别与该第五开口1105相连通，该第三通道103和该第四通道104分别与该第七开口1107相连通，该第五通道105与该第二开口1102相连通，该第六通道106与该第三开口1103相连通，该第七通道107与该第四开口1104相连通，该第八通道108与该第六开口1106相连通，该第九通道109与该阀体11′的该内腔110相连通，该第十一通道1011′与该第十二通道1012′相连通，该第十二通道1012′与该排污开口1108′相连通。可以理解，本发明该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301与该阀体11′的该第六开口1106的连通可通过多种方式实现。如附图之图21A至图22B所示，该阀体11′的该第六开口1106可通过一个分别与该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301相连通的连通管路(或三通管路)实现该净化装置20的该第二连通开口202、该软化箱31的该第一导通开口301和该阀体11′的该第六开口1106之间的连通。可选地，该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301与该阀体11′的该第六开口1106的连通也可通过被设置在该阀体11′的连通通路实现，其中该连通通路可被设置分别与该净化装置20的该第二连通开口202和该阀体11的该第六开口1106相连通，和分别与该软化箱31的该第一导通开口301和该阀体11′的该第六开口1106相连通。因此，该阀体11′的该第八通道108、该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301通过该阀体11′的该第六开口1106形成一个三通结构。此外，为了确保该阀体11′的该内腔110中的水进入该平面阀10′的该第九通道109，该第九通道109被设置可通过一个始终与外部空间相连通的进水口1091始终与该阀体11′的该内腔110相连通。
值得注意的是，该平面阀10′的该第一通道101和该第二通道102分别与该第五开口1105的连通，可以是分别地和独自地与该第五开口1105相连通，也可以通过一个流体通道相连通；该平面阀10′ 的该第三通道103和该第四通道104分别与该第七开口1107的连通，可以是分别地和独自地与该第七开口1107相连通，也可以通过一个流体通道相连通。例如，如附图之图19至图33G所示，该平面阀10′的该第一通道101和该第二通道102通过一个第一流体通道1211相连通，该第二通道102被设置直接与该第五开口1105相连通，从而使该第一通道101通过该第一流体通道1211和该第二通道102，也与该第五开口1105相连通；该平面阀10′的该第三通道103和该第四通道104分别单独地与该第七开口1107相连通。可选地，如附图34A至34B所示，该第一通道101被设置直接与该第五开口1105相连通，该第二通道102通过该第一流体通道1211和该第一通道101，也与该第五开口1105相连通。或者可选地，该平面阀10′的该第一通道101和该第二通道102可分别地和独自地与该第五开口1105相连通；或者可选地，如附图之图35所示，该平面阀10′的该第三通道103和该第四通道104通过一个第二流体通道1212相连通，该第三通道103被设置直接与该第七开口1107相连通，从而使该第四通道104通过该第二流体通道1212和该第三通道103，也与该第七开口1107相连通；或者可选地，如附图之图36所示，该平面阀10′的该第三通道103和该第四通道104通过一个第二流体通道1212相连通，该第四通道104被设置直接与该第七开口1107相连通，从而使该第三通道103通过该第二流体通道1212和该第四通道104，也与该第七开口1107相连通。可以理解，进一步地，该第一流体通道1211和该第二流体通道1212可被设置在该定阀片12′的该第一流体控制面120，也可被设置在该阀体11′或该定阀片12′的内部。可以理解，该平面阀10′的该第一通道101和该第二通道102分别与该第五开口1105的连通，和该平面阀10′的该第三通道103和该第四通道104分别与该第七开口1107的连通，也可以是通过其它方式的连通。
如附图之图31A至图33G所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10′的该动阀片13′能够相对定阀片12′转动从而使得该平面阀10′具有一个第一工作位，一个第二工作位，一个第三工作位，一个第四工作位和一个第五工作位，其中当该平面阀10′处于该第一工作位时，该平面阀10′的该第九通道109与该第一通道101相连通，该第十通道1010分别与该第三通道103和该第五通道105相连通；当该平面阀10′处于该第二工作位时，该平面阀10′的该第九通道109与该第四通道104相连通，该第十一通道1011′分别与该第八通道108和该第十二通道1012′相连通；当该平面阀10′处于该第三工作位时，该平面阀10′的该第九通道109与该第八通道108相连通，该平面阀10′的该第十一通道1011′分别与该第三通道103和该第十二通道1012′相连通；当该平面阀10′处于该第四工作位时，该平面阀10′的该第九通道109与该第七通道107相连通；当该平面阀10′处于该第五工作位时，该平面阀10′的该第九通道109与该第二通道102相连通，该平面阀10′的该第十一通道1011′分别与该第八通道108和该第十二通道1012′相连通。
如附图之图31A至图33G所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10′进一步具有一个第六工作位和一个第七工作位，其中当该平面阀10′处于该第六工作位时，该平面阀10′的该第十一通道1011′分别与该第一通道101和该第十二通道1012′相连通；当平面阀10′处于该第七工作位时，该平面阀10′的该第九通道109与该第六通道106相连通。
更进一步地，当该平面阀10′处于该第六工作位时，该第八通道108与该第九通道109相连通，当该平面阀10′处于该第七工作位时，该第十通道1010分别与该第四通道104和该第七通道107相连 通，该第十一通道1011′分别与该第八通道108和该第十二通道1012′相连通。
可以理解，当该平面阀10′处于该第一工作位时，依本发明第一较佳实施例的净化-软化水处理系统被控制处在该净化-软化工作状态，该平面阀10′的该第九通道109与该第一通道101相连通，从而形成该第一连通通道1001，该第十通道1010分别与该第三通道103和该第五通道105相连通，从而形成该第二连通通道1002；当该平面阀10′处于该第二工作位时，依本发明第一较佳实施例的净化-软化水处理系统被控制处在该软化滤芯(软化装置)反洗工作状态，该平面阀10′的该第九通道109与该第四通道104相连通，从而形成该第三连通通道1003，该第十一通道1011′分别与该第八通道108和该第十二通道1012′相连通，从而形成该第四连通通道1004′；当该平面阀10′处于该第三工作位时，依本发明第一较佳实施例的净化-软化水处理系统被控制处在该软化滤芯(软化装置)正洗工作状态，该平面阀10′的该第九通道109与该第八通道108相连通，从而形成该第五连通通道1005，该平面阀10′的该第十一通道1011′分别与该第三通道103和该第十二通道1012′相连通，从而形成该第六连通通道1006′；当该平面阀10′处于该第四工作位时，依本发明第一较佳实施例的净化-软化水处理系统被控制处在该盐液箱补水工作状态，该平面阀10′的该第九通道109与该第七通道107相连通，从而形成该第七连通通道1007；该平面阀10′处于该第五工作位时，依本发明第一较佳实施例的净化-软化水处理系统被控制处在该净化装置正洗工作状态时，该平面阀10′的该第九通道109与该第二通道102相连通，从而形成该第八连通通道1008，该平面阀10′的该第十一通道1011′分别与该第八通道108和该第十二通道1012′相连通，从而形成该第九连通通道1009′。进一步地，当该平面阀10′处于该第六工作位时，依本发明第一较佳实施例的净化-软化水处理系统被控制处在该净化装置反洗工作状态，该平面阀10′的该第十一通道1011′分别与该第一通道101和该第十二通道1012′相连通，从而形成该第十连通通道10010′；当该平面阀10′处于该第七工作位时，依本发明第一较佳实施例的净化-软化水处理系统被控制处在该软化滤芯再生工作状态，该平面阀10′的该第九通道109与该第六通道106相连通，从而形成该第十一连通通道10011。更进一步地，当该平面阀10′处于该第六工作位时，该第八通道108与该第九通道109相连通，从而形成该第十二连通通道10012；当该平面阀10′处于该第七工作位时，该第十通道1010分别与该第四通道104和该第七通道107相连通，从而形成该第十三连通通道10013，该第十一通道1011′分别与该第八通道108和该第十二通道1012′相连通，从而形成该第十四连通通道10014′。优选地，该第十一通道1011′是一个被设置在该动阀片13′的该第二流体控制面130的导通盲孔或导通槽，以在相应的工作位连通该定阀片12′的不同通道，例如，在第二工作位连通(或导通)该第八通道108和该第十二通道1012′。
如附图之图23A至图29D和图31A至图33G所示，相应地，当该平面阀10′处于第一工作位时，该水处理机处于净化-软化工作状态，原水自该阀体11′的该第一开口1101流入到该阀体11′的该内腔110，然后通过该动阀片13′的该第九通道109流入该定阀片12′的该第一通道101，然后通过该阀体11′的该第五开口1105进入该净化装置20的该第一连通开口201，经过该净化装置20的水处理材料或机构处理后，从该净化装置20的该第二连通开口202流出，然后流入该软化箱31的该第一导通开口301，经过该软化箱31内的软化树脂处理后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11′的该第七开口1107进入该定阀片12′的该第三通道103，经过该动阀片13′的该第十通道1010导流 进入该定阀片12′的该第五通道105，然后经过该阀体11′的该第二开口1102向用户供应处理后水；当该平面阀10′处于第二工作位时，该水处理机处于该软化滤芯(软化装置)反洗工作状态，原水自该阀体11′的该第一开口1101流入到该阀体11′的该内腔110，然后通过该动阀片13′的该第九通道109流入该定阀片12′的该第四通道104，然后通过该阀体11′的该第七开口1107进入该软化箱31的该第二导通开口302，对该软化箱31中的软化树脂反向冲洗后，从该软化箱31的该第一导通开口301流出，然后流经该阀体11′的该第六开口1106，再流经该定阀片12′的该第八通道108和该动阀片13′的该第十一通道1011′和该第十二通道1012′，然后，从该平面阀10′的该排污开口1108′流出；当该平面阀10′处于第三工作位时，该水处理机处于该软化滤芯(软化装置)正洗工作状态，原水自该阀体11′的该第一开口1101流入到该阀体11′的该内腔110，然后通过该动阀片13′的该第九通道109流入该定阀片12′的该第八通道108，然后通过该阀体11′的该第六开口1106进入该软化箱31的该第一导通开口301，对该软化箱31中的软化树脂正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11′的该第七开口1107，再流经该定阀片12′的该第三通道103和该动阀片13′的该第十一通道1011′和该第十二通道1012′，然后，从该平面阀10′的该排污开口1108′流出；当该平面阀10′处于第四工作位时，该水处理机处于该盐液箱补水工作状态，原水自该阀体11′的该第一开口1101流入到该阀体11′的该内腔110，然后通过该动阀片13′的该第九通道109流入该定阀片12′的该第七通道107，然后流经该阀体11′的该第四开口1104流入该射流器32的该射入口322，向盐液箱33补水；当该平面阀10′处于第五工作位时，该水处理机处于该净化装置正洗工作状态，原水自该阀体11′的该第一开口1101流入到该阀体11′的该内腔110，然后通过该动阀片13′的该第九通道109流入该定阀片12′的该第二通道102，然后通过该阀体11′的该第五开口1105进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11′的该第六开口1106，进入该定阀片12′的该第八通道108，再流经该动阀片13′的该第十一通道1011′和该第十二通道1012′，然后，从该平面阀10′的该排污开口1108′流出。进一步地，当该平面阀10′处于第六工作位时，该水处理机处于净化装置反洗工作状态，原水自该阀体11′的该第一开口1101流入到该阀体11′的该内腔110，然后通过该动阀片13′的该第九通道109流入该定阀片12′的该第八通道108，然后通过该阀体11′的该第六开口1106进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11′的该第五开口1105，进入该定阀片12′的该第一通道101，再流经该动阀片13′的该第十一通道1011′和该第十二通道1012′，然后，从该平面阀10′的该排污开口1108′流出；当该平面阀10′处于第七工作位时，该水处理机处于该软化滤芯再生工作状态，原水自该阀体11′的该第一开口1101流入到该阀体11′的该内腔110，然后通过该动阀片13′的该第九通道109流入该定阀片12′的该第六通道106，然后通过该阀体11′的该第三开口1103流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11′的该第四开口1104，然后进入该定阀片12′的该第七通道107，再经过动阀片13′的该第十通道1010导流进入该定阀片12′的该第四通道104，然后流经该阀体11′的该第七开口1107进入该软化箱31的该第二导通开口302，逆流再生该软化箱31中的如软化树脂后，从该第一导通开口301流出，然后流经该阀体11′ 的该第六开口1106进入该定阀片12′的该第八通道108，再通过该动阀片13′的该第十一通道1011′和该第十二通道1012′，然后，从该平面阀10′的该排污开口1108′流出。可以理解，当该平面阀10′处于该第一工作位时，该平面阀10′的该第十通道1010分别与该第三通道103和该第五通道105相连通,且该平面阀10′的该动阀片13′将该第五通道105与该阀体11′的该内腔110相隔开，以防止该阀体11′的该内腔110内的原水进入该第五通道105。
如附图之图33A至图33G所示，优选地，当该平面阀10′处于第一工作位时，该平面阀10′的该第二通道102、该第四通道104和该第八通道108分别被该动阀片13′封闭；当该平面阀10′处于第二工作位时，该平面阀10′的该第一通道101和该第三通道103分别被该动阀片13′封闭；当该平面阀10′处于第三工作位时，该平面阀10′的该第二通道102和该第四通道104分别被该动阀片13′封闭；当该平面阀10′处于第四工作位时，该平面阀10′的该第六通道106被该动阀片13′封闭；当平面阀10′处于第五工作位时，该平面阀10′的该第一通道101、该第三通道103和该第四通道104被该动阀片13′封闭；当该平面阀10′处于第六工作位时，该平面阀10′的该第二通道102、该第三通道103和该第四通道104分别被该动阀片13′封闭；当该平面阀10′处于第七工作位时，该平面阀10′的该第一通道101、该第二通道102和该第三通道103分别被该动阀片13′封闭。
如附图之图33A至图33G所示，更优选地，当该平面阀10′处于第二工作位时，该平面阀10′的该第六通道106和该第七通道107分别被该动阀片13′封闭；当该平面阀10′处于第三工作位时，该第十通道1010分别与该第一通道101和该第八通道108相连通，该平面阀10′的该第六通道106和该第七通道107被该动阀片13′封闭；当该平面阀10′处于第四工作位时，该平面阀10′的该第一通道101和该第三通道103分别被该动阀片13′封闭；当该平面阀10′处于第五工作位时，该平面阀10′的该第六通道106和该第七通道107分别被该动阀片13′封闭；当该平面阀10′处于第六工作位时，该平面阀10′的该第十通道1010与该第八通道108相连通，该平面阀10′的该第六通道106和该第七通道107分别被该动阀片13′封闭。
如附图之图33A至图33G所示，更优选地，当该平面阀10′处于第一工作位时，该平面阀10′的该第六通道106和该第七通道107被该动阀片13′封闭，该第十一通道1011′与该第十二通道1012′相连通；当该平面阀10′处于第二工作位时，该平面阀10′的该第十通道1010分别与该第二通道102和该第八通道108相连通，该平面阀10′的该第五通道105被该动阀片13′封闭；当该平面阀10′处于第三工作位时，该平面阀10′的该第五通道105被该动阀片13′封闭；当平面阀10′处于第四工作位时，该平面阀10′的该第十通道1010分别与该第二通道102和该第四通道104相连通，该第十一通道1011′分别与该第八通道108和该第十二通道1012′相连通，该平面阀10′的该第五通道105被该动阀片13′封闭；当该平面阀10′处于第五工作位时，该平面阀10′的该第十通道1010与该第八通道108相连通，该平面阀10′的该第五通道105被该动阀片13′封闭；当该平面阀10′处于第六工作位时，该平面阀10′的该第五通道105被该动阀片13′封闭；当该平面阀10′处于第七工作位时，该平面阀10′的该第五通道105被该动阀片13′封闭。
值得注意的是该平面阀10′的该第一通道101、该第二通道102、该第三通道103、该第四通道104、该第五通道105、该第六通道106、该第七通道107、该第八通道108和该第十二通道1012′分别相隔 开地设于该定阀片12′的该第一流体控制面120；该第九通道109、该第十通道1010和该第十一通道1011′分别相隔开地设于该动阀片13′的该第二流体控制面130。换句话说，该平面阀10′的该第一通道101、该第二通道102、该第三通道103、该第四通道104、该第五通道105、该第六通道106、该第七通道107、该第八通道108和该第十二通道1012′分别形成一个被设置在该定阀片12′的该第一流体控制面120的通道开口，该第九通道109、该第十通道1010和该第十一通道1011′分别形成一个被设置在该动阀片13′的该第二流体控制面130的通道开口，当该平面阀10的该动阀片13′被面(该第二流体控制面130)对面(该第一流体控制面120)设置，且该动阀片13′相对该定阀片12′转动时，被设置在该动阀片13′的通道和被设置在该定阀片12′的通道通过相应的通道开口选择性地相连通，从而形成相应的连通通道和控制流体(如水流)的流动方向。可以理解，该平面阀10′的该第一通道101、该第二通道102、该第三通道103、该第四通道104、该第五通道105、该第六通道106、该第七通道107、该第八通道108、该第九通道109、该第十通道1010、该第十一通道1011′和该第十二通道1012′可具有任何能够实现本文中相互连通关系的延伸路径(或方向)；该平面阀10′的该第一通道101、该第二通道102、该第三通道103、该第四通道104、该第五通道105、该第六通道106、该第七通道107、该第八通道108和该第十二通道1012′分别形成在该定阀片12′的该第一流体控制面120的通道开口，和该第九通道109、该第十通道1010和该第十一通道1011′分别形成在该动阀片13′的该第二流体控制面130的通道开口，可具有任何能够实现本文中相互连通关系的形状。因此，该平面阀10的该第一通道101、该第二通道102、该第三通道103、该第四通道104、该第五通道105、该第六通道106、该第七通道107、该第八通道108、该第十二通道1012′、该第九通道109、该第十通道1010和该第十一通道1011′的延伸路径(或方向)和其通道开口的形状不应成为对本发明的限制。
如附图之图1至图32D所示，优选地，本文中的通道被封闭，指的是相应通道形成在该平面阀10的该定阀片12(或定阀片12′)的第一流体控制面120和该动阀片13(或动阀片13′)的该第二流体控制面130的通道开口在该平面阀10的具体工作位(或水处理系统的工作状态)，被该动阀片13和该定阀片12的实体部分盖住，从而导致相应通道之间无法通过通道开口相连通。例如，当该平面阀10处于第一工作位时，该动阀片13的实体部分正对该平面阀10的该第六通道106和该第七通道107形成在该定阀片12的第一流体控制面120的通道开口，从而使该平面阀10的该第六通道106和该第七通道107被该动阀片13封闭(或阻塞)。相应地，本文中被设置在该动阀片13的通道与被设置在定阀片12的通道之间的相连通，指的是在该平面阀10的具体工作位(或水处理系统的工作状态)，被设置在该动阀片13的通道形成在该动阀片13的该第二流体控制面130的通道开口与被设置在该定阀片12的通道形成该定阀片12的第一流体控制面120的通道开口选择性地部分或正好对齐和形成允许水流通过的水流通路。例如，当该平面阀10处于第一工作位时，该平面阀10的该第九通道109的通道开口与该第一通道101的通道开口相对齐，从而使两者相连通和形成该第一连通通道1001。
如附图之图30A至图30F和图32A至图32D所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10′的该第一通道101、该第八通道108、该第二通道102、该第四通道104、该第七通道107、该第六通道106、该第三通道103和该第五通道105以此顺序顺时针地排布在该定阀片12′；该平面阀10′的该第十一通道1011′、该第十通道1010和该第九通道109以此顺序顺时针地排布在该动 阀片13′。可选地，该平面阀10′的该第一通道101、该第八通道108、该第二通道102、该第四通道104、该第七通道107、该第六通道106、该第三通道103和该第五通道105以此顺序逆时针地排布在该定阀片12′；该平面阀10′的该第十一通道1011′、该第十通道1010和该第九通道109以此顺序逆时针地排布在该动阀片13′。
如附图之图32A至图32D所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10′的该定阀片12′具有一个第一中心部121和一个自该第一中心部121向外延伸的第一延伸部122，该动阀片13′具有一个第二中心部131和一个自该第二中心部131向外延伸的第二延伸部132，其中该定阀片12′的该第一流体控制面120具有一个图中点划线所示的中心部分1200，其中该中心部分1200被设于该定阀片12′的该第一中心部121，且该第一流体控制面120的中心部分1200之外的部分被顺时针等分为点划线所示的一个第一部分1201、一个第二部分1202、一个第三部分1203、一个第四部分1204、一个第五部分1205、一个第六部分1206、一个第七部分1207、一个第八部分1208、一个第九部分1209、一个第十部分12010和一个第十一部分12011；该平面阀10′的动阀片13′的该第二流体控制面130具有一个图中点划线所示的中心区域1300，其中该中心区域1300设于该动阀片13′的该第二中心部131，且该第二流体控制面130的中心区域1300之外的部分被顺时针等分为点划线所示的一个第一区域1301、一个第二区域1302、一个第三区域1303、一个第四区域1304、一个第五区域1305、一个第六区域1306、一个第七区域1307、一个第八区域1308、一个第九区域1309、一个第十区域13010和一个第十一区域13011；其中该第十二通道1012′自第一流体控制面120的该中心部分1200向下延伸；该第一通道101自该第一流体控制面120的该第一部分1201向下延伸；该第八通道108自该定阀片12′的该第一流体控制面120的该第二部分1202、该第三部分1203、该第四部分1204和该第五部分1205向下延伸；该第二通道102自该定阀片12′的该第一流体控制面120的该第六部分1206向下延伸；该第四通道104自该定阀片12′的该第一流体控制面120的该第七部分1207向下延伸；该第七通道107自该第一流体控制面120的该第八部分1208向下延伸；该第六通道106自该第一流体控制面120的该第九部分1209向下延伸；该第三通道103自该第一流体控制面120的该第十部分12010向下延伸；该第五通道105自该第一流体控制面120的该第十一部分12011向下延伸；该第九通道109自该第二流体控制面130的该第一区域1301向上延伸；该第十一通道1011′自该第二流体控制面130的该中心区域1300延伸至该第二流体控制面130的该第八区域1308；该第十通道1010自该第二流体控制面130的该第十区域13010和该第十一区域13011向上延伸。
可选地，该平面阀10′的定阀片12′的第一流体控制面120和动阀片13′的该第二流体控制面130均为圆形，该第一通道101、该第二通道102、该第三通道103、该第四通道104、该第五通道105、该第六通道106、该第七通道107和该第八通道108均沿径向设于该定阀片12′的该第一流体控制面120，且该第九通道109和该第十通道1010均沿径向设于该动阀片13′的该第二流体控制面130。
优选地，该平面阀10的该第一通道101自该定阀片12′的该第一流体控制面120向下和向外延伸、该第二通道102自该定阀片12′的该第一流体控制面120向下和向外延伸、该第三通道103自该定阀片12′的该第一流体控制面120向下和向外延伸、该第四通道104自该定阀片12′的第一流体控制面120向下和向外延伸、该第五通道105自该定阀片12′的第一流体控制面120向下和向外延伸、该第六通 道106自该定阀片12′的第一流体控制面120向下和向外延伸、该第七通道107自该定阀片12′的第一流体控制面120向下和向外延伸、该第八通道108自该定阀片12′的该第一流体控制面120向下和向外延伸、该第十二通道1012′自第一流体控制面120向下和向外延伸。
如附图之图19至图22D所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10′的该阀体11′具有一个内壁111，其中该定阀片12′适于该第一流体控制面120朝上地设于该内腔110，和该动阀片13′适于该第二流体控制面130朝下地设于该内腔110，其中该内腔110始终与该第九通道109相连通。值得注意的是，该平面阀10′的该定阀片12′可以被可拆卸地设置在该阀体11′的内壁111，也可以与该平面阀10′的该阀体11′的该内壁111相一体成型。本领域技术人员可以理解，当该定阀片12′被可拆卸地设置在该阀体11′内时，该定阀片12′和该阀体11′之间通过一个固定机构来保持该定阀片12′和该阀体11′之间的同步。例如，如附图之图19至图22D所示，该定阀片12′具有一个自该定阀片12′的边缘向外突出的制动件123，该阀体11′的该内壁111具有一个制动槽1110，其中该定阀片12′的该制动件123被设置能够与该阀体11′的该内壁111的该制动槽1110相啮合，以确保该定阀片12′和该阀体11′之间相同步(或不会发生相对转动)和确保被设置在该定阀片12′的各个通道与被设置在该阀体11′的相应开口相连通。可以理解，当该定阀片12′被可拆卸地设置在该阀体11′内时，该定阀片12′可被单独制造。换句话说，此时，该定阀片12′可由耐磨材料制成，从而提高该定阀片12′(或整个平面阀)的使用寿命。优选地，该定阀片12′的该第一流体控制面120经平滑处理以减小其粗糙程度。
如附图之图19至图22D所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10′进一步包括一个自该动阀片13′向上延伸的驱动元件18，其中该驱动元件18被设置能够驱动该平面阀10′的该动阀片13′相对该定阀片12′发生转动。
如附图之图19至图22D所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10′进一步包括一个密封元件17，其中该密封元件17被设置与该驱动元件18相面对面，其中该密封元件17形成一个第一密封面170，该驱动元件18形成一个第二密封面180，其中该密封元件17的该第一密封面170被设置在该驱动元件18的该第二密封面180，从而使得当该驱动元件18相对该密封元件17转动，以驱动该动阀片13′相对该定阀片12′转动时，该驱动元件18和该密封元件17之间被密封和防止水的泄漏。此外，该密封元件17被设置能够保持该驱动元件18处于适当位置，从而保持该动阀片13′处于一个预设位置。
如附图之图23A至图23D所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10′的该动阀片13′的直径被设置稍小于该阀体11′的内腔110的直径，从而使得该平面阀10′的该第九通道109可通过该进水口1091保持与该阀体11′的该内腔110相连通。
如附图之图23A至图29D和图31A至图33G所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10′的该控制装置16被设置能够根据一个净化-软化控制指令，通过一个传动机构14，如传动齿轮，驱动该驱动元件18转动，以驱动该平面阀10′的该动阀片13′相对该定阀片12′转动，从而形成一个分别与该平面阀10′的该阀体11′的该内腔110和该第五开口1105相连通的第一连通通道1001和一个分别与该阀体11′的该第二开口1102和该第七开口1107相连通的第二连通通道1002，以 允许原水自该阀体11′的该内腔110，经过该平面阀10′形成的该第一连通通道1001、该阀体11′的该第五开口1105、该净化装置20的该第一连通开口201流入该净化装置20，原水经过该净化装置20净化处理后得到的净水从该净化装置20的该第二连通开口202流出，净水可经该软化箱31的该第一导通开口301流入该软化箱31，并经软化处理后得到软化水，软化水从该软化箱31的该第二导通开口302流出，然后经该阀体11′的该第七开口1107、该平面阀10′的该第二连通通道1002，最后经该阀体11′的该第二开口1102流出和向用户供应软化水；根据一个软化滤芯(软化装置)反洗控制指令，通过该传动机构14，如传动齿轮，驱动该驱动元件18转动，以驱动该平面阀10′的该动阀片13′相对该定阀片12′转动，从而形成一个分别与该平面阀10′的该阀体11′的该内腔110和该第七开口1107相连通的第三连通通道1003和一个分别与该阀体11′的该第六开口1106和该平面阀10′的该排污开口1108′相连通的第四连通通道1004′，以允许原水自该阀体11′的该第一开口1101流入到该阀体11′的该内腔110，然后通过该平面阀10′形成的该第三连通通道1003流入该第七开口1107，再经该软化箱31的该第二导通开口302流入该软化箱31，和对该软化箱31中的软化材料(或水处理材料)，如软化树脂等，反向冲洗后，得到的污水或废水从该软化箱31的该第一导通开口301流出，然后流经该阀体11′的该第六开口1106流入该平面阀10′的该第四连通通道1004′，然后从该平面阀10′的该排污开口1108′流出；根据一个软化滤芯(软化装置)正洗控制指令，通过该传动机构14，如传动齿轮，驱动该驱动元件18转动，以驱动该平面阀10′的该动阀片13′相对该定阀片12′转动，从而形成一个分别与该阀体11′的该内腔110和该第六开口1106相连通的第五连通通道1005和一个分别与该阀体11′的该第七开口1107和该平面阀10′的该排污开口1108′相连通的第六连通通道1006′，以允许原水自该阀体11′的该第一开口1101流入到该阀体11′的该内腔110，然后通过该第五连通通道1005流入该第六开口1106，再进入该软化箱31的该第一导通开口301，对该软化箱31中的水处理材料或机构正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11′的该第七开口1107流入该第六连通通道1006′，然后从该平面阀10′的该排污开口1108′流出；根据一个补水控制指令，通过该传动机构14，如传动齿轮，驱动该驱动元件18转动，以驱动该平面阀10′的该动阀片13′相对该定阀片12′转动，从而形成一个分别与该阀体11′的该内腔110和该第四开口1104相连通的第七连通通道1007，以允许原水自该阀体11′的该第一开口1101流入到该阀体11′的该内腔110，然后通过该第七连通通道1007流入该第四开口1104，再流入该射流器32的该射入口322，向盐液箱33补水；根据一个净化装置正洗控制指令，通过该传动机构14，如传动齿轮，驱动该驱动元件18转动，以驱动该平面阀10′的该动阀片13′相对该定阀片12′转动，从而形成一个分别与该阀体11′的该内腔110和该第五开口1105相连通的第八连通通道1008和一个分别与该阀体11′的该第六开口1106和该平面阀10′的该排污开口1108′相连通的第九连通通道1009′，以允许原水自该阀体11′的该第一开口1101流入到该阀体11′的该内腔110，然后通过该第八连通通道1008流入该第五开口1105，再进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11′的该第六开口1106流入该第九连通通道1009′，然后从该平面阀10′的该排污开口1108′流出。
如附图之图23A至图29D和图31A至图33G所示，依本发明第一较佳实施例的净化-软化水处理 系统的该平面阀10′的该控制装置16进一步被设置能够根据一个净化装置反洗控制指令，通过该传动机构14，如传动齿轮，驱动该驱动元件18转动，以驱动该平面阀10′的该动阀片13′相对该定阀片12′转动，从而形成一个分别与该阀体11′的该第五开口1105和该平面阀10′的该排污开口1108′相连通的第十连通通道10010′和一个分别与该阀体11′的该内腔110和该第六开口1106相连通的第十二连通通道10012，以允许原水自该阀体11′的该第一开口1101流入到该阀体11′的该内腔110，然后通过该第十二连通通道10012流入该第六开口1106，再进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11′的该第五开口1105流入该第十连通通道10010′，然后从该平面阀10′的该排污开口1108′流出。
如附图之图23A至图29D和图31A至图33G所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10′的该控制装置16进一步被设置能够根据一个软化滤芯再生控制指令，通过该传动机构14，如传动齿轮，驱动该驱动元件18转动，以驱动该平面阀10′的该动阀片13′相对该定阀片12′转动，从而形成一个分别与该阀体11′的该内腔110和该第三开口1103相连通的第十一连通通道10011、一个分别与该阀体11的该第七开口1107和该第四开口1104相连通的第十三连通通道10013和一个分别与该阀体11′的该第六开口1106和该平面阀10′的该排污开口1108′相连通的第十四连通通道10014′，以允许原水自该阀体11′的该第一开口1101流入到该阀体11′的该内腔110，然后通过该第十一连通通道10011流入该第三开口1103，再流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11′的该第四开口1104，然后通过该第十三连通通道10013流入该第七开口1107，进入该软化箱31的该第二导通开口302，逆流再生该软化箱31中的软化树脂后，从该第一导通开口301流出，然后流经该阀体11′的该第六开口1106流入该第十四连通通道10014′，然后从该平面阀10′的该排污开口1108′流出。
值得注意的是，该控制指令，如净化-软化控制指令、软化装置反洗控制指令、软化装置正洗控制指令、补水控制指令、净化装置正洗控制指令、净化装置反洗控制指令、软化滤芯再生控制指令等控制指令，可以被预设在该控制装置16的控制模块，也可以通过一个电子通讯网络接收自一个控制终端，或者由使用者通过一个输入界面输入。例如，当本发明净化-软化水处理系统的被设置具有一个用于该平面阀10′的输入界面，如触控板或控制按钮时，使用者可通过触控面板或相应的控制按钮向该控制装置16的控制模块发送上述控制指令，以使该控制装置16的控制模块控制该控制装置16的电机转动，从而通过一个传动机构14驱动该驱动元件18转动。
如附图之图1至图2、图31A至图31G所示，依本发明第一较佳实施例的净化-软化水处理系统对原水的净化-软化处理被示例性地阐明，其中该净化装置20是一个净化滤芯，其中该净化装置20包括一个壳体21、一个被设置在该壳体21的连接头22和一个被设置在该壳体21内的过滤部23，其中该过滤部23可以是用于超滤过滤的超滤丝、滤网式过滤器或叠片式过滤器、PP棉或其它能够对原水进行过滤的水处理材料或过滤材料。示例性地，如附图之图31A至图31G所示，本发明净化-软化水处理系统的该软化装置30包括一个软化箱31，其中该软化箱31包括一个箱体311、一个集液单元312和一个水软化单元313，其中该箱体311具有一个软化腔3110、一个第一导通开口301和一个第二导 通开口302，其中该集液单元312包括一个中心管3121，该水软化单元313适于容纳在该软化腔3110之内，其中该中心管3121适于与该第二导通开口302相连通，其中该中心管3121具有一个高端开口31211和一个低端开口31212，其中箱体311中的液体，如水，适于经该水软化单元313处理后，从该集液单元312的中心管3121的低端开口31212流入该中心管3121和自该中心管3121的高端开口31211流出；优选地，该箱体311中的水软化单元313包括水处理材料，如水软化树脂、具有软化性能的活性炭或其它类似软化材料或其组合。
可以理解，为了强化该平面阀10的该定阀片12的结构强度，该第一通道101、该第二通道102、该第三通道103、该第四通道104、该第五通道105、该第六通道106、该第七通道107和该第八通道108均可通过一个强化实体结构拆分或隔开成两个相邻的稍小通道。例如，如附图之图37至图40G所示，依本发明第一较佳实施例的净化-软化水处理系统的该平面阀10的该定阀片12的该第八通道108通过一个加强肋或加强筋被隔开成两个内径稍小的通道1081和通道1082，其中当该平面阀10处于该第二工作位时，该平面阀10的该第十一通道1011与该通道1081相连通，从而形成该第四连通通道1004；当该平面阀10处于该第三工作位时，该平面阀10的该第九通道109与该通道1081相连通，从而形成该第五连通通道1005；该平面阀10处于该第五工作位时，该平面阀10的该第十一通道1011与该通道1081相连通，从而形成该第九连通通道1009；该平面阀10处于该第六工作位时，该第九通道109与该通道1082相连通，从而形成该第十二连通通道10012；当该平面阀10处于该第七工作位时，该第十一通道1011与该通道1082相连通，从而形成该第十四连通通道10014。相应地，当该平面阀10处于第一工作位时，该水处理机处于净化-软化工作状态，原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该动阀片13的该第九通道109流入该定阀片12的该第一通道101，然后通过该阀体11的该第五开口1105进入该净化装置20的该第一连通开口201，经过该净化装置20的水处理材料或机构处理后，从该净化装置20的该第二连通开口202流出，然后流入该软化箱31的该第一导通开口301，经过该软化箱31内的软化树脂处理后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11的该第七开口1107进入该定阀片12的该第三通道103，经过该动阀片13的该第十通道1010导流进入该定阀片12的该第五通道105，然后经过该阀体11的该第二开口1102向用户供应处理后水；当该平面阀10处于第二工作位时，该水处理机处于该软化滤芯(软化装置)反洗工作状态，原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该动阀片13的该第九通道109流入该定阀片12的该第四通道104，然后通过该阀体11的该第七开口1107进入该软化箱31的该第二导通开口302，对该软化箱31中的软化树脂反向冲洗后，从该软化箱31的该第一导通开口301流出，然后流经该阀体11的该第六开口1106，再流经该定阀片12的该通道1081和该动阀片13的该第十一通道1011，再从该平面阀10的该排污开口1108流出；当该平面阀10处于第三工作位时，该水处理机处于该软化滤芯(软化装置)正洗工作状态，原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该动阀片13的该第九通道109流入该定阀片12的该通道1081，然后通过该阀体11的该第六开口1106进入该软化箱31的该第一导通开口301，对该软化箱31中的软化树脂正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11的该第七开口1107，再流经该定阀片12的该第三通道103和该动阀片13的该第十一通道1011，再从该平面阀10的该排污 开口1108流出；当该平面阀10处于第四工作位时，该水处理机处于该盐液箱补水工作状态，原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该动阀片13的该第九通道109流入该定阀片12的该第七通道107，然后流经该阀体11的该第四开口1104流入该射流器32的该射入口322，向盐液箱33补水；当该平面阀10处于第五工作位时，该水处理机处于该净化装置正洗工作状态，原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该动阀片13的该第九通道109流入该定阀片12的该第二通道102，然后通过该阀体11的该第五开口1105进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11的该第六开口1106，进入该定阀片12的该通道1081，再流经该动阀片13的该第十一通道1011从该平面阀10的该排污开口1108流出。进一步地，当该平面阀10处于第六工作位时，该水处理机处于净化装置反洗工作状态，原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该动阀片13的该第九通道109流入该定阀片12的该通道1082，然后通过该阀体11的该第六开口1106进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11的该第五开口1105，进入该定阀片12的该第一通道101，再流经该动阀片13的该第十一通道1011从该平面阀10的该排污开口1108流出；当该平面阀10处于第七工作位时，该水处理机处于该软化滤芯再生工作状态，原水自该阀体11的该第一开口1101流入到该阀体11的该内腔110，然后通过该动阀片13的该第九通道109流入该定阀片12的该第六通道106，然后通过该阀体11的该第三开口1103流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11的该第四开口1104，然后进入该定阀片12的该第七通道107，再经过动阀片13的该第十通道1010导流进入该定阀片12的该第四通道104，然后流经该阀体11的该第七开口1107进入该软化箱31的该第二导通开口302，逆流再生该软化箱31中的如软化树脂后，从该第一导通开口301流出，然后流经该阀体11的该第六开口1106进入该定阀片12的该通道1082，再通过该动阀片13的该第十一通道1011，从该平面阀10的该排污开口1108流出。同理，为了强化该平面阀10′的该定阀片12′的结构强度，该第一通道101′、该第二通道102′、该第三通道103′、该第四通道104′、该第五通道105′、该第六通道106′、该第七通道107′和该第八通道108′均可通过一个强化实体结构拆分或隔开成两个相邻的稍小通道。
相应地，如附图之图14A至图14F、图16A至图17G、图30A至图30F、图32A至图33G所示，依本发明第一较佳实施例，本发明进一步提供一种用于平面阀(或流体阀)的阀片组件，其中该阀片组件包括一个定阀片12和一个动阀片13，其中该定阀片12具有一个第一流体控制面120，该动阀片13具有一个第二流体控制面130，其中该动阀片13的该第二流体控制面130适于被设置在该定阀片12的该第一流体控制面120，且该动阀片13被设置能够相对该定阀片12转动，其中该平面阀具有一个第一通道101，一个第二通道102，一个第三通道103，一个第四通道104、一个第五通道105、一个第六通道106、一个第七通道107、一个第八通道108、一个第九通道109、一个第十通道1010和一个第十一通道1011，其中该第一通道101、该第二通道102、该第三通道103、该第四通道104、该第五通道105、该第六通道106、该第七通道107和该第八通道108分别设于该定阀片12并分别自该定阀片 12的该第一流体控制面120延伸；该第九通道109、该第十通道1010和该第十一通道1011分别设于该动阀片13并分别自该动阀片13的该第二流体控制面130延伸。
参考本发明附图之图41至图57G，依本发明第二较佳实施例的净化-软化水处理系统得以阐明，其适用于对原水或待处理水进行净化-软化处理，其中该净化-软化水处理系统包括一个流体阀10A、一个净化装置20A和一个软化装置30A，其中该流体阀10A包括一个阀体11A和一个阀芯1A，其中该阀体11A形成一个内腔110A、一个第一开口1101A、一个第二开口1102A、一个第三开口1103A、一个第四开口1104A、一个第五开口1105A、一个第六开口1106A和一个第七开口1107A，其中该阀芯1A被设置在该内腔110A，其中依本发明第二较佳实施例的该净化-软化水处理系统具有一个第一工作状态、一个第二工作状态、一个第三工作状态、一个第四工作状态和一个第五工作状态，其中当该净化-软化水处理系统处在该第一工作状态时，该流体阀10A形成一个分别与该阀体11A的该第一开口1101A和该第五开口1105A相连通的第一连通通道1001A和一个分别与该阀体11A的该第二开口1102A和该第七开口1107A相连通的第二连通通道1002A，当该净化-软化水处理系统处在该第二工作状态时，该流体阀10A形成一个分别与该阀体11A的该第一开口1101A和该第七开口1107A相连通的第三连通通道1003A和一个分别与该阀体11A的该第六开口1106A和一个排污开口(或第八开口)1108A相连通的第四连通通道1004A，当该净化-软化水处理系统处在该第三工作状态时，该流体阀10A形成一个分别与该阀体11A的该第一开口1101A和该第六开口1106A相连通的第五连通通道1005A和一个分别与该阀体11A的该第七开口1107A和该排污开口1108A相连通的第六连通通道1006A，当该净化-软化水处理系统处在该第四工作状态时，该流体阀10A形成一个分别与该阀体11A的该第一开口1101A和该第四开口1104A相连通的第七连通通道1007A，当该净化-软化水处理系统处在该第五工作状态时，该流体阀10A形成一个分别与该阀体11A的该第一开口1101A和该第五开口1105A相连通的第八连通通道1008A和一个分别与该阀体11A的该第六开口1106A和该排污开口1108A相连通的第九连通通道1009A。优选地，依本发明第二较佳实施例的净化-软化水处理系统进一步具有一个第六工作状态和一个第七工作状态，其中当该净化-软化水处理系统处在该第六工作状态时，该流体阀10A形成一个分别与该阀体11A的该第五开口1105A和该排污开口1108A相连通的第十连通通道10010A；当该净化-软化水处理系统处在该第七工作状态时，该流体阀10A形成一个分别与该阀体11A的该第一开口1101A和该第三开口1103A相连通的第十一连通通道10011A。更优选地，当该净化-软化水处理系统处在该第六工作状态时，该流体阀10A进一步形成一个分别与该阀体11A的该第一开口1101A和该第六开口1106A相连通的第十二连通通道10012A，当该净化-软化水处理系统处在该第七工作状态时，该流体阀10A形成一个分别与该阀体11A的该第七开口1107A和该第四开口1104A相连通的第十三连通通道10013A和一个分别与该阀体11A的该第六开口1106A和该平面阀10A的该排污开口1108A相连通的第十四连通通道10014A。
如附图之图41至图57G所示，依本发明第二较佳实施例的净化-软化水处理系统的流体阀10A是一个平面阀，其中该平面阀10A进一步包括一个动阀片13A和一个定阀片12A，该定阀片12A具有一个第一流体控制面120A，该动阀片13A具有一个第二流体控制面130A，其中该动阀片13A和该定阀片12A均被设置在该内腔110A，其中该动阀片13A的该第二流体控制面130A被设置在该定阀片12A 的该第一流体控制面120A，且该动阀片13A被设置能够相对该定阀片12A转动，其中该净化装置20具有一个第一连通开口201和一个第二连通开口202，其中该软化装置30包括至少一个软化箱31，其中该软化箱31具有一个第一导通开口301和一个第二导通开口302，其中该阀体11A的该内腔110A与该第一开口1101A相连通，该净化装置20的该第一连通开口201与该阀体11A的该第五开口1105A相连通，该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301均与该阀体11A的该第六开口1106A相连通，该软化箱31的该第二导通开口302与该阀体11A的该第七开口1107A相连通。因此，当该流体阀10A是一个平面阀时，该流体阀10A的该阀芯1A包括该动阀片13A和该定阀片12A。
如附图之图41至图42、图55A至图55G所示，依本发明第二较佳实施例的净化-软化水处理系统的该软化装置30进一步包括一个射流器32和一个盐液箱33，其中该射流器32具有一个适于与该阀体11A的该第三开口1103A相连通的射出口321和一个适于与该阀体11A的该第四开口1104A相连通的射入口322，其中该盐液箱33适于与该射流器32相连通，从而使来自该盐液箱33的盐液能够通过该射流器32和该第四开口1104A，和经该平面阀10A流向该软化装置30的该软化箱31，从而使该软化箱31内的软化树脂得到再生。相应地，当本发明净化-软化水处理系统处于一个软化滤芯吸盐再生工作状态时，原水或待处理水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过一个第十一连通通道10011A流入该第三开口1103A，再流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11A的该第四开口1104A，然后通过一个第十三连通通道10013A流入该第七开口1107A，进入该软化箱31的该第二导通开口302，逆流再生该软化箱31中的水处理材料或机构，如软化树脂后，从该第一导通开口301流出，然后流经该阀体11A的该第六开口1106A流入一个第十四连通通道10014A，然后从该平面阀10A的一个排污开口(或第八开口)1108A流出。可以理解，尽管本发明仅示例性地描述通过射流器32向软化箱31提供盐液方式，然而，盐液也可以通过其它方式或机构经过该平面阀10A的该第四开口1104A被提供给该软化箱31。因此，通过射流器32向软化箱31提供盐液的方式并不应成为本发明的限制。
本领域技术人员能够理解，本发明净化-软化水处理系统的该平面阀10A进一步具有一个被设置在该阀体11A的连接机构，如连接螺纹、卡接接头等，以便于该平面阀10A与该净化-软化水处理系统的其它结构部件，如净化装置20、软化装置30等相连接，以引导水分别流向净化装置20、软化箱31和该平面阀10A形成的各个连通通道。
如附图之图47A至图53D、图55A至图55G所示，依本发明第二较佳实施例的该净化-软化水处理系统具有一个第一工作状态、一个第二工作状态、一个第三工作状态、一个第四工作状态和一个第五工作状态，其中当该净化-软化水处理系统处在该第一工作状态时，该平面阀10A的该动阀片13A和该定阀片12A形成一个分别与该阀体11A的该内腔110A(或该第一开口1101A)和该第五开口1105A相连通的第一连通通道1001A和一个分别与该阀体11A的该第二开口1102A和该第七开口1107A相连通的第二连通通道1002A，当该净化-软化水处理系统处在该第二工作状态时，该平面阀10A的该动阀片13A和该定阀片12A形成一个分别与该阀体11A的该内腔110A(或该第一开口1101A)和该第七开口1107A相连通的第三连通通道1003A和一个分别与该阀体11A的该第六开口1106A和 该平面阀10A的该排污开口1108A相连通的第四连通通道1004A，当该净化-软化水处理系统处在该第三工作状态时，该平面阀10A的该动阀片13A和该定阀片12A形成一个分别与该阀体11A的该内腔110A(或该第一开口1101A)和该第六开口1106A相连通的第五连通通道1005A和一个分别与该阀体11A的该第七开口1107A和该平面阀10A的该排污开口1108A相连通的第六连通通道1006A，当该净化-软化水处理系统处在该第四工作状态时，该平面阀10A的该动阀片13A和该定阀片12A形成一个分别与该阀体11A的该内腔110A(或该第一开口1101A)和该第四开口1104A相连通的第七连通通道1007A，当该净化-软化水处理系统处在该第五工作状态时，该平面阀10A的该动阀片13A和该定阀片12A形成一个分别与该阀体11A的该内腔110A(或该第一开口1101A)和该第五开口1105A相连通的第八连通通道1008A和一个分别与该阀体11A的该第六开口1106A和该平面阀10A的该排污开口1108A相连通的第九连通通道1009A。
如附图之图47A至图53D、图55A至图55G所示，当依本发明第二较佳实施例的净化-软化水处理系统处在该第一工作状态时，该平面阀10A形成的该第一连通通道1001A分别与该阀体11A的该内腔110A(或该第一开口1101A)和该第五开口1105A相连通，该第二连通通道1002A分别与该阀体11A的该第二开口1102A和该第七开口1107A相连通，从而允许原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该平面阀10A形成的该第一连通通道1001A、该阀体11A的该第五开口1105A、该净化装置20的该第一连通开口201流入该净化装置20，原水经过该净化装置20净化处理后得到的净水从该净化装置20的该第二连通开口202流出，净水可经该软化箱31的该第一导通开口301流入该软化箱31，并经软化处理后得到软化水，软化水从该软化箱31的该第二导通开口302流出，然后经该阀体11A的该第七开口1107A、该平面阀10A的该第二连通通道1002A，最后经该阀体11A的该第二开口1102A流出和向用户供应软化水。优选地，该净化装置20的该第二连通开口202与一个供水出口401(或供水通路400)相连通，从而向使用者提供净水。因此，当该净化-软化水处理系统处在该第一工作状态时，本发明净化-软化水处理系统可同时向使用者提供净水和软化水。相应地，该净化-软化水处理系统的该第一工作状态对应于该净化-软化水处理系统的净化-软化工作状态。因此，当该净化-软化水处理系统处在该第一工作状态时，该阀体11A的该第一开口1101A(或该阀体11A的该内腔110A)、该阀体11A的该第五开口1105A、该净化装置20的该第一连通开口201、该净化装置20的该第二连通开口202、该软化装置30的该软化箱31的该第一导通开口301、该软化装置30的该软化箱31的该第二导通开口302、该阀体11A的该第七开口1107A和该阀体11A的该第二开口1102A被依次连通，从而形成一个将该净化装置20和该软化装置30串联在一起的水流通路，以使原水能够自该净化装置20流向该软化装置30和使原水依次被净化和软化处理。
如附图之图47A至图53D、图55A至图55G所示，当依本发明第二较佳实施例的净化-软化水处理系统处在该第二工作状态时，该平面阀10A形成的该第三连通通道1003A分别与该阀体11A的该内腔110A(或该第一开口1101A)和该第七开口1107A相连通，该第四连通通道1004A分别与该阀体11A的该第六开口1106A和该平面阀10A的该排污开口1108A相连通，从而允许原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该平面阀10A形成的该第三连通通道1003A流入该第七开口1107A，再经该软化箱31的该第二导通开口302流入该软化箱31，和对该软 化箱31中的软化材料(或水处理材料)，如软化树脂等，反向冲洗后，得到的污水或废水从该软化箱31的该第一导通开口301流出，然后流经该阀体11A的该第六开口1106A流入该平面阀10A的该第四连通通道1004A，然后从该平面阀10A的该排污开口1108A流出。换句话说，当该净化-软化水处理系统处在该第二工作状态时，本发明净化-软化水处理系统可控制对软化滤芯，如软化箱31进行反向冲洗。相应地，该净化-软化水处理系统的该第二工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)反洗工作状态。
如附图之图47A至图53D、图55A至图55G所示，当依本发明第二较佳实施例的净化-软化水处理系统处在该第三工作状态时，该平面阀10A形成的该第五连通通道1005A分别与该阀体11A的该内腔110A(或该第一开口1101A)和该第六开口1106A相连通，该第六连通通道1006A分别与该阀体11A的该第七开口1107A和该平面阀10A的该排污开口1108A相连通，从而允许原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该第五连通通道1005A流入该第六开口1106A，再进入该软化箱31的该第一导通开口301，对该软化箱31中的水处理材料或机构正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11A的该第七开口1107A流入该第六连通通道1006A，然后从该平面阀10A的该排污开口1108A流出。换句话说，当该净化-软化水处理系统处在该第三工作状态时，本发明净化-软化水处理系统可控制对软化滤芯，如软化箱31进行正向冲洗。相应地，该净化-软化水处理系统的该第三工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)正洗工作状态。
如附图之图47A至图53D、图55A至图55G所示，当依本发明第二较佳实施例的净化-软化水处理系统处在该第四工作状态时，该平面阀10A形成的该第七连通通道1007A分别与该阀体11A的该内腔110A(或该第一开口1101A)和该第四开口1104A相连通，从而允许原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该第七连通通道1007A流入该第四开口1104A，再流入该射流器32的该射入口322，向盐液箱33补水。换句话说，当该净化-软化水处理系统处在该第四工作状态时，本发明净化-软化水处理系统可控制向盐液箱33补水。相应地，该净化-软化水处理系统的该第四工作状态对应于该净化-软化水处理系统的盐液箱补水工作状态。
如附图之图47A至图53D、图55A至图55G所示，当依本发明第二较佳实施例的净化-软化水处理系统处在该第五工作状态时，该平面阀10A形成的该第八连通通道1008A分别与该阀体11A的该内腔110A(或该第一开口1101A)和该第五开口1105A相连通，该第九连通通道1009A分别与该阀体11A的该第六开口1106A和该平面阀10A的该排污开口1108A相连通，从而允许原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该第八连通通道1008A流入该第五开口1105A，再进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11A的该第六开口1106A流入该第九连通通道1009A，然后从该平面阀10A的该排污开口1108A流出。换句话说，当该净化-软化水处理系统处在该第五工作状态时，本发明净化-软化水处理系统可控制对净化装置20进行正向冲洗。相应地，该净化-软化水处理系统的该第五工作状态对应于该净化-软化水处理系统的净化装置正洗工作状态。
如附图之图47A至图53D、图55A至图55G所示，依本发明第二较佳实施例的净化-软化水处理系统进一步具有一个第六工作状态和一个第七工作状态，其中当该净化-软化水处理系统处在该第六工作状态时，该平面阀10A的该动阀片13A和该定阀片12A形成一个分别与该阀体11A的该第五开口1105A和该平面阀10A的该排污开口1108A相连通的第十连通通道10010A；当该净化-软化水处理系统处在该第七工作状态时，该平面阀10A的该动阀片13A和该定阀片12A形成一个分别与该阀体11A的该内腔110A(或该第一开口1101A)和该第三开口1103A相连通的第十一连通通道10011A。优选地，当该净化-软化水处理系统处在该第六工作状态时，该平面阀10A的该动阀片13A和该定阀片12A进一步形成一个分别与该阀体11A的该内腔110A(或该第一开口1101A)和该第六开口1106A相连通的第十二连通通道10012A，当该净化-软化水处理系统处在该第七工作状态时，该平面阀10A的该动阀片13A和该定阀片12A形成一个分别与该阀体11A的该第七开口1107A和该第四开口1104A相连通的第十三连通通道10013A和一个分别与该阀体11A的该第六开口1106A和该平面阀10A的该排污开口1108A相连通的第十四连通通道10014A。
如附图之图47A至图53D、图55A至图55G所示，当依本发明第二较佳实施例的净化-软化水处理系统处在该第六工作状态时，该平面阀10A形成的该第十连通通道10010A分别与该阀体11A的该第五开口1105A和该平面阀10A的该排污开口1108A相连通，该第十二连通通道10012A分别与该阀体11A的该内腔110A(或该第一开口1101A)和该第六开口1106A相连通，从而允许原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该第十二连通通道10012A流入该第六开口1106A，再进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11A的该第五开口1105A流入该第十连通通道10010A，然后从该平面阀10A的该排污开口1108A流出；当依本发明第二较佳实施例的净化-软化水处理系统处在该第七工作状态时，该平面阀10A形成的该第十一连通通道10011A分别与该阀体11A的该内腔110A(或该第一开口1101A)和该第三开口1103A相连通，该第十三连通通道10013A分别与该阀体11A的该第七开口1107A和该第四开口1104A相连通，该第十四连通通道10014A分别与该阀体11A的该第六开口1106A和该平面阀10A的该排污开口1108A相连通，从而允许原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该第十一连通通道10011A流入该第三开口1103A，再流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11A的该第四开口1104A，然后通过该第十三连通通道10013A流入该第七开口1107A，进入该软化箱31的该第二导通开口302，逆流再生该软化箱31中的软化树脂后，从该第一导通开口301流出，然后流经该阀体11A的该第六开口1106A流入该第十四连通通道10014A，然后从该平面阀10A的该排污开口1108A流出。相应地，该净化-软化水处理系统的该第六工作状态对应于该净化-软化水处理系统的净化装置反洗工作状态，该净化-软化水处理系统的该第七工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)再生工作状态。
如附图之图46E、图55A至图57G所示，进一步地，当依本发明第二较佳实施例的净化-软化水处理系统处在该第二工作状态、该第三工作状态、该第四工作状态、该第五工作状态、该第六工作 状态和该第七工作状态时，该平面阀10A的该动阀片13A和该定阀片12A形成一个分别与该阀体11A的该第二开口1102A和该内腔110A(或该第一开口1101A)相连通的第十五连通通道10015A，从而使得当该净化-软化水处理系统处在该第二工作状态、该第三工作状态、该第四工作状态、该第五工作状态、该第六工作状态和该第七工作状态时，允许原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该第十五连通通道10015A流入该阀体11A的该第二开口1102A，和在该第二工作状态、该第三工作状态、该第四工作状态、该第五工作状态、该第六工作状态和该第七工作状态向使用者提供原水。
相应地，如附图之图47A至图53D、图55A至图57G所示所示，依本发明第二较佳实施例的净化-软化水处理系统的该流体阀(或平面阀)10A具有一个第一工作位、一个第二工作位、一个第三工作位、一个第四工作位、一个第五工作位、一个第六工作位和一个第七工作位，其中当该流体阀(或平面阀)10A处在该第一工作位时，该流体阀10A的该阀芯1A形成该第一连通通道1001A和该第二连通通道1002A，当该流体阀(或平面阀)10处在该第二工作位时，该流体阀10A的该阀芯1A形成该第三连通通道1003A和该第四连通通道1004A，当该流体阀(或平面阀)10A处在该第三工作位时，该流体阀10A的该阀芯1A形成该第五连通通道1005A和该第六连通通道1006A，当该流体阀(或平面阀)10A处在该第四工作位时，该流体阀10A的该阀芯1A形成该第七连通通道1007A，当该流体阀(或平面阀)10A处在该第五工作位时，该流体阀10A的该阀芯1A形成该第八连通通道1008A和该第九连通通道1009A；当该流体阀(或平面阀)10A处在该第六工作位时，该流体阀10A的该阀芯1A形成该第十连通通道10010A；当该流体阀(或平面阀)10A处在该第七工作位时，该流体阀10A的该阀芯1A形成该第十一连通通道10011A。更优选地，当该流体阀(或平面阀)10A处在该第六工作位时，该流体阀10A的该阀芯1A进一步形成该第十二连通通道10012A，当该流体阀(或平面阀)10A处在该第七工作位时，该流体阀10A的该阀芯1A进一步形成该第十三连通通道10013A和该第十四连通通道10014A。进一步地，当依本发明第二较佳实施例的净化-软化水处理系统的该流体阀(或平面阀)10A处在该第二工作位、该第三工作位、该第四工作位、该第五工作位、该第六工作位和该第七工作位时，该流体阀10A的该阀芯1A形成该第十五连通通道10015A。
如附图之图41至图42、图55A至图55G所示，依本发明第二较佳实施例的净化-软化水处理系统进一步具有一个供水单元40，其中该供水单元40形成一个供水通路400，其中该供水通路400被设置与该净化装置20的该第二连通开口202相连通，以向使用者提供净水。如附图之图41至图42、图55A至图55G所示，该供水单元40包括一个净水管道(或净水管)41和一个流体阀42，其中该流体阀42被设置在该净水管道41，以控制向使用者提供净水。可以理解，该净水管道41形成该供水出口401。优选地，该流体阀42是一个电动球阀或电动平面阀，以便于使用者通过一个控制装置16A自动控制净水的提供。因此，该净化装置20的该第二连通开口202分别与该平面阀10A的该第六开口1106A、该软化箱31的该第一导通开口301和该供水通路400(或该供水出口401)相连通。此外，该平面阀10A的该第六开口1106A进一步与该软化箱31的该第一导通开口301相连通。
如附图之图43至图46E、图54A至图57G所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A具有一个第一通道101A，一个第二通道102A，一个第三通道103A，一个第四通 道104A、一个第五通道105A、一个第六通道106A、一个第七通道107A、一个第八通道108A、一个第九通道109A、一个第十通道1010A和一个第十一通道1011A，其中该第一通道101A、该第二通道102A、该第三通道103A、该第四通道104A、该第五通道105A、该第六通道106A、该第七通道107A和该第八通道108A分别设于该定阀片12A并分别自该定阀片12A的该第一流体控制面120A延伸；该第九通道109A、该第十通道1010A和该第十一通道1011A分别设于该动阀片13A并分别自该动阀片13A的该第二流体控制面130A延伸，该第一通道101A和该第二通道102A分别与该第五开口1105A相连通，该第三通道103A和该第四通道104A分别与该第七开口1107A相连通，该第五通道105A与该第二开口1102A相连通，该第六通道106A与该第三开口1103A相连通，该第七通道107A与该第四开口1104A相连通，该第八通道108A与该第六开口1106A相连通，该第九通道109A与该阀体11A的该内腔110A相连通，该第十一通道1011A与该排污开口1108A相连通。优选地，该排污开口1108A被设置在该平面阀10A的该阀体11A，且该排污开口1108A通过一个排污通道150A与该第十一通道1011A相连通。因此，可选地，该平面阀10A的该排污开口1108A形成在该动阀片13A，且该平面阀10A的该排污开口1108A分别与该第十一通道1011A和该排污通道150A相连通。可以理解，本发明该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301与该阀体11A的该第六开口1106A的连通可通过多种方式实现。如附图之图46A所示，该阀体11A的该第六开口1106A可通过一个分别与该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301相连通的连通管路(或三通管路)实现该净化装置20的该第二连通开口202、该软化箱31的该第一导通开口301和该阀体11的该第六开口1106之间的连通。可选地，该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301与该阀体11的该第六开口1106的连通也可通过被设置在该阀体11A的连通通路实现，其中该连通通路可被设置分别与该净化装置20的该第二连通开口202和该阀体11A的该第六开口1106A相连通，和分别与该软化箱31的该第一导通开口301和该阀体11A的该第六开口1106A相连通。因此，该阀体11A的该第八通道108A、该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301通过该阀体11A的该第六开口1106A形成一个三通结构。此外，为了确保该阀体11A的该内腔110A中的水进入该第九通道109A，该第九通道109A被设置可通过一个始终与外部空间相连通的进水口1091A保持始终与该阀体11A的该内腔110A相连通。
值得注意的是，该平面阀10A的该第一通道101A和该第二通道102A分别与该第五开口1105A的连通，可以是分别地和独自地与该第五开口1105A相连通，也可以通过一个流体通道相连通；该平面阀10A的该第三通道103A和该第四通道104A分别与该第七开口1107A的连通，可以是分别地和独自地与该第七开口1107A相连通，也可以通过一个流体通道相连通。例如，如附图之图43至图57G所示，该平面阀10A的该第一通道101A和该第二通道102A通过一个第一流体通道1211A相连通，该第二通道102A被设置直接与该第五开口1105A相连通，从而使该第一通道101A通过该第一流体通道1211A和该第二通道102A，也与该第五开口1105A相连通；该平面阀10A的该第三通道103A和该第四通道104A分别单独地与该第七开口1107A相连通。可选地，如图58A和图58B所示，该第一通道101A被设置直接与该第五开口1105A相连通，该第二通道102A通过该第一流体通道1211A和该第一通道101A，也与该第五开口1105A相连通。或者可选地，该平面阀10A的该第一通道101A和该第 二通道102A可分别地和独自地与该第五开口1105A相连通；或者可选地，如附图之图58C所示，该平面阀10A的该第三通道103A和该第四通道104A通过一个第二流体通道1212A相连通，该第三通道103A被设置直接与该第七开口1107A相连通，从而使该第四通道104A通过该第二流体通道1212A和该第三通道103A，也与该第七开口1107A相连通；或者可选地，如附图之图58D所示，该平面阀10A的该第三通道103A和该第四通道104A通过一个第二流体通道1212A相连通，该第四通道104A被设置直接与该第七开口1107A相连通，从而使该第三通道103A通过该第二流体通道1212A和该第四通道104A，也与该第七开口1107A相连通。可以理解，进一步地，该第一流体通道1211A和该第二流体通道1212A可被设置在该定阀片12A的该第一流体控制面120A，也可被设置在该阀体11A或该定阀片12A的内部。可以理解，该平面阀10A的该第一通道101A和该第二通道102A分别与该第五开口1105A的连通，和该平面阀10A的该第三通道103A和该第四通道104A分别与该第七开口1107A的连通，也可以是通过其它方式的连通。
如附图之图47A至图57G所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A的该动阀片13A能够相对定阀片12A转动从而使得该平面阀10A具有一个第一工作位，一个第二工作位，一个第三工作位，一个第四工作位和一个第五工作位，其中当平面阀10A处于该第一工作位时，该平面阀10A的该第九通道109A与该第一通道101A相连通，该第十通道1010A分别与该第三通道103A和该第五通道105A相连通；当该平面阀10A处于该第二工作位时，该平面阀10A的该第九通道109A与该第四通道104A相连通，该第十一通道1011A与该第八通道108A相连通，该第五通道105A与该阀体11A的该内腔110A相连通；当该平面阀10A处于该第三工作位时，该平面阀10A的该第九通道109A与该第八通道108A相连通，该平面阀10A的该第十一通道1011A与该第三通道103A相连通，该第五通道105A与该阀体11A的该内腔110A相连通；当该平面阀10A处于该第四工作位时，该平面阀10A的该第九通道109A与该第七通道107A相连通，该第五通道105A与该阀体11A的该内腔110A相连通；当该平面阀10A处于该第五工作位时，该平面阀10A的该第九通道109A与该第二通道102A相连通，该平面阀10A的该第十一通道1011A与该第八通道108A相连通，该第五通道105A与该阀体11A的该内腔110A相连通。
如附图之图47A至图57G所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A进一步具有一个第六工作位和一个第七工作位，其中当该平面阀10A处于该第六工作位时，该平面阀10A的该第十一通道1011A与该第一通道101A相连通，该第五通道105A与该阀体11A的该内腔110A相连通；当平面阀10A处于该第七工作位时，该平面阀10A的该第九通道109A与该第六通道106A相连通，该第五通道105A与该阀体11A的该内腔110A相连通。
更进一步地，当该平面阀10A处于该第六工作位时，该第八通道108A与该第九通道109A相连通，当该平面阀10A处于该第七工作位时，该第十通道1010A分别与该第四通道104A和该第七通道107A相连通，该第十一通道1011A与该第八通道108A相连通。
可以理解，当该平面阀10A处于该第一工作位时，依本发明第二较佳实施例的净化-软化水处理系统被控制处在该净化-软化工作状态，该平面阀10A的该第九通道109A与该第一通道101A相连通，从而形成该第一连通通道1001A，该第十通道1010A分别与该第三通道103A和该第五通道105A 相连通，从而形成该第二连通通道1002A；当该平面阀10A处于该第二工作位时，依本发明第二较佳实施例的净化-软化水处理系统被控制处在该软化滤芯(软化装置)反洗工作状态，该平面阀10A的该第九通道109A与该第四通道104A相连通，从而形成该第三连通通道1003A，该第十一通道1011A与该第八通道108A相连通，从而形成该第四连通通道1004A；当该平面阀10A处于该第三工作位时，依本发明第二较佳实施例的净化-软化水处理系统被控制处在该软化滤芯(软化装置)正洗工作状态，该平面阀10A的该第九通道109A与该第八通道108A相连通，从而形成该第五连通通道1005A，该平面阀10A的该第十一通道1011A与该第三通道103A相连通，从而形成该第六连通通道1006A；当该平面阀10A处于该第四工作位时，依本发明第二较佳实施例的净化-软化水处理系统被控制处在该盐液箱补水工作状态，该平面阀10A的该第九通道109A与该第七通道107A相连通，从而形成该第七连通通道1007A；该平面阀10A处于该第五工作位时，依本发明第二较佳实施例的净化-软化水处理系统被控制处在该净化装置正洗工作状态时，该平面阀10A的该第九通道109A与该第二通道102A相连通，从而形成该第八连通通道1008A，该平面阀10A的该第十一通道1011A与该第八通道108A相连通，从而形成该第九连通通道1009A。进一步地，当该平面阀10A处于该第六工作位时，依本发明第二较佳实施例的净化-软化水处理系统被控制处在该净化装置反洗工作状态，该平面阀10A的该第十一通道1011A与该第一通道101A相连通，从而形成该第十连通通道10010A；当该平面阀10A处于该第七工作位时，依本发明第二较佳实施例的净化-软化水处理系统被控制处在该软化滤芯再生工作状态，该平面阀10A的该第九通道109A与该第六通道106A相连通，从而形成该第十一连通通道10011A。更进一步地，当该平面阀10A处于该第六工作位时，该第八通道108A与该第九通道109A相连通，从而形成该第十二连通通道10012A，当该平面阀10A处于该第七工作位时，该第十通道1010A分别与该第四通道104A和该第七通道107A相连通，从而形成该第十三连通通道10013A，该第十一通道1011A与该第八通道108A相连通，从而形成该第十四连通通道10014A。可以理解，该第十一通道1011A可以是一个被设置在该动阀片13A的通孔，其中该第十一通道1011A自该动阀片13A的该第二流体控制面130A向上延伸至其相对的另一面，从而在相应的工作位将污水或废水向上排出至该排污通道150A。可以理解，当该平面阀10A处于该第一工作位时，该平面阀10A的该第十通道1010A分别与该第三通道103A和该第五通道105A相连通,且该平面阀10A的该动阀片13A将该第五通道105A与该阀体11A的该内腔110A相隔开，以防止该阀体11A的该内腔110A内的原水进入该第五通道105A。
如附图之图46E、图54A至图57G所示，进一步地，当依本发明第二较佳实施例的净化-软化水处理系统处在该第二工作位、该第三工作位、该第四工作位、该第五工作位、该第六工作位和该第七工作位时，该平面阀10A的该定阀片12A的该第五通道105A与该阀体11A的该内腔110A相连通，从而形成该第十五连通通道10015A。相应地，当依本发明第二较佳实施例的净化-软化水处理系统处在该第二工作位、该第三工作位、该第四工作位、该第五工作位、该第六工作位和该第七工作位时，原水被允许自该阀体11A的该第一开口1101A流入该阀体11A的该内腔110A，并进一步自该阀体11A的该内腔110A通过该定阀片12A的该第五通道105A流向该阀体11A的该第二开口1102A。
如附图之图47A至图57G所示，相应地，当该平面阀10A处于第一工作位时，该水处理机处于 净化-软化工作状态，原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该动阀片13A的该第九通道109A流入该定阀片12A的该第一通道101A，然后通过该阀体11A的该第五开口1105A进入该净化装置20的该第一连通开口201，经过该净化装置20的水处理材料或机构处理后，从该净化装置20的该第二连通开口202流出，然后流入该软化箱31的该第一导通开口301，经过该软化箱31内的软化树脂处理后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11A的该第七开口1107A进入该定阀片12A的该第三通道103A，经过该动阀片13A的该第十通道1010A导流进入该定阀片12A的该第五通道105A，然后经过该阀体11A的该第二开口1102A向用户供应处理后水；当该平面阀10A处于第二工作位时，该水处理机处于该软化滤芯(软化装置)反洗工作状态，原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该动阀片13A的该第九通道109A流入该定阀片12A的该第四通道104A，然后通过该阀体11A的该第七开口1107A进入该软化箱31的该第二导通开口302，对该软化箱31中的软化树脂反向冲洗后，从该软化箱31的该第一导通开口301流出，然后流经该阀体11A的该第六开口1106A，再流经该定阀片12A的该第八通道108A和该动阀片13A的该第十一通道1011A，再从该平面阀10A的该排污开口1108A流出，同时原水还能够通过该定阀片12A的该第五通道105A流向该阀体11A的该第二开口1102A；当该平面阀10A处于第三工作位时，该水处理机处于该软化滤芯(软化装置)正洗工作状态，原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该动阀片13A的该第九通道109A流入该定阀片12A的该第八通道108A，然后通过该阀体11A的该第六开口1106A进入该软化箱31的该第一导通开口301，对该软化箱31中的软化树脂正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11A的该第七开口1107A，再流经该定阀片12A的该第三通道103A和该动阀片13A的该第十一通道1011A，再从该平面阀10A的该排污开口1108A流出，同时原水还能够通过该定阀片12A的该第五通道105A流向该阀体11A的该第二开口1102A；当该平面阀10A处于第四工作位时，该水处理机处于该盐液箱补水工作状态，原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该动阀片13A的该第九通道109A流入该定阀片12A的该第七通道107A，然后流经该阀体11A的该第四开口1104A流入该射流器32的该射入口322，向盐液箱33补水，同时原水还能够通过该定阀片12A的该第五通道105A流向该阀体11A的该第二开口1102A；当该平面阀10A处于第五工作位时，该水处理机处于该净化装置正洗工作状态，原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该动阀片13A的该第九通道109A流入该定阀片12A的该第二通道102A，然后通过该阀体11A的该第五开口1105A进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11A的该第六开口1106A，进入该定阀片12A的该第八通道108A，再流经该动阀片13A的该第十一通道1011A从该平面阀10A的该排污开口1108A流出，同时原水还能够通过该定阀片12A的该第五通道105A流向该阀体11A的该第二开口1102A。进一步地，当该平面阀10A处于第六工作位时，该水处理机处于净化装置反洗工作状态，原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该动阀片13A的该第九通道109A流入该定阀片12A的该第八通道108A，然后通过该阀体11A的该第六开口1106A进入该净化装置20的该 第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11A的该第五开口1105A，进入该定阀片12A的该第一通道101A，再流经该动阀片13A的该第十一通道1011A从该平面阀10A的该排污开口1108A流出，同时原水还能够通过该定阀片12A的该第五通道105A流向该阀体11A的该第二开口1102A；当该平面阀10A处于第七工作位时，该水处理机处于该软化滤芯再生工作状态，原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该动阀片13A的该第九通道109A流入该定阀片12A的该第六通道106A，然后通过该阀体11A的该第三开口1103A流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11A的该第四开口1104A，然后进入该定阀片12A的该第七通道107A，再经过动阀片13A的该第十通道1010A导流进入该定阀片12A的该第四通道104A，然后流经该阀体11A的该第七开口1107A进入该软化箱31的该第二导通开口302，逆流再生该软化箱31中的如软化树脂后，从该第一导通开口301流出，然后流经该阀体11A的该第六开口1106A进入该定阀片12A的该第八通道108A，再通过该动阀片13A的该第十一通道1011A，从该平面阀10A的该排污开口1108A流出，同时原水还能够通过该定阀片12A的该第五通道105A流向该阀体11A的该第二开口1102A。
如附图之图57A至图57G所示，优选地，当该平面阀10A处于该第一工作位时，该平面阀10A的该第二通道102A、该第四通道104A和该第八通道108A分别被动阀片13A封闭；当该平面阀10A处于该第二工作位时，该平面阀10A的该第一通道101A和该第三通道103A分别被该动阀片13A封闭；当该平面阀10A处于该第三工作位时，该平面阀10A的该第二通道102A和该第四通道104A分别被该动阀片13A封闭；当该平面阀10A处于该第四工作位时，该平面阀10A的该第六通道106A被该动阀片13A封闭；当该平面阀10A处于该第五工作位时，该平面阀10A的该第一通道101A、该第三通道103A和该第四通道104A分别被该动阀片13A封闭；当该平面阀10A处于该第六工作位时，该平面阀10A的该第二通道102A、该第三通道103A和该第四通道104A分别被该动阀片13A封闭；当该平面阀10A处于第七工作位时，该平面阀10A的该第一通道101A、该第二通道102A和该第三通道103A分别被该动阀片13A封闭。
如附图之图57A至图57G所示，更优选地，当该平面阀10A处于该第二工作位时，该平面阀10A的该第六通道106A和该第七通道107A分别被该动阀片13A封闭；当该平面阀10A处于该第三工作位时，该第十通道1010A分别与该第一通道101A和该第八通道108A相连通，该平面阀10A的该第六通道106A和该第七通道107A分别被该动阀片13A封闭；当平面阀10A处于第四工作位时，该平面阀10A的该第一通道101A和该第三通道103A分别被该动阀片13A封闭；当该平面阀10A处于第五工作位时，该平面阀10A的该第六通道106A和该第七通道107A分别被该动阀片13A封闭；当平面阀10A处于该第六工作位时，该平面阀10A的该第十通道1010A与该第八通道108A相连通，该平面阀10A的该第六通道106A和该第七通道107A分别被该动阀片13A封闭。
如附图之图57A至图57G所示，最优选地，当该平面阀10A处于第一工作位时，该平面阀10A的该第六通道106A和该第七通道107A被该动阀片13A封闭，该第十一通道1011A被该定阀片12A封闭；当该平面阀10A处于该第二工作位时，该平面阀10A的该第十通道1010A分别与该第二通道102A 和该第八通道108A相连通；当该平面阀10A处于该第四工作位时，该平面阀10A的该第十通道1010A分别与该第二通道102A和该第四通道104A相连通，该第十一通道1011A与该第八通道108A相连通；当该平面阀10A处于该第五工作位时，该平面阀10A的该第十通道1010A与该第八通道108A相连通。
值得注意的是该平面阀10A的该第一通道101A、该第二通道102A、该第三通道103A、该第四通道104A、该第五通道105A、该第六通道106A、该第七通道107A和该第八通道108A分别相隔开地设于该定阀片12A的该第一流体控制面120A；该第九通道109A、该第十通道1010A和该第十一通道1011A分别相隔开地设于该动阀片13A的该第二流体控制面130A。换句话说，该平面阀10A的该第一通道101A、该第二通道102A、该第三通道103A、该第四通道104A、该第五通道105A、该第六通道106A、该第七通道107A和该第八通道108A分别形成一个被设置在该定阀片12A的该第一流体控制面120A的通道开口，该第九通道109A、该第十通道1010A和该第十一通道1011A分别形成一个被设置在该动阀片13A的该第二流体控制面130A的通道开口，当该平面阀10A的该动阀片13A被面(该第二流体控制面130A)对面(该第一流体控制面120A)设置，且该动阀片13A相对该定阀片12A转动时，被设置在该动阀片13A的通道和被设置在该定阀片12A的通道通过相应的通道开口选择性地相连通，从而形成相应的连通通道和控制流体(如水流)的流动方向。
可以理解，该平面阀10A的该第一通道101A、该第二通道102A、该第三通道103A、该第四通道104A、该第五通道105A、该第六通道106A、该第七通道107A、该第八通道108A、该第九通道109A、该第十通道1010A和该第十一通道1011A可具有任何能够实现本文中相互连通关系的延伸路径(或方向)；该平面阀10A的该第一通道101A、该第二通道102A、该第三通道103A、该第四通道104A、该第五通道105A、该第六通道106A、该第七通道107A和该第八通道108A分别形成在该定阀片12A的该第一流体控制面120A的通道开口，和该第九通道109A、该第十通道1010A和该第十一通道1011A分别形成在该动阀片13的该第二流体控制面130A的通道开口，可具有任何能够实现本文中相互连通关系的形状。例如，该第八通道108A形成在该定阀片12A的该第一流体控制面120A的通道开口可被设置具有一个规则形状，也可被设置为具有一个不规则形状。因此，该平面阀10A的该第一通道101A、该第二通道102A、该第三通道103A、该第四通道104A、该第五通道105A、该第六通道106A、该第七通道107A、该第八通道108A、该第九通道109A、该第十通道1010A和该第十一通道1011A的延伸路径(或方向)和其通道开口的形状不应成为对本发明的限制。
如附图之图54A至图54F所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A的该第一通道101A、该第八通道108A、该第二通道102A、该第四通道104A、该第七通道107A、该第六通道106A、该第三通道103A和该第五通道105A以此顺序顺时针地排布在该定阀片12A；该平面阀10A的该第十一通道1011A、该第十通道1010A和该第九通道109A以此顺序顺时针地排布在该动阀片13A。可选地，该平面阀10A的该第一通道101A、该第八通道108A、该第二通道102A、该第四通道104A、该第七通道107A、该第六通道106A、该第三通道103A和该第五通道105A以此顺序逆时针地排布在该定阀片12A；该平面阀10A的该第十一通道1011A、该第十通道1010A和该第九通道109A以此顺序逆时针地排布在该动阀片13A。
如附图之图54A至图54F和图56A至图56D所示，依本发明第二较佳实施例的净化-软化水处理 系统的该平面阀10A的该定阀片12A具有一个第一中心部121A、一个自该第一中心部121A向外延伸的第一延伸部122A和一个自该第一延伸部122A向外延伸的第一边缘部123A，该动阀片13A具有一个第二中心部131A、一个自该第二中心部131A向外延伸的第二延伸部132A和一个自该第二延伸部132A向外延伸的第二边缘部133A，其中该定阀片12A的该第一流体控制面120A具有一个图中点划线所示的中心部分1200A，其中该中心部分1200A被设于该定阀片12A的该第一中心部121A，且该第一流体控制面120A的中心部分1200A之外的部分被顺时针等分为点划线所示的一个第一部分1201A、一个第二部分1202A、一个第三部分1203A、一个第四部分1204A、一个第五部分1205A、一个第六部分1206A、一个第七部分1207A、一个第八部分1208A、一个第九部分1209A、一个第十部分12010A和一个第十一部分12011A；该平面阀10A的动阀片13A的该第二流体控制面130A具有一个图中点划线所示的中心区域1300A，其中该中心区域1300A设于该动阀片13A的该第二中心部131A，且该第二流体控制面130A的中心区域1300A之外的部分被顺时针等分为点划线所示的一个第一区域1301A、一个第二区域1302A、一个第三区域1303A、一个第四区域1304A、一个第五区域1305A、一个第六区域1306A、一个第七区域1307A、一个第八区域1308A、一个第九区域1309A、一个第十区域13010A和一个第十一区域13011A；其中该第一通道101A自该第一流体控制面120A的该第一部分1201A向下延伸；该第八通道108A自该定阀片12A的该第一流体控制面120A的该第二部分1202A、该第三部分1203A、该第四部分1204A和该第五部分1205A向下延伸；该第二通道102A自该定阀片12A的该第一流体控制面120A的该第六部分1206A向下延伸；该第四通道104A自该定阀片12A的该第一流体控制面120A的该第七部分1207A向下延伸；该第七通道107A自该第一流体控制面120A的该第八部分1208A向下延伸；该第六通道106A自该第一流体控制面120A的该第九部分1209A向下延伸；该第三通道103A自该第一流体控制面120A的该第十部分12010A向下延伸；该第五通道105A自该第一流体控制面120A的该第十一部分12011A向下延伸；该第九通道109A自该第二流体控制面130A的该第一区域1301A向上延伸；该第十一通道1011A自该第二流体控制面130A的该第八区域1308A向上延伸；该第十通道1010A自该第二流体控制面130A的该第十区域13010A和该第十一区域13011A向上延伸。
可以理解，当该动阀片13A的该第二流体控制面130A被设置在该定阀片12A的该第一流体控制面120A时，该动阀片13A的该第二流体控制面130A的该第二中心部131A正对该定阀片12A的该第一流体控制面120A的该第一中心部121A，该动阀片13A的该第二流体控制面130A的该第二延伸部132A正对该定阀片12A的该第一流体控制面120E的该第一延伸部122A，该动阀片13A的该第二流体控制面130A的该第二边缘部133A正对该定阀片12A的该第一流体控制面120A的该第一边缘部123A。
优选地，该平面阀10A的定阀片12A的第一流体控制面120A和动阀片13A的该第二流体控制面130A均为圆形，该第一通道101A、该第二通道102A、该第三通道103A、该第四通道104A、该第五通道105A、该第六通道106A、该第七通道107A和该第八通道108A均沿径向设于该定阀片12A的该第一流体控制面120A，且该第九通道109A和该第十通道1010A均沿径向设于该动阀片13A的该第二流体控制面130A。
如附图之图56A至图56D所示，优选地，该平面阀10A的该第一通道101A、该第二通道102A、该第三通道103A、该第四通道104A、该第六通道106A、该第七通道107A和该第八通道108A分别被设置在该定阀片12A的该第一流体控制面120A的该第一延伸部122A，该第五通道105A被设置在该第一流体控制面120A的该第一边缘部123A并自该第一边缘部123A向内延伸。更优选地，该第五通道105A被设置在该第一流体控制面120A的该第一边缘部123A并自该第一边缘部123A向内延伸至该第一流体控制面120A的该第一延伸部122A。
如附图之图56A至图56D所示，优选地，该平面阀10A的该第九通道109A和该第十一通道1011A分别被设置在该动阀片13A的该第二流体控制面130A的该第二延伸部132A，该第十通道1010A被设置在该动阀片13A的该第二流体控制面130A的该第二边缘部133A并自该第二边缘部133A向内延伸至该第二延伸部132A。
如附图之图43至图46E所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A的该阀体11A具有一个内壁111A，其中该定阀片12A适于该第一流体控制面120A朝上地设于该内腔110A，和该动阀片13A适于该第二流体控制面130A朝下地设于该内腔110A，其中该内腔110A始终与该第九通道109A相连通。值得注意的是，该平面阀10A的该定阀片12A可以被可拆卸地设置在该阀体11A的内壁111A，也可以与该平面阀10A的该阀体11A的该内壁111A相一体成型。本领域技术人员可以理解，当该定阀片12A被可拆卸地设置在该阀体11A内时，该定阀片12A和该阀体11A之间通过一个固定机构来保持该定阀片12A和该阀体11A之间的同步。例如，如附图之图43至图46E所示，该定阀片12A具有一个自该定阀片12A的边缘向外突出的制动件123A，该阀体11A的该内壁111A具有一个制动槽1110A，其中该定阀片12A的该制动件123A被设置能够与该阀体11A的该内壁111A的该制动槽1110A相啮合，以确保该定阀片12A和该阀体11A之间相同步(或不会发生相对转动)和确保被设置在该定阀片12A的各个通道与被设置在该阀体11A的相应开口相连通。可以理解，当该定阀片12A被可拆卸地设置在该阀体11A内时，该定阀片12A可被单独制造。换句话说，此时，该定阀片12A可由耐磨材料制成，从而提高该定阀片12A(或整个平面阀)的使用寿命。
如附图之图43至图46E所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A进一步包括一个导流元件15A，其中该导流元件15A形成该排污通道150A，其中该导流元件15A被设置自该动阀片13A向上延伸且该导流元件15A的该排污通道150A分别与该平面阀的该排污开口1108A和该第十一通道1011A相连通(该排污开口1108A被设置在该平面阀10A的该阀体11A)，或者该排污通道150A直接与该排污开口1108A相连通(该排污开口1108A被设置在该平面阀10A的该动阀片13A，并与该第十一通道1011A相连通)，以使污水或废水可自其流出。
如附图之图43至图46E所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A进一步包括一个自该动阀片13A向上延伸的驱动元件18A，其中该驱动元件18A被设置能够驱动该平面阀10A的该动阀片13A相对该定阀片12A发生转动。优选地，该驱动元件18A与该导流元件15相一体成型。可选地，该驱动元件18A与该导流元件15为两个独立的机构。
如附图之图43至图46E所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A进一步包括一个密封元件17A，其中该密封元件17A被设置与该驱动元件18A相面对面，其中该密 封元件17A形成一个第一密封面170A，该驱动元件18A形成一个第二密封面180A，其中该密封元件17A的该第一密封面170A被设置在该驱动元件18A的该第二密封面180A，从而使得当该驱动元件18A相对该密封元件17A转动，以驱动该动阀片13A相对该定阀片12A转动时，该驱动元件18A和该密封元件17A之间被密封和防止水的泄漏。此外，该密封元件17A被设置能够保持该驱动元件18A处于适当位置，从而保持该动阀片13A处于一个预设位置。
如附图之图47A至图47D所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A的该动阀片13A的直径被设置稍小于该阀体11A的内腔110A的直径，从而使得该平面阀10A的该第九通道109A可通过该进水口1091A保持与该阀体11A的该内腔110A相连通。
如附图之图47A至图53D、图55A至图55G所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A的该控制装置16A被设置能够根据一个净化-软化控制指令，通过一个传动机构14A，如传动齿轮，驱动该驱动元件18A转动，以驱动该平面阀10A的该动阀片13A相对该定阀片12A转动，从而形成一个分别与该平面阀10A的该阀体11A的该内腔110A和该第五开口1105A相连通的第一连通通道1001A和一个分别与该阀体11A的该第二开口1102A和该第七开口1107A相连通的第二连通通道1002A，以允许原水自该阀体11A的该内腔110A，经过该平面阀10A形成的该第一连通通道1001A、该阀体11A的该第五开口1105A、该净化装置20的该第一连通开口201流入该净化装置20，原水经过该净化装置20净化处理后得到的净水从该净化装置20的该第二连通开口202流出，净水可经该软化箱31的该第一导通开口301流入该软化箱31，并经软化处理后得到软化水，软化水从该软化箱31的该第二导通开口302流出，然后经该阀体11A的该第七开口1107A、该平面阀10A的该第二连通通道1002A，最后经该阀体11A的该第二开口1102A流出和向用户供应软化水；根据一个软化滤芯(软化装置)反洗控制指令，通过该传动机构14A，如传动齿轮，驱动该驱动元件18A转动，以驱动该平面阀10A的该动阀片13A相对该定阀片12A转动，从而形成一个分别与该平面阀10A的该阀体11A的该内腔110A和该第七开口1107A相连通的第三连通通道1003A和一个分别与该阀体11A的该第六开口1106A和该平面阀10A的该排污开口1108A相连通的第四连通通道1004A，以允许原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该平面阀10A形成的该第三连通通道1003A流入该第七开口1107A，再经该软化箱31的该第二导通开口302流入该软化箱31，和对该软化箱31中的软化材料(或水处理材料)，如软化树脂等，反向冲洗后，得到的污水或废水从该软化箱31的该第一导通开口301流出，然后流经该阀体11A的该第六开口1106A流入该平面阀10A的该第四连通通道1004A，然后从该平面阀10A的该排污开口1108A流出，同时，还形成一个分别与该阀体11A的该第二开口1102A和该内腔110A相连通的第十五连通通道10015A，以允许原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该第十五连通通道10015A流入该阀体11A的该第二开口1102A，向使用者提供原水；根据一个软化滤芯(软化装置)正洗控制指令，通过该传动机构14A，如传动齿轮，驱动该驱动元件18A转动，以驱动该平面阀10A的该动阀片13A相对该定阀片12A转动，从而形成一个分别与该阀体11A的该内腔110A和该第六开口1106A相连通的第五连通通道1005A和一个分别与该阀体11A的该第七开口1107A和该平面阀10A的该排污开口1108A相连通的第六连通通道1006A，以允许原水自该阀体11A的该第一开口1101A流 入到该阀体11A的该内腔110A，然后通过该第五连通通道1005A流入该第六开口1106A，再进入该软化箱31的该第一导通开口301，对该软化箱31中的水处理材料或机构正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11A的该第七开口1107A流入该第六连通通道1006A，然后从该平面阀10A的该排污开口1108A流出，同时，还形成一个分别与该阀体11A的该第二开口1102A和该内腔110A相连通的第十五连通通道10015A，以允许原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该第十五连通通道10015A流入该阀体11A的该第二开口1102A，向使用者提供原水；根据一个补水控制指令，通过该传动机构14A，如传动齿轮，驱动该驱动元件18A转动，以驱动该平面阀10A的该动阀片13A相对该定阀片12A转动，从而形成一个分别与该阀体11A的该内腔110A和该第四开口1104A相连通的第七连通通道1007A，以允许原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该第七连通通道1007A流入该第四开口1104A，再流入该射流器32的该射入口322，向盐液箱33补水，同时，还形成一个分别与该阀体11A的该第二开口1102A和该内腔110A相连通的第十五连通通道10015A，以允许原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该第十五连通通道10015A流入该阀体11A的该第二开口1102A，向使用者提供原水；根据一个净化装置正洗控制指令，通过该传动机构14A，如传动齿轮，驱动该驱动元件18A转动，以驱动该平面阀10A的该动阀片13A相对该定阀片12A转动，从而形成一个分别与该阀体11A的该内腔110A和该第五开口1105A相连通的第八连通通道1008A和一个分别与该阀体11A的该第六开口1106A和该平面阀10A的该排污开口1108A相连通的第九连通通道1009A，以允许原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该第八连通通道1008A流入该第五开口1105A，再进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11A的该第六开口1106A流入该第九连通通道1009A，然后从该平面阀10A的该排污开口1108A流出，同时，还形成一个分别与该阀体11A的该第二开口1102A和该内腔110A相连通的第十五连通通道10015A，以允许原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该第十五连通通道10015A流入该阀体11A的该第二开口1102A，向使用者提供原水。
如附图之图47A至图53D、图55A至图55G所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A的该控制装置16A进一步被设置能够根据一个净化装置反洗控制指令，通过该传动机构14A，如传动齿轮，驱动该驱动元件18A转动，以驱动该平面阀10A的该动阀片13A相对该定阀片12A转动，从而形成一个分别与该阀体11A的该第五开口1105A和该平面阀10A的该排污开口1108A相连通的第十连通通道10010A和一个分别与该阀体11A的该内腔110A和该第六开口1106A相连通的第十二连通通道10012A，以允许原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该第十二连通通道10012A流入该第六开口1106A，再进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11A的该第五开口1105A流入该第十连通通道10010A，然后从该平面阀10A的该排污开口1108A流出，同时，还形成一个分别与该阀体11A的该第二开口1102A 和该内腔110A相连通的第十五连通通道10015A，以允许原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该第十五连通通道10015A流入该阀体11A的该第二开口1102A，向使用者提供原水。
如附图之图47A至图53D、图55A至图55G所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A的该控制装置16A进一步被设置能够根据一个软化滤芯再生控制指令，通过该传动机构14A，如传动齿轮，驱动该驱动元件18A转动，以驱动该平面阀10A的该动阀片13A相对该定阀片12A转动，从而形成一个分别与该阀体11A的该内腔110A和该第三开口1103A相连通的第十一连通通道10011A、一个分别与该阀体11A的该第七开口1107A和该第四开口1104A相连通的第十三连通通道10013A和一个分别与该阀体11A的该第六开口1106A和该平面阀10A的该排污开口1108A相连通的第十四连通通道10014A，以允许原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该第十一连通通道10011A流入该第三开口1103A，再流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11A的该第四开口1104A，然后通过该第十三连通通道10013A流入该第七开口1107A，进入该软化箱31的该第二导通开口302，逆流再生该软化箱31中的软化树脂后，从该第一导通开口301流出，然后流经该阀体11A的该第六开口1106A流入该第十四连通通道10014A，然后从该平面阀10A的该排污开口1108A流出，同时，还形成一个分别与该阀体11A的该第二开口1102A和该内腔110A相连通的第十五连通通道10015A，以允许原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该第十五连通通道10015A流入该阀体11A的该第二开口1102A，向使用者提供原水。
值得注意的是，该控制指令，如净化-软化控制指令、软化装置反洗控制指令、软化装置正洗控制指令、补水控制指令、净化装置正洗控制指令、净化装置反洗控制指令、软化滤芯再生控制指令等控制指令，可以被预设在该控制装置16A的控制模块，也可以通过一个电子通讯网络接收自一个控制终端，或者由使用者通过一个输入界面输入。例如，当本发明净化-软化水处理系统的被设置具有一个用于该平面阀10A的输入界面，如触控板或控制按钮时，使用者可通过触控面板或相应的控制按钮向该控制装置16A的控制模块发送上述控制指令，以使该控制装置16A的控制模块控制该控制装置16A的电机转动，从而通过一个传动机构14A驱动该驱动元件18A转动。
附图之图41和图42、图59至图73G显示的是依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A的一种可选实施，其适用于控制净化-软化水处理系统对原水或待处理水进行净化-软化处理，其中该平面阀(流体阀)10A′包括一个阀体11A′和一个阀芯1A′，其中该阀芯1A′包括一个动阀片13A′和一个定阀片12A′，其中该阀体11A′形成一个内腔110A、一个第一开口1101A、一个第二开口1102A、一个第三开口1103A、一个第四开口1104A、一个第五开口1105A、一个第六开口1106A、一个第七开口1107A和一个排污开口(或第八开口)1108A′，该定阀片12A′具有一个第一流体控制面120A，该动阀片13A′具有一个第二流体控制面130A，其中该动阀片13A′和该定阀片12A′均被设置在该内腔110A，其中该动阀片13A′的该第二流体控制面130A被设置在该定阀片12A′的该第一流体控制面120A，且该动阀片13A′被设置能够相对该定阀片12A′转动，其中该净化-软化水处 理系统的净化装置20具有一个第一连通开口201和一个第二连通开口202，该净化-软化水处理系统的软化装置30包括至少一个软化箱31，其中该软化箱31具有一个第一导通开口301和一个第二导通开口302，其中该平面阀10A′的该阀体11A′的该内腔110A与该第一开口1101A相连通，该净化装置20的该第一连通开口201与该阀体11A′的该第五开口1105A相连通，该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301均与该阀体11A′的该第六开口1106A相连通，该软化箱31的该第二导通开口302与该阀体11A′的该第七开口1107A相连通。
如附图之图41和图42、图59至图73G所示，依本发明第二较佳实施例的净化-软化水处理系统的该软化装置30进一步包括一个射流器32和一个盐液箱33，其中该射流器32具有一个适于与该阀体11A′的该第三开口1103A相连通的射出口321和一个适于与该阀体11A′的该第四开口1104A相连通的射入口322，其中该盐液箱33适于与该射流器32相连通，从而使来自该盐液箱33的盐液能够通过该射流器32和该第四开口1104A，和经该平面阀10A′流向该软化装置30的该软化箱31，从而使该软化箱31内的软化树脂得到再生。相应地，当本发明净化-软化水处理系统处于一个软化滤芯吸盐再生工作状态时，原水或待处理水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过一个第十一连通通道10011A流入该第三开口1103A，再流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11A′的该第四开口1104A，然后通过一个第十三连通通道10013A流入该第七开口1107A，进入该软化箱31的该第二导通开口302，逆流再生该软化箱31中的水处理材料或机构，如软化树脂后，从该第一导通开口301流出，然后流经该阀体11A′的该第六开口1106A流入一个第十四连通通道10014A′，然后从该平面阀10A′的该排污开口1108A′流出。可以理解，尽管本发明仅示例性地描述通过射流器32向软化箱31提供盐液方式，然而，盐液也可以通过其它方式或机构经过该平面阀10A′的该第四开口1104A被提供给该软化箱31。因此，通过射流器32向软化箱31提供盐液的方式并不应成为本发明的限制。
本领域技术人员能够理解，本发明净化-软化水处理系统的该平面阀10A′可进一步具有一个被设置在该阀体11A′的连接机构，如连接螺纹、卡接接头等，以便于该平面阀10A′与该净化-软化水处理系统的其它结构部件，如水路连接接头等相连接，以引导水分别流向净化装置20、软化箱31和该平面阀10A′形成的各个连通通道。
如附图之图59至图73G所示，依本发明第二较佳实施例的该净化-软化水处理系统具有一个第一工作状态、一个第二工作状态、一个第三工作状态、一个第四工作状态和一个第五工作状态，其中当该净化-软化水处理系统处在该第一工作状态时，该平面阀10A′的该动阀片13A′和该定阀片12A′形成一个分别与该阀体11A′的该内腔110A(或该第一开口1101A)和该第五开口1105A相连通的第一连通通道1001A和一个分别与该阀体11A′的该第二开口1102A和该第七开口1107A相连通的第二连通通道1002A，当该净化-软化水处理系统处在该第二工作状态时，该平面阀10A′的该动阀片13A′和该定阀片12A′形成一个分别与该阀体11A′的该内腔110A(或该第一开口1101A)和该第七开口1107A相连通的第三连通通道1003A和一个分别与该阀体11A′的该第六开口1106A和该平面阀10A′的该排污开口1108A′相连通的第四连通通道1004A′，当该净化-软化水处理系统处在该第三工作状 态时，该平面阀10A′的该动阀片13A′和该定阀片12A′形成一个分别与该阀体11A′的该内腔110A(或该第一开口1101A)和该第六开口1106A相连通的第五连通通道1005A和一个分别与该阀体11A′的该第七开口1107A和该平面阀10A′的该排污开口1108A′相连通的第六连通通道1006A′，当该净化-软化水处理系统处在该第四工作状态时，该平面阀10A′的该动阀片13A′和该定阀片12A′形成一个分别与该阀体11A′的该内腔110A(或该第一开口1101A)和该第四开口1104A相连通的第七连通通道1007A，当该净化-软化水处理系统处在该第五工作状态时，该平面阀10A′的该动阀片13A′和该定阀片12A′形成一个分别与该阀体11A′的该内腔110A(或该第一开口1101A)和该第五开口1105A相连通的第八连通通道1008A和一个分别与该阀体11A′的该第六开口1106A和该平面阀10A′的该排污开口1108A′相连通的第九连通通道1009A′。
如附图之图59至图73G所示，当依本发明第二较佳实施例的净化-软化水处理系统处在该第一工作状态时，该平面阀10A′形成的该第一连通通道1001A分别与该阀体11A′的该内腔110A(或该第一开口1101A)和该第五开口1105A相连通，该第二连通通道1002A分别与该阀体11A′的该第二开口1102A和该第七开口1107A相连通，从而允许原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该平面阀10A′形成的该第一连通通道1001A、该阀体11A′的该第五开口1105A、该净化装置20的该第一连通开口201流入该净化装置20，原水经过该净化装置20净化处理后得到的净水从该净化装置20的该第二连通开口202流出，净水可经该软化箱31的该第一导通开口301流入该软化箱31，并经软化处理后得到软化水，软化水从该软化箱31的该第二导通开口302流出，然后经该阀体11A′的该第七开口1107A、该平面阀10A′的该第二连通通道1002A，最后经该阀体11A′的该第二开口1102A流出和向用户供应软化水。优选地，该净化装置20的该第二连通开口202与一个供水出口401(或供水通路400)相连通，从而向使用者提供净水。因此，当该净化-软化水处理系统处在该第一工作状态时，本发明净化-软化水处理系统可同时向使用者提供净水和软化水。相应地，该净化-软化水处理系统的该第一工作状态对应于该净化-软化水处理系统的净化-软化工作状态。因此，当该净化-软化水处理系统处在该第一工作状态时，该阀体11A′的该第一开口1101A(或该阀体11A′的该内腔110A)、该阀体11A′的该第五开口1105A、该净化装置20的该第一连通开口201、该净化装置20的该第二连通开口202、该软化装置30的该软化箱31的该第一导通开口301、该软化装置30的该软化箱31的该第二导通开口302、该阀体11A′的该第七开口1107A和该阀体11A′的该第二开口1102A被依次连通，从而形成一个将该净化装置20和该软化装置30串联在一起的水流通路，以使原水能够自该净化装置20流向该软化装置30和使原水依次被净化和软化处理。
如附图之图59至图73G所示，当依本发明第二较佳实施例的净化-软化水处理系统处在该第二工作状态时，该平面阀10A′形成的该第三连通通道1003A分别与该阀体11A′的该内腔110A(或该第一开口1101A)和该第七开口1107A相连通，该第四连通通道1004A′分别与该阀体11A′的该第六开口1106A和该平面阀10A′的该排污开口1108A′相连通，从而允许原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该平面阀10A′形成的该第三连通通道1003A流入该第七开口1107A，再经该软化箱31的该第二导通开口302流入该软化箱31，和对该软化箱31中的软化材料(或水处理材料)，如软化树脂等，反向冲洗后，得到的污水或废水从该软化箱31的该第 一导通开口301流出，然后流经该阀体11A′的该第六开口1106A流入该平面阀10A′的该第四连通通道1004A′，然后从该平面阀10A′的该排污开口1108A′流出。换句话说，当该净化-软化水处理系统处在该第二工作状态时，本发明净化-软化水处理系统可控制对软化滤芯，如软化箱31进行反向冲洗。相应地，该净化-软化水处理系统的该第二工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)反洗工作状态。
如附图之图59至图73G所示，当依本发明第二较佳实施例的净化-软化水处理系统处在该第三工作状态时，该平面阀10A′形成的该第五连通通道1005A分别与该阀体11A′的该内腔110A(或该第一开口1101A)和该第六开口1106A相连通，该第六连通通道1006A′分别与该阀体11A′的该第七开口1107A和该平面阀10A′的该排污开口1108A′相连通，从而允许原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该第五连通通道1005A流入该第六开口1106A，再进入该软化箱31的该第一导通开口301，对该软化箱31中的水处理材料或机构正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11A′的该第七开口1107A流入该第六连通通道1006A′，然后从该平面阀10A′的该排污开口1108A′流出。换句话说，当该净化-软化水处理系统处在该第三工作状态时，本发明净化-软化水处理系统可控制对软化滤芯，如软化箱31进行正向冲洗。相应地，该净化-软化水处理系统的该第三工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)正洗工作状态。
如附图之图59至图73G所示，当依本发明第二较佳实施例的净化-软化水处理系统处在该第四工作状态时，该平面阀10A′形成的该第七连通通道1007A分别与该阀体11A′的该内腔110A(或该第一开口1101A)和该第四开口1104A相连通，从而允许原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该第七连通通道1007A流入该第四开口1104A，再流入该射流器32的该射入口322，向盐液箱33补水。换句话说，当该净化-软化水处理系统处在该第四工作状态时，本发明净化-软化水处理系统可控制向盐液箱33补水。相应地，该净化-软化水处理系统的该第四工作状态对应于该净化-软化水处理系统的盐液箱补水工作状态。
如附图之图59至图73G所示，当依本发明第二较佳实施例的净化-软化水处理系统处在该第五工作状态时，该平面阀10A′形成的该第八连通通道1008A分别与该阀体11A′的该内腔110A(或该第一开口1101A)和该第五开口1105A相连通，该第九连通通道1009A′分别与该阀体11A′的该第六开口1106A和该平面阀10A′的该排污开口1108A′相连通，从而允许原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该第八连通通道1008A流入该第五开口1105A，再进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11A′的该第六开口1106A流入该第九连通通道1009A′，然后从该平面阀10A′的该排污开口1108A′流出。换句话说，当该净化-软化水处理系统处在该第五工作状态时，本发明净化-软化水处理系统可控制对净化装置20进行正向冲洗。相应地，该净化-软化水处理系统的该第五工作状态对应于该净化-软化水处理系统的净化装置正洗工作状态。
如附图之图59至图73G所示，依本发明第二较佳实施例的净化-软化水处理系统进一步具有一 个第六工作状态和一个第七工作状态，其中当该净化-软化水处理系统处在该第六工作状态时，该平面阀10A′的该动阀片13A′和该定阀片12A′形成一个分别与该阀体11A′的该第五开口1105A和该平面阀10A′的该排污开口1108A′相连通的第十连通通道10010A′；当该净化-软化水处理系统处在该第七工作状态时，该平面阀10A′的该动阀片13A′和该定阀片12A′形成一个分别与该阀体11A′的该内腔110A(或该第一开口1101A)和该第三开口1103A相连通的第十一连通通道10011A。优选地，当该净化-软化水处理系统处在该第六工作状态时，该平面阀10A′的该动阀片13A′和该定阀片12A′进一步形成一个分别与该阀体11A′的该内腔110A(或该第一开口1101A)和该第六开口1106A相连通的第十二连通通道10012A，当该净化-软化水处理系统处在该第七工作状态时，该平面阀10A′的该动阀片13A′和该定阀片12A′形成一个分别与该阀体11A′的该第七开口1107A和该第四开口1104A相连通的第十三连通通道10013A和一个分别与该阀体11A′的该第六开口1106A和该平面阀10A′的该排污开口1108A′相连通的第十四连通通道10014A′。
如附图之图59至图73G所示，当依本发明第二较佳实施例的净化-软化水处理系统处在该第六工作状态时，该平面阀10A′形成的该第十连通通道10010A′分别与该阀体11A′的该第五开口1105A和该平面阀10A′的该排污开口1108A′相连通，该第十二连通通道10012A分别与该阀体11A′的该内腔110A(或该第一开口1101A)和该第六开口1106A相连通，从而允许原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该第十二连通通道10012A流入该第六开口1106A，再进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11A′的该第五开口1105A流入该第十连通通道10010A′，然后从该平面阀10A′的该排污开口1108A′流出；当依本发明第二较佳实施例的净化-软化水处理系统处在该第七工作状态时，该平面阀10A′形成的该第十一连通通道10011A分别与该阀体11A′的该内腔110A(或该第一开口1101A)和该第三开口1103A相连通，该第十三连通通道10013A分别与该阀体11A′的该第七开口1107A和该第四开口1104A相连通，该第十四连通通道10014A′分别与该阀体11A′的该第六开口1106A和该平面阀10A′的该排污开口1108A′相连通，从而允许原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该第十一连通通道10011A流入该第三开口1103A，再流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11A′的该第四开口1104A，然后通过该第十三连通通道10013A流入该第七开口1107A，进入该软化箱31的该第二导通开口302，逆流再生该软化箱31中的软化树脂后，从该第一导通开口301流出，然后流经该阀体11A′的该第六开口1106A流入该第十四连通通道10014A′，然后从该平面阀10A′的该排污开口1108A′流出。相应地，该净化-软化水处理系统的该第六工作状态对应于该净化-软化水处理系统的净化装置反洗工作状态，该净化-软化水处理系统的该第七工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)再生工作状态。
如附图之图62E、图71A至图73G所示，进一步地，当依本发明第二较佳实施例的净化-软化水处理系统处在该第二工作状态、该第三工作状态、该第四工作状态、该第五工作状态、该第六工作状态和该第七工作状态时，该平面阀10A′的该动阀片13A′和该定阀片12A′形成一个分别与该阀体 11A′的该第二开口1102A和该内腔110A相连通的第十五连通通道10015A，从而使得当该净化-软化水处理系统处在该第二工作状态、该第三工作状态、该第四工作状态、该第五工作状态、该第六工作状态和该第七工作状态时，原水能够自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该第十五连通通道10015A流入该阀体11A′的该第二开口1102A，从而在该第二工作状态、该第三工作状态、该第四工作状态、该第五工作状态、该第六工作状态和该第七工作状态向使用者提供原水。
如附图之图41至图42、图71A至图71G所示，依本发明第二较佳实施例的净化-软化水处理系统进一步具有一个供水单元40，其中该供水单元40形成一个供水通路400，其中该供水通路400被设置与该净化装置20的该第二连通开口202相连通，以向使用者提供净水。如附图之图71A至图71G所示，该供水单元40包括一个净水管道(或净水管)41和一个流体阀42，其中该流体阀42被设置在该净水管道41，以控制向使用者提供净水。可以理解，该净水管道41形成该供水出口401。优选地，该流体阀42是一个电动球阀或电动平面阀，以便于使用者通过一个控制装置16A自动控制净水的提供。因此，该净化装置20的该第二连通开口202分别与该平面阀10A′的该第六开口1106A、该软化箱31的该第一导通开口301和该供水通路400(或该供水出口401)相连通。此外，该平面阀10A′的该第六开口1106A进一步与该软化箱31的该第一导通开口301相连通。
如附图之图70A至图73G所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A′具有一个第一通道101A，一个第二通道102A，一个第三通道103A，一个第四通道104A、一个第五通道105A、一个第六通道106A、一个第七通道107A、一个第八通道108A、一个第九通道109A、一个第十通道1010A、一个第十一通道1011A′和一个第十二通道1012A′，其中该第一通道101A、该第二通道102A、该第三通道103A、该第四通道104A、该第五通道105A、该第六通道106A、该第七通道107A、该第八通道108A和该第十二通道1012A′分别设于该定阀片12A′并分别自该定阀片12A′的该第一流体控制面120A延伸；该第九通道109A、该第十通道1010A和该第十一通道1011A′分别设于该动阀片13A′并分别自该动阀片13A′的该第二流体控制面130A延伸，其中该第一通道101A和该第二通道102A分别与该第五开口1105A相连通，该第三通道103A和该第四通道104A分别与该第七开口1107A相连通，该第五通道105A与该第二开口1102A相连通，该第六通道106A与该第三开口1103A相连通，该第七通道107A与该第四开口1104A相连通，该第八通道108A与该第六开口1106A相连通，该第九通道109A与该阀体11A′的该内腔110A相连通，该第十一通道1011A′与该第十二通道1012A′相连通，该第十二通道1012A′与该排污开口1108A′相连通。可以理解，本发明该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301与该阀体11A′的该第六开口1106A的连通可通过多种方式实现。如附图之图62A所示，该阀体11A′的该第六开口1106A可通过一个分别与该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301相连通的连通管路(或三通管路)实现该净化装置20的该第二连通开口202、该软化箱31的该第一导通开口301和该阀体11′的该第六开口1106之间的连通。可选地，该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301与该阀体11A′的该第六开口1106A的连通也可通过被设置在该阀体11′的连通通路实现，其中该连通通路可被设置分别与该净化装置20的该第二连通开口202和该阀体11A的该第 六开口1106A相连通，和分别与该软化箱31的该第一导通开口301和该阀体11A′的该第六开口1106A相连通。因此，该阀体11A′的该第八通道108A、该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301通过该阀体11A′的该第六开口1106A形成一个三通结构。此外，为了确保该阀体11A′的该内腔110A中的水进入该平面阀10A′的该第九通道109A，该第九通道109A被设置可通过一个始终与外部空间相连通的进水口1091A保持始终与该阀体11A′的该内腔110A相连通。
值得注意的是，该平面阀10A′的该第一通道101A和该第二通道102A分别与该第五开口1105A的连通，可以是分别地和独自地与该第五开口1105A相连通，也可以通过一个流体通道相连通；该平面阀10A′的该第三通道103A和该第四通道104A分别与该第七开口1107A的连通，可以是分别地和独自地与该第七开口1107A相连通，也可以通过一个流体通道相连通。例如，如附图之图59至图73G所示，该平面阀10A′的该第一通道101A和该第二通道102A通过一个第一流体通道1211A相连通，该第二通道102A被设置直接与该第五开口1105A相连通，从而使该第一通道101A通过该第一流体通道1211A和该第二通道102A，也与该第五开口1105A相连通；该平面阀10A′的该第三通道103A和该第四通道104A分别单独地与该第七开口1107A相连通。可选地，如图74A至74B所示，该第一通道101A被设置直接与该第五开口1105A相连通，该第二通道102A通过该第一流体通道1211A和该第一通道101A，也与该第五开口1105A相连通。或者可选地，该平面阀10A′的该第一通道101A和该第二通道102A可分别地和独自地与该第五开口1105A相连通；或者可选地，如附图之图75所示，该平面阀10A′的该第三通道103A和该第四通道104A通过一个第二流体通道1212A相连通，该第三通道103A被设置直接与该第七开口1107A相连通，从而使该第四通道104A通过该第二流体通道1212A和该第三通道103A，也与该第七开口1107A相连通；或者可选地，如附图之图76所示，该平面阀10A′的该第三通道103A和该第四通道104A通过一个第二流体通道1212A相连通，该第四通道104A被设置直接与该第七开口1107A相连通，从而使该第三通道103A通过该第二流体通道1212A和该第四通道104A，也与该第七开口1107A相连通。可以理解，进一步地，该第一流体通道1211A和该第二流体通道1212A可被设置在该定阀片12A′的该第一流体控制面120A，也可被设置在该阀体11A′或该定阀片12A′的内部。可以理解，该平面阀10A′的该第一通道101A和该第二通道102A分别与该第五开口1105A的连通，和该平面阀10A′的该第三通道103A和该第四通道104A分别与该第七开口1107A的连通，也可以是通过其它方式的连通。
如附图之图70A至图73G所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A′的该动阀片13A′能够相对定阀片12A′转动从而使得该平面阀10A′具有一个第一工作位，一个第二工作位，一个第三工作位，一个第四工作位和一个第五工作位，其中当该平面阀10A′处于该第一工作位时，该平面阀10A′的该第九通道109A与该第一通道101A相连通，该第十通道1010A分别与该第三通道103A和该第五通道105A相连通；当该平面阀10A′处于该第二工作位时，该平面阀10A′的该第九通道109A与该第四通道104A相连通，该第十一通道1011A′分别与该第八通道108A和该第十二通道1012A′相连通，该第五通道105A与该阀体11A的该内腔110A相连通；当该平面阀10A′处于该第三工作位时，该平面阀10A′的该第九通道109A与该第八通道108A相连通，该平面阀10A′的该第十一通道1011A′分别与该第三通道103A和该第十二通道1012A′相连通，该第五通道105A与该阀 体11A的该内腔110A相连通；当该平面阀10A′处于该第四工作位时，该平面阀10A′的该第九通道109A与该第七通道107A相连通，该第五通道105A与该阀体11A的该内腔110A相连通；当该平面阀10A′处于该第五工作位时，该平面阀10A′的该第九通道109A与该第二通道102A相连通，该平面阀10A′的该第十一通道1011A′分别与该第八通道108A和该第十二通道1012A′相连通，该第五通道105A与该阀体11A的该内腔110A相连通。
如附图之图70A至图73G所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A′进一步具有一个第六工作位和一个第七工作位，其中当该平面阀10A′处于该第六工作位时，该平面阀10A′的该第十一通道1011A′分别与该第一通道101A和该第十二通道1012A′相连通，该第五通道105A与该阀体11A′的该内腔110A相连通；当平面阀10A′处于该第七工作位时，该平面阀10A′的该第九通道109A与该第六通道106A相连通，该第五通道105A与该阀体11A的该内腔110A相连通。
更进一步地，当该平面阀10A′处于该第六工作位时，该第八通道108A与该第九通道109A相连通，当该平面阀10A′处于该第七工作位时，该第十通道1010A分别与该第四通道104A和该第七通道107A相连通，该第十一通道1011A′分别与该第八通道108A和该第十二通道1012A′相连通。
可以理解，当该平面阀10A′处于该第一工作位时，依本发明第二较佳实施例的净化-软化水处理系统被控制处在该净化-软化工作状态，该平面阀10A′的该第九通道109A与该第一通道101A相连通，从而形成该第一连通通道1001A，该第十通道1010A分别与该第三通道103A和该第五通道105A相连通，从而形成该第二连通通道1002A；当该平面阀10A′处于该第二工作位时，依本发明第二较佳实施例的净化-软化水处理系统被控制处在该软化滤芯(软化装置)反洗工作状态，该平面阀10A′的该第九通道109A与该第四通道104A相连通，从而形成该第三连通通道1003A，该第十一通道1011A′分别与该第八通道108A和该第十二通道1012A′相连通，从而形成该第四连通通道1004A′；当该平面阀10A′处于该第三工作位时，依本发明第二较佳实施例的净化-软化水处理系统被控制处在该软化滤芯(软化装置)正洗工作状态，该平面阀10A′的该第九通道109A与该第八通道108A相连通，从而形成该第五连通通道1005A，该平面阀10A′的该第十一通道1011A′分别与该第三通道103A和该第十二通道1012A′相连通，从而形成该第六连通通道1006A′；当该平面阀10A′处于该第四工作位时，依本发明第二较佳实施例的净化-软化水处理系统被控制处在该盐液箱补水工作状态，该平面阀10A′的该第九通道109A与该第七通道107A相连通，从而形成该第七连通通道1007A；该平面阀10A′处于该第五工作位时，依本发明第二较佳实施例的净化-软化水处理系统被控制处在该净化装置正洗工作状态时，该平面阀10A′的该第九通道109A与该第二通道102A相连通，从而形成该第八连通通道1008A，该平面阀10A′的该第十一通道1011A′分别与该第八通道108A和该第十二通道1012A′相连通，从而形成该第九连通通道1009A′。进一步地，当该平面阀10A′处于该第六工作位时，依本发明第二较佳实施例的净化-软化水处理系统被控制处在该净化装置反洗工作状态，该平面阀10A′的该第十一通道1011A′分别与该第一通道101A和该第十二通道1012A′相连通，从而形成该第十连通通道10010A′；当该平面阀10A′处于该第七工作位时，依本发明第二较佳实施例的净化-软化水处理系统被控制处在该软化滤芯再生工作状态，该平面阀10A′的该第九通道109A与该第六通道106A相连通，从而形成该第十一连通通道10011A。更进一步地，当该平面阀10A′处于该第六工作 位时，该第八通道108A与该第九通道109A相连通，从而形成该第十二连通通道10012A；当该平面阀10A′处于该第七工作位时，该第十通道1010A分别与该第四通道104A和该第七通道107A相连通，从而形成该第十三连通通道10013A，该第十一通道1011A′分别与该第八通道108A和该第十二通道1012A′相连通，从而形成该第十四连通通道10014A′。优选地，该第十一通道1011A′可以是一个被设置在该动阀片13A′的该第二流体控制面130A的导通盲孔或导通槽，以在相应的工作位连通该定阀片12A′的不同通道，例如，在第二工作位连通(或导通)该第八通道108A和该第十二通道1012A′。
如附图之图63A至图73G所示，相应地，当该平面阀10A′处于第一工作位时，该水处理机处于净化-软化工作状态，原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该动阀片13A′的该第九通道109A流入该定阀片12A′的该第一通道101A，然后通过该阀体11A′的该第五开口1105A进入该净化装置20的该第一连通开口201，经过该净化装置20的水处理材料或机构处理后，从该净化装置20的该第二连通开口202流出，然后流入该软化箱31的该第一导通开口301，经过该软化箱31内的软化树脂处理后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11A′的该第七开口1107A进入该定阀片12A′的该第三通道103A，经过该动阀片13A′的该第十通道1010A导流进入该定阀片12A′的该第五通道105A，然后经过该阀体11A′的该第二开口1102A向用户供应处理后水；当该平面阀10A′处于第二工作位时，该水处理机处于该软化滤芯(软化装置)反洗工作状态，原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该动阀片13A′的该第九通道109A流入该定阀片12A′的该第四通道104A，然后通过该阀体11A′的该第七开口1107A进入该软化箱31的该第二导通开口302，对该软化箱31中的软化树脂反向冲洗后，从该软化箱31的该第一导通开口301流出，然后流经该阀体11A′的该第六开口1106A，再流经该定阀片12A′的该第八通道108A和该动阀片13A′的该第十一通道1011A′和该第十二通道1012A′，然后，从该平面阀10A′的该排污开口1108A′流出，同时原水还能够通过该定阀片12A的该第五通道105A流向该阀体11A的该第二开口1102；当该平面阀10A′处于第三工作位时，该水处理机处于该软化滤芯(软化装置)正洗工作状态，原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该动阀片13A′的该第九通道109A流入该定阀片12A′的该第八通道108A，然后通过该阀体11A′的该第六开口1106A进入该软化箱31的该第一导通开口301，对该软化箱31中的软化树脂正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11A′的该第七开口1107A，再流经该定阀片12A′的该第三通道103A和该动阀片13A′的该第十一通道1011A′和该第十二通道1012A′，然后，从该平面阀10A′的该排污开口1108A′流出，同时原水还能够通过该定阀片12A的该第五通道105A流向该阀体11A的该第二开口1102；当该平面阀10A′处于第四工作位时，该水处理机处于该盐液箱补水工作状态，原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该动阀片13A′的该第九通道109A流入该定阀片12A′的该第七通道107A，然后流经该阀体11A′的该第四开口1104A流入该射流器32的该射入口322，向盐液箱33补水，同时原水还能够通过该定阀片12A的该第五通道105A流向该阀体11A的该第二开口1102；当该平面阀10A′处于第五工作位时，该水处理机处于该净化装置正洗工作状态，原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该动阀片13A′的该第九通道109A流入该定阀片12A′的该 第二通道102A，然后通过该阀体11A′的该第五开口1105A进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11A′的该第六开口1106A，进入该定阀片12A′的该第八通道108A，再流经该动阀片13A的该第十一通道1011A′和该第十二通道1012A′，然后，从该平面阀10A′的该排污开口1108A′流出，同时原水还能够通过该定阀片12A的该第五通道105A流向该阀体11A的该第二开口1102。进一步地，当该平面阀10A′处于第六工作位时，该水处理机处于净化装置反洗工作状态，原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该动阀片13A′的该第九通道109A流入该定阀片12A′的该第八通道108A，然后通过该阀体11A′的该第六开口1106A进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11A′的该第五开口1105A，进入该定阀片12A′的该第一通道101A，再流经该动阀片13A′的该第十一通道1011A′和该第十二通道1012A′，然后，从该平面阀10A′的该排污开口1108A′流出，同时原水还能够通过该定阀片12A的该第五通道105A流向该阀体11A的该第二开口1102；当该平面阀10A′处于第七工作位时，该水处理机处于该软化滤芯再生工作状态，原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该动阀片13A′的该第九通道109A流入该定阀片12A′的该第六通道106A，然后通过该阀体11A′的该第三开口1103A流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11A′的该第四开口1104A，然后进入该定阀片12A′的该第七通道107A，再经过动阀片13A′的该第十通道1010A导流进入该定阀片12A′的该第四通道104A，然后流经该阀体11A′的该第七开口1107A进入该软化箱31的该第二导通开口302，逆流再生该软化箱31中的如软化树脂后，从该第一导通开口301流出，然后流经该阀体11A′的该第六开口1106A进入该定阀片12A′的该第八通道108A，再通过该动阀片13A′的该第十一通道1011A′和该第十二通道1012A′，然后，从该平面阀10A′的该排污开口1108A′流出，同时原水还能够通过该定阀片12A的该第五通道105A流向该阀体11A的该第二开口1102。可以理解，当该平面阀10A′处于该第一工作位时，该平面阀10A′的该第十通道1010A分别与该第三通道103A和该第五通道105A相连通,且该平面阀10A′的该动阀片13A将该第五通道105A与该阀体11A′的该内腔110A相隔开，以防止该阀体11A′的该内腔110A内的原水进入该第五通道105A。
如附图之图71A至图73G所示，进一步地，当依本发明第二较佳实施例的净化-软化水处理系统处在该第二工作位、该第三工作位、该第四工作位、该第五工作位、该第六工作位和该第七工作位时，该平面阀10A′的该定阀片12A′的该第五通道105A与该阀体11A′的该内腔110A相连通，从而形成该第十五连通通道10015A。相应地，当依本发明第二较佳实施例的净化-软化水处理系统处在该第二工作位、该第三工作位、该第四工作位、该第五工作位、该第六工作位和该第七工作位时，原水被允许自该阀体11A′的该第一开口1101A流入该阀体11A′的该内腔110A，并进一步自该阀体11A的该内腔110A通过该定阀片12A′的该第五通道105A流向该阀体11A′的该第二开口1102A。
如附图之图73A至图73G所示，优选地，当该平面阀10A′处于第一工作位时，该平面阀10A′的该第二通道102A、该第四通道104A和该第八通道108A分别被该动阀片13A′封闭；当该平面阀10A′ 处于第二工作位时，该平面阀10A′的该第一通道101A和该第三通道103A分别被该动阀片13A′封闭；当该平面阀10A′处于第三工作位时，该平面阀10A′的该第二通道102A和该第四通道104A分别被该动阀片13A′封闭；当该平面阀10A′处于第四工作位时，该平面阀10A′的该第六通道106A被该动阀片13A′封闭；当该平面阀10A′处于第五工作位时，该平面阀10A′的该第一通道101A、该第三通道103A和该第四通道104A分别被该动阀片13A′封闭；当该平面阀10A′处于第六工作位时，该平面阀10A′的该第二通道102A、该第三通道103A和该第四通道104A分别被该动阀片13A′封闭；当该平面阀10A′处于第七工作位时，该平面阀10A′的该第一通道101A、该第二通道102A和该第三通道103A分别被该动阀片13A′封闭。
如附图之图73A至图73G所示，更优选地，当该平面阀10A′处于第二工作位时，该平面阀10A′的该第六通道106A和该第七通道107A分别被该动阀片13A′封闭；当该平面阀10A′处于第三工作位时，该第十通道1010A分别与该第一通道101A和该第八通道108A相连通，该平面阀10A′的该第六通道106A和该第七通道107A分别被该动阀片13A′封闭；当该平面阀10A′处于第四工作位时，该平面阀10A′的该第一通道101A和该第三通道103A被该动阀片13A′封闭；当该平面阀10A′处于第五工作位时，该平面阀10A′的该第六通道106A和该第七通道107A分别被该动阀片13A′封闭；当该平面阀10A′处于第六工作位时，该平面阀10A′的该第十通道1010A与该第八通道108A相连通，该平面阀10A′的该第六通道106A和该第七通道107A分别被该动阀片13A′封闭。
如附图之图73A至图73G所示，更优选地，当该平面阀10A′处于第一工作位时，该平面阀10A′的该第六通道106A和该第七通道107分别被该动阀片13A′封闭，该第十一通道1011A′与该第十二通道1012A′相连通；当该平面阀10A′处于第二工作位时，该平面阀10A′的该第十通道1010A分别与该第二通道102A和该第八通道108A相连通；当该平面阀10A′处于第四工作位时，该平面阀10A′的该第十通道1010A分别与该第二通道102A和该第四通道104A相连通，该第十一通道1011A′分别与该第八通道108A和该第十二通道1012A′相连通；当该平面阀10A′处于第五工作位时，该平面阀10A′的该第十通道1010A与该第八通道108A相连通。
如附图之图47A至图73G所示，优选地，本文中的通道被封闭，指的是相应通道形成在该平面阀10A的该定阀片12A(或定阀片12A′)的第一流体控制面120A和该动阀片13A(或动阀片13A′)的该第二流体控制面130A的通道开口在该平面阀10A的具体工作位(或水处理系统的工作状态)，被该动阀片13A和该定阀片12A的实体部分盖住，从而导致相应通道之间无法通过通道开口相连通。例如，当该平面阀10A处于第一工作位时，该动阀片13A的实体部分正对该平面阀10A的该第六通道106A和该第七通道107A形成在该定阀片12A的第一流体控制面120A的通道开口，从而使该平面阀10A的该第六通道106A和该第七通道107A被该动阀片13A封闭(或阻塞)。相应地，本文中被设置在该动阀片13A的通道与被设置在定阀片12A的通道之间的相连通，指的是在该平面阀10A的具体工作位(或水处理系统的工作状态)，被设置在该动阀片13A的通道形成在该动阀片13A的该第二流体控制面130A的通道开口与被设置在该定阀片12A的通道形成该定阀片12A的第一流体控制面120A的通道开口选择性地部分或正好对齐和形成允许水流通过的水流通路。例如，当该平面阀10A处于第一工作位时，该平面阀10A的该第九通道109A的通道开口与该第一通道101A的通道开口相 对齐，从而使两者相连通和形成该第一连通通道1001A。
值得注意的是该平面阀10A′的该第一通道101A、该第二通道102A、该第三通道103A、该第四通道104A、该第五通道105A、该第六通道106A、该第七通道107A、该第八通道108A和该第十二通道1012A′分别相隔开地设于该定阀片12A′的该第一流体控制面120A；该第九通道109A、该第十通道1010A和该第十一通道1011A′分别相隔开地设于该动阀片13A′的该第二流体控制面130A。
如附图之图72A至图72D所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A′的该第一通道101A、该第八通道108A、该第二通道102A、该第四通道104A、该第七通道107A、该第六通道106A、该第三通道103A和该第五通道105A以此顺序顺时针地排布在该定阀片12A′；该平面阀10A′的该第十一通道1011A′、该第十通道1010A和该第九通道109A以此顺序顺时针地排布在该动阀片13A′。可选地，该平面阀10A′的该第一通道101A、该第八通道108A、该第二通道102A、该第四通道104A、该第七通道107A、该第六通道106A、该第三通道103A和该第五通道105A以此顺序逆时针地排布在该定阀片12A′；该平面阀10A′的该第十一通道1011A′、该第十通道1010A和该第九通道109A以此顺序逆时针地排布在该动阀片13A′。
如附图之图72A至图72D所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A′的该定阀片12A′具有一个第一中心部121A、一个自该第一中心部121A向外延伸的第一延伸部122A和一个自该第一延伸部122A向外延伸的第一边缘部123A，该动阀片13A′具有一个第二中心部131A、一个自该第二中心部131A向外延伸的第二延伸部132A和一个自该第二延伸部132A向外延伸的第二边缘部133A，其中该定阀片12A′的该第一流体控制面120A具有一个图中点划线所示的中心部分1200A，其中该中心部分1200A被设于该定阀片12A′的该第一中心部121A，且该第一流体控制面120A的中心部分1200A之外的部分被顺时针等分为点划线所示的一个第一部分1201A、一个第二部分1202A、一个第三部分1203A、一个第四部分1204A、一个第五部分1205A、一个第六部分1206A、一个第七部分1207A、一个第八部分1208A、一个第九部分1209A、一个第十部分12010A和一个第十一部分12011A；该平面阀10A′的动阀片13A′的该第二流体控制面130A具有一个图中点划线所示的中心区域1300A，其中该中心区域1300A设于该动阀片13A′的该第二中心部131A，且该第二流体控制面130A的中心区域1300A之外的部分被顺时针等分为点划线所示的一个第一区域1301A、一个第二区域1302A、一个第三区域1303A、一个第四区域1304A、一个第五区域1305A、一个第六区域1306A、一个第七区域1307A、一个第八区域1308A、一个第九区域1309A、一个第十区域13010A和一个第十一区域13011A；其中该第十二通道1012A′自该第一流体控制面120A的该中心部分1200A向下延伸；该第一通道101A自该第一流体控制面120A的该第一部分1201A向下延伸；该第八通道108A自该定阀片12A′的该第一流体控制面120A的该第二部分1202A、该第三部分1203A、该第四部分1204A和该第五部分1205A向下延伸；该第二通道102A自该定阀片12A′的该第一流体控制面120A的该第六部分1206A向下延伸；该第四通道104A自该定阀片12A′的该第一流体控制面120A的该第七部分1207A向下延伸；该第七通道107A自该第一流体控制面120A的该第八部分1208A向下延伸；该第六通道106A自该第一流体控制面120A的该第九部分1209A向下延伸；该第三通道103A自该第一流体控制面120A的该第十部分12010A向下延伸；该第五通道105A自该第一流体控制面120A 的该第十一部分12011A向下延伸；该第九通道109A自该第二流体控制面130A的该第一区域1301A向上延伸；该第十一通道1011A′自该第二流体控制面130A的该中心区域1300A延伸至该第二流体控制面130A的该第八区域1308A；该第十通道1010A自该第二流体控制面130A的该第十区域13010A和该第十一区域13011A向上延伸。
可以理解，当该动阀片13A′的该第二流体控制面130A被设置在该定阀片12A′的该第一流体控制面120A时，该动阀片13A′的该第二流体控制面130A的该第二中心部131A正对该定阀片12A′的该第一流体控制面120A的该第一中心部121A，该动阀片13A′的该第二流体控制面130A的该第二延伸部132A正对该定阀片12A′的该第一流体控制面120E的该第一延伸部122A，该动阀片13A′的该第二流体控制面130A的该第二边缘部133A正对该定阀片12A′的该第一流体控制面120A的该第一边缘部123A。
优选地，该平面阀10A′的定阀片12A′的第一流体控制面120A和该动阀片13A′的该第二流体控制面130A均为圆形，该第一通道101A、该第二通道102A、该第三通道103A、该第四通道104A、该第五通道105A、该第六通道106A、该第七通道107A和该第八通道108A均沿径向设于该定阀片12A′的该第一流体控制面120A，且该第九通道109A和该第十通道1010A均沿径向设于该动阀片13A′的该第二流体控制面130A。换句话说，该平面阀10′的该第一通道101A、该第二通道102A、该第三通道103A、该第四通道104A、该第五通道105A、该第六通道106A、该第七通道107A、该第八通道108A和该第十二通道1012A′分别形成一个被设置在该定阀片12A′的该第一流体控制面120A的通道开口，该第九通道109A、该第十通道1010A和该第十一通道1011A′分别形成一个被设置在该动阀片13A′的该第二流体控制面130A的通道开口，当该平面阀10A的该动阀片13A′被面(该第二流体控制面130A)对面(该第一流体控制面120A)设置，且该动阀片13A′相对该定阀片12A′转动时，被设置在该动阀片13A′的通道和被设置在该定阀片12A′的通道通过相应的通道开口选择性地相连通，从而形成相应的连通通道和控制流体(如水流)的流动方向。可以理解，该平面阀10A′的该第一通道101A、该第二通道102A、该第三通道103A、该第四通道104A、该第五通道105A、该第六通道106A、该第七通道107A、该第八通道108A、该第九通道109A、该第十通道1010A、该第十一通道1011A′和该第十二通道1012A′可具有任何能够实现本文中相互连通关系的延伸路径(或方向)；该平面阀10A′的该第一通道101A、该第二通道102A、该第三通道103A、该第四通道104A、该第五通道105A、该第六通道106A、该第七通道107A、该第八通道108A和该第十二通道1012A′分别形成在该定阀片12A′的该第一流体控制面120A的通道开口，和该第九通道109A、该第十通道1010A和该第十一通道1011A′分别形成在该动阀片13A′的该第二流体控制面130A的通道开口，可具有任何能够实现本文中相互连通关系的形状。因此，该平面阀10A的该第一通道101A、该第二通道102A、该第三通道103A、该第四通道104A、该第五通道105A、该第六通道106A、该第七通道107A、该第八通道108A、该第十二通道1012A′、该第九通道109A、该第十通道1010A和该第十一通道1011A′的延伸路径(或方向)和其通道开口的形状不应成为对本发明的限制。
如附图之图72A至图72D所示，优选地，该平面阀10A的该第一通道101A、该第二通道102A、该第三通道103A、该第四通道104A、该第六通道106A、该第七通道107A和该第八通道108A分别 被设置在该定阀片12A′的该第一流体控制面120A的该第一延伸部122A，该第五通道105A被设置在该第一流体控制面120A的该第一边缘部123A并自该第一边缘部123A向内延伸。更优选地，该第五通道105A被设置在该第一流体控制面120A的该第一边缘部123A并自该第一边缘部123A向内延伸至该第一流体控制面120A的该第一延伸部122A。
如附图之图72A至图72D所示，优选地，该平面阀10A′的该第九通道109A被设置在该动阀片13A′的该第二流体控制面130A的该第二延伸部132A，该第十一通道1011A自该动阀片13A′的该第二流体控制面130A的该中心区域1300A延伸至该第二流体控制面130A的该第二延伸部132A，该第十通道1010A被设置在该动阀片13A′的该第二流体控制面130A的该第二边缘部133A并自该第二边缘部133A向内延伸至该第二延伸部132A。
如附图之图59至图62E所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A′的该阀体11A′具有一个内壁111A，其中该定阀片12A′适于该第一流体控制面120A朝上地设于该内腔110A，和该动阀片13A′适于该第二流体控制面130A朝下地设于该内腔110A，其中该内腔110A始终与该第九通道109A相连通。值得注意的是，该平面阀10A′的该定阀片12A′可以被可拆卸地设置在该阀体11A′的内壁111A，也可以与该平面阀10A′的该阀体11A′的该内壁111A相一体成型。本领域技术人员可以理解，当该定阀片12A′被可拆卸地设置在该阀体11A′内时，该定阀片12A′和该阀体11A′之间通过一个固定机构来保持该定阀片12A′和该阀体11A′之间的同步。例如，如附图之图59至图62E所示，该定阀片12A′具有一个自该定阀片12A′的边缘向外突出的制动件123A，该阀体11A′的该内壁111A具有一个制动槽1110A，其中该定阀片12A′的该制动件123A被设置能够与该阀体11A′的该内壁111A的该制动槽1110A相啮合，以确保该定阀片12A′和该阀体11A′之间相同步(或不会发生相对转动)和确保被设置在该定阀片12A′的各个通道与被设置在该阀体11A′的相应开口相连通。可以理解，当该定阀片12A′被可拆卸地设置在该阀体11A′内时，该定阀片12A′可被单独制造。换句话说，此时，该定阀片12A′可由耐磨材料制成，从而提高该定阀片12A′(或整个平面阀)的使用寿命。
如附图之图59至图62E所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A′进一步包括一个自该动阀片13A′向上延伸的驱动元件18A，其中该驱动元件18A被设置能够驱动该平面阀10A′的该动阀片13A′相对该定阀片12A′发生转动。
如附图之图59至图62E所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A′进一步包括一个密封元件17A，其中该密封元件17A被设置与该驱动元件18A相面对面，其中该密封元件17A形成一个第一密封面170A，该驱动元件18A形成一个第二密封面180A，其中该密封元件17A的该第一密封面170A被设置在该驱动元件18A的该第二密封面180A，从而使得当该驱动元件18A相对该密封元件17A转动，以驱动该动阀片13A′相对该定阀片12A′转动时，该驱动元件18A和该密封元件17A之间被密封和防止水的泄漏。此外，该密封元件17A被设置能够保持该驱动元件18A处于适当位置，从而保持该动阀片13A′处于一个预设位置。
如附图之图63A至图63D所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A′的该动阀片13A′的直径被设置稍小于该阀体11A′的内腔110A的直径，从而使得该平面阀10A′ 的该第九通道109A可通过该进水口1091A保持与该阀体11A′的该内腔110A相连通。
如附图之图63A至图73G所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A′的该控制装置16A被设置能够根据一个净化-软化控制指令，通过一个传动机构14A，如传动齿轮，驱动该驱动元件18A转动，以驱动该平面阀10A′的该动阀片13A′相对该定阀片12A′转动，从而形成一个分别与该平面阀10A′的该阀体11A′的该内腔110A和该第五开口1105A相连通的第一连通通道1001A和一个分别与该阀体11A′的该第二开口1102A和该第七开口1107A相连通的第二连通通道1002A，以允许原水自该阀体11A′的该内腔110A，经过该平面阀10A′形成的该第一连通通道1001A、该阀体11A′的该第五开口1105A、该净化装置20的该第一连通开口201流入该净化装置20，原水经过该净化装置20净化处理后得到的净水从该净化装置20的该第二连通开口202流出，净水可经该软化箱31的该第一导通开口301流入该软化箱31，并经软化处理后得到软化水，软化水从该软化箱31的该第二导通开口302流出，然后经该阀体11A′的该第七开口1107A、该平面阀10A′的该第二连通通道1002A，最后经该阀体11A′的该第二开口1102A流出和向用户供应软化水；根据一个软化滤芯(软化装置)反洗控制指令，通过该传动机构14A，如传动齿轮，驱动该驱动元件18A转动，以驱动该平面阀10A′的该动阀片13A′相对该定阀片12A′转动，从而形成一个分别与该平面阀10A′的该阀体11A′的该内腔110A和该第七开口1107A相连通的第三连通通道1003A和一个分别与该阀体11A′的该第六开口1106A和该平面阀10A′的该排污开口1108A′相连通的第四连通通道1004A′，以允许原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该平面阀10A′形成的该第三连通通道1003A流入该第七开口1107A，再经该软化箱31的该第二导通开口302流入该软化箱31，和对该软化箱31中的软化材料(或水处理材料)，如软化树脂等，反向冲洗后，得到的污水或废水从该软化箱31的该第一导通开口301流出，然后流经该阀体11A′的该第六开口1106A流入该平面阀10A′的该第四连通通道1004A′，然后从该平面阀10A′的该排污开口1108A′流出，同时，还形成一个分别与该阀体11A′的该第二开口1102A和该内腔110A相连通的第十五连通通道10015A，以允许原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该第十五连通通道10015A流入该阀体11A′的该第二开口1102A，向使用者提供原水；根据一个软化滤芯(软化装置)正洗控制指令，通过该传动机构14A，如传动齿轮，驱动该驱动元件18A转动，以驱动该平面阀10A′的该动阀片13A′相对该定阀片12A′转动，从而形成一个分别与该阀体11A′的该内腔110A和该第六开口1106A相连通的第五连通通道1005A和一个分别与该阀体11A′的该第七开口1107A和该平面阀10A′的该排污开口1108A′相连通的第六连通通道1006A′，以允许原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该第五连通通道1005A流入该第六开口1106A，再进入该软化箱31的该第一导通开口301，对该软化箱31中的水处理材料或机构正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11A′的该第七开口1107A流入该第六连通通道1006A′，然后从该平面阀10A′的该排污开口1108A′流出，同时，还形成一个分别与该阀体11A′的该第二开口1102A和该内腔110A相连通的第十五连通通道10015A，以允许原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该第十五连通通道10015A流入该阀体11A′的该第二开口1102A，向使用者提供原水；根据一个补水控制指令，通过该传动机构14A，如 传动齿轮，驱动该驱动元件18A转动，以驱动该平面阀10A′的该动阀片13A′相对该定阀片12A′转动，从而形成一个分别与该阀体11A′的该内腔110A和该第四开口1104A相连通的第七连通通道1007A，以允许原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该第七连通通道1007A流入该第四开口1104A，再流入该射流器32的该射入口322，向盐液箱33补水，同时，还形成一个分别与该阀体11A′的该第二开口1102A和该内腔110A相连通的第十五连通通道10015A，以允许原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该第十五连通通道10015A流入该阀体11A′的该第二开口1102A，向使用者提供原水；根据一个净化装置正洗控制指令，通过该传动机构14A，如传动齿轮，驱动该驱动元件18A转动，以驱动该平面阀10A′的该动阀片13A′相对该定阀片12A′转动，从而形成一个分别与该阀体11A′的该内腔110A和该第五开口1105A相连通的第八连通通道1008A和一个分别与该阀体11A′的该第六开口1106A和该平面阀10A′的该排污开口1108A′相连通的第九连通通道1009A′，以允许原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该第八连通通道1008A流入该第五开口1105A，再进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11A′的该第六开口1106A流入该第九连通通道1009A′，然后从该平面阀10A′的该排污开口1108A′流出，同时，还形成一个分别与该阀体11A′的该第二开口1102A和该内腔110A相连通的第十五连通通道10015A，以允许原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该第十五连通通道10015A流入该阀体11A′的该第二开口1102A，向使用者提供原水。
如附图之图63A至图73G所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A′的该控制装置16A进一步被设置能够根据一个净化装置反洗控制指令，通过该传动机构14A，如传动齿轮，驱动该驱动元件18A转动，以驱动该平面阀10A′的该动阀片13A′相对该定阀片12A′转动，从而形成一个分别与该阀体11A′的该第五开口1105A和该平面阀10A′的该排污开口1108A′相连通的第十连通通道10010A′和一个分别与该阀体11A′的该内腔110A和该第六开口1106A相连通的第十二连通通道10012A，以允许原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该第十二连通通道10012A流入该第六开口1106A，再进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11A′的该第五开口1105A流入该第十连通通道10010A′，然后从该平面阀10A′的该排污开口1108A′流出，同时，还形成一个分别与该阀体11A′的该第二开口1102A和该内腔110A相连通的第十五连通通道10015A，以允许原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该第十五连通通道10015A流入该阀体11A′的该第二开口1102A，向使用者提供原水。
如附图之图63A至图73G所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A′的该控制装置16A进一步被设置能够根据一个软化滤芯再生控制指令，通过该传动机构14A，如传动齿轮，驱动该驱动元件18A转动，以驱动该平面阀10A′的该动阀片13A′相对该定阀片12A′转动，从而形成一个分别与该阀体11A′的该内腔110A和该第三开口1103A相连通的第十一连通通道 10011A、一个分别与该阀体11A′的该第七开口1107A和该第四开口1104A相连通的第十三连通通道10013A和一个分别与该阀体11A′的该第六开口1106A和该平面阀10A′的该排污开口1108A′相连通的第十四连通通道10014A′，以允许原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该第十一连通通道10011A流入该第三开口1103A，再流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11A′的该第四开口1104A，然后通过该第十三连通通道10013A流入该第七开口1107A，进入该软化箱31的该第二导通开口302，逆流再生该软化箱31中的软化树脂后，从该第一导通开口301流出，然后流经该阀体11A′的该第六开口1106A流入该第十四连通通道10014A′，然后从该平面阀10A′的该排污开口1108A′流出，同时，还形成一个分别与该阀体11A′的该第二开口1102A和该内腔110A相连通的第十五连通通道10015A，以允许原水自该阀体11A′的该第一开口1101A流入到该阀体11A′的该内腔110A，然后通过该第十五连通通道10015A流入该阀体11A′的该第二开口1102A，向使用者提供原水。
值得注意的是，该控制指令，如净化-软化控制指令、软化装置反洗控制指令、软化装置正洗控制指令、补水控制指令、净化装置正洗控制指令、净化装置反洗控制指令、软化滤芯再生控制指令等控制指令，可以被预设在该控制装置16A的控制模块，也可以通过一个电子通讯网络接收自一个控制终端，或者由使用者通过一个输入界面输入。例如，当本发明净化-软化水处理系统被设置具有一个用于该平面阀10A′的输入界面，如触控板或控制按钮时，使用者可通过触控面板或相应的控制按钮向该控制装置16A的控制模块发送上述控制指令，以使该控制装置16A的控制模块控制该控制装置16A的电机转动，从而通过一个传动机构14A驱动该驱动元件18A转动。
如附图之图41至图42、图71A至图71G所示，依本发明第二较佳实施例的净化-软化水处理系统对原水的净化-软化处理被示例性地阐明，其中该净化装置20是一个净化滤芯，其中该净化装置20包括一个壳体21、一个被设置在该壳体21的连接头22和一个被设置在该壳体21内的过滤部23，其中该过滤部23可以是用于超滤过滤的超滤丝、滤网式过滤器或叠片式过滤器、PP棉或其它能够对原水进行过滤的水处理材料或过滤材料。示例性地，如附图之图71A至图71G所示，本发明净化-软化水处理系统的该软化装置30包括一个软化箱31，其中该软化箱31包括一个箱体311、一个集液单元312和一个水软化单元313，其中该箱体311具有一个软化腔3110、一个第一导通开口301和一个第二导通开口302，其中该集液单元312包括一个中心管3121，该水软化单元313适于容纳在该软化腔3110之内，其中该中心管3121适于与该第二导通开口302相连通，其中该中心管3121具有一个高端开口31211和一个低端开口31212，其中箱体311中的液体，如水，适于经该水软化单元313处理后，从该集液单元312的中心管3121的低端开口31212流入该中心管3121和自该中心管3121的高端开口31211流出；优选地，该箱体311中的水软化单元313包括水处理材料，如水软化树脂、具有软化性能的活性炭或其它类似软化材料或其组合。
可以理解，为了强化该平面阀10A的该定阀片12A的结构强度，该第一通道101A、该第二通道102A、该第三通道103A、该第四通道104A、该第五通道105A、该第六通道106A、该第七通道107A和该第八通道108A均可通过一个强化实体结构拆分或隔开成两个相邻的稍小通道。例如，如附图 之图77至图80G所示，依本发明第二较佳实施例的净化-软化水处理系统的该平面阀10A的该定阀片12A的该第八通道108A通过一个加强肋或加强筋被隔开成两个内径稍小的通道1081A和通道1082A，其中当该平面阀10A处于该第二工作位时，该第十一通道1011A与该通道1081A相连通，从而形成该第四连通通道1004A；当该平面阀10A处于该第三工作位时，该平面阀10A的该第九通道109A与该通道1081A相连通，从而形成该第五连通通道1005A；该平面阀10A处于该第五工作位时，该平面阀10A的该第十一通道1011A与该通道1081A相连通，从而形成该第九连通通道1009A；当该平面阀10A处于该第六工作位时，该第九通道109A与该通道1082A相连通，从而形成该第十二连通通道10012A，当该平面阀10A处于该第七工作位时，该第十一通道1011A与该通道1082A相连通，从而形成该第十四连通通道10014A。相应地，当该平面阀10A处于第一工作位时，该水处理机处于净化-软化工作状态，原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该动阀片13A的该第九通道109A流入该定阀片12A的该第一通道101A，然后通过该阀体11A的该第五开口1105A进入该净化装置20的该第一连通开口201，经过该净化装置20的水处理材料或机构处理后，从该净化装置20的该第二连通开口202流出，然后流入该软化箱31的该第一导通开口301，经过该软化箱31内的软化树脂处理后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11A的该第七开口1107A进入该定阀片12A的该第三通道103A，经过该动阀片13A的该第十通道1010A导流进入该定阀片12A的该第五通道105A，然后经过该阀体11A的该第二开口1102A向用户供应处理后水；当该平面阀10A处于第二工作位时，该水处理机处于该软化滤芯(软化装置)反洗工作状态，原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该动阀片13A的该第九通道109A流入该定阀片12A的该第四通道104A，然后通过该阀体11A的该第七开口1107A进入该软化箱31的该第二导通开口302，对该软化箱31中的软化树脂反向冲洗后，从该软化箱31的该第一导通开口301流出，然后流经该阀体11A的该第六开口1106A，再流经该定阀片12A的该通道1081A和该动阀片13A的该第十一通道1011A，再从该平面阀10A的该排污开口1108A流出，同时原水还能够通过该定阀片12A的该第五通道105A流向该阀体11A的该第二开口1102A；当该平面阀10A处于第三工作位时，该水处理机处于该软化滤芯(软化装置)正洗工作状态，原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该动阀片13A的该第九通道109A流入该定阀片12A的该通道1081A，然后通过该阀体11A的该第六开口1106A进入该软化箱31的该第一导通开口301，对该软化箱31中的软化树脂正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11A的该第七开口1107A，再流经该定阀片12A的该第三通道103A和该动阀片13A的该第十一通道1011A，再从该平面阀10A的该排污开口1108A流出，同时原水还能够通过该定阀片12A的该第五通道105A流向该阀体11A的该第二开口1102A；当该平面阀10A处于第四工作位时，该水处理机处于该盐液箱补水工作状态，原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该动阀片13A的该第九通道109A流入该定阀片12A的该第七通道107A，然后流经该阀体11A的该第四开口1104A流入该射流器32的该射入口322，向盐液箱33补水，同时原水还能够通过该定阀片12A的该第五通道105A流向该阀体11A的该第二开口1102A；当该平面阀10A处于第五工作位时，该水处理机处于该净化装置正洗工作状态，原水自该阀体11A的该第一开 口1101A流入到该阀体11A的该内腔110A，然后通过该动阀片13A的该第九通道109A流入该定阀片12A的该第二通道102A，然后通过该阀体11A的该第五开口1105A进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11A的该第六开口1106A，进入该定阀片12A的该通道1081A，再流经该动阀片13A的该第十一通道1011A从该平面阀10A的该排污开口1108A流出，同时原水还能够通过该定阀片12A的该第五通道105A流向该阀体11A的该第二开口1102A。进一步地，当该平面阀10A处于第六工作位时，该水处理机处于净化装置反洗工作状态，原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该动阀片13A的该第九通道109A流入该定阀片12A的该通道1082A，然后通过该阀体11A的该第六开口1106A进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11A的该第五开口1105A，进入该定阀片12A的该第一通道101A，再流经该动阀片13A的该第十一通道1011A从该平面阀10A的该排污开口1108A流出，同时原水还能够通过该定阀片12A的该第五通道105A流向该阀体11A的该第二开口1102A；当该平面阀10A处于第七工作位时，该水处理机处于该软化滤芯再生工作状态，原水自该阀体11A的该第一开口1101A流入到该阀体11A的该内腔110A，然后通过该动阀片13A的该第九通道109A流入该定阀片12A的该第六通道106A，然后通过该阀体11A的该第三开口1103A流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11A的该第四开口1104A，然后进入该定阀片12A的该第七通道107A，再经过动阀片13A的该第十通道1010A导流进入该定阀片12A的该第四通道104A，然后流经该阀体11A的该第七开口1107A进入该软化箱31的该第二导通开口302，逆流再生该软化箱31中的如软化树脂后，从该第一导通开口301流出，然后流经该阀体11A的该第六开口1106A进入该定阀片12A的该通道1082A，再通过该动阀片13A的该第十一通道1011A，从该平面阀10A的该排污开口1108A流出，同时原水还能够通过该定阀片12A的该第五通道105A流向该阀体11A的该第二开口1102A。同理，为了强化该平面阀10A′的该定阀片12A′的结构强度，该第一通道101A′、该第二通道102A′、该第三通道103A′、该第四通道104A′、该第五通道105A′、该第六通道106A′、该第七通道107A′和该第八通道108A′均可通过一个强化实体结构拆分或隔开成两个相邻的稍小通道。
相应地，如附图之图54A至图54F、图56A至图57G、图70A至图70F、图72A至图73G所示，依本发明第二较佳实施例，本发明进一步提供一种用于平面阀(或流体阀)的阀片组件，其中该阀片组件包括一个定阀片12A和一个动阀片13A，其中该定阀片12A具有一个第一流体控制面120A，该动阀片13A具有一个第二流体控制面130A，其中该动阀片13A的该第二流体控制面130A适于被设置在该定阀片12A的该第一流体控制面120A，且该动阀片13A被设置能够相对该定阀片12A转动，其中该平面阀具有一个第一通道101A，一个第二通道102A，一个第三通道103A，一个第四通道104A、一个第五通道105A、一个第六通道106A、一个第七通道107A、一个第八通道108A、一个第九通道109A、一个第十通道1010A和一个第十一通道1011A，其中该第一通道101A、该第二通道102A、该第三通道103A、该第四通道104A、该第五通道105A、该第六通道106A、该第七通道107A和该 第八通道108A分别设于该定阀片12A并分别自该定阀片12A的该第一流体控制面120A延伸；该第九通道109A、该第十通道1010A和该第十一通道1011A分别设于该动阀片13A并分别自该动阀片13A的该第二流体控制面130A延伸。
参考本发明附图之图81至图97G，依本发明第三较佳实施例的净化-软化水处理系统得以阐明，其适用于对原水或待处理水进行净化-软化处理，其中该净化-软化水处理系统包括一个流体阀10D、一个净化装置20D和一个软化装置30D，其中该流体阀10D包括一个阀体11D和一个阀芯1D，其中该阀体11D形成一个内腔110D、一个第一开口1101D、一个第二开口1102D、一个第三开口1103D、一个第四开口1104D、一个第五开口1105D、一个第六开口1106D和一个第七开口1107D，其中该阀芯1D被设置在该内腔110D，其中依本发明第三较佳实施例的该净化-软化水处理系统具有一个第一工作状态、一个第二工作状态、一个第三工作状态、一个第四工作状态和一个第五工作状态，其中当该净化-软化水处理系统处在该第一工作状态时，该流体阀10D形成一个分别与该阀体11D的该第一开口1101D和该第五开口1105D相连通的第一连通通道1001D和一个分别与该阀体11D的该第二开口1102D和该第七开口1107D相连通的第二连通通道1002D，当该净化-软化水处理系统处在该第二工作状态时，该流体阀10D形成一个分别与该阀体11D的该第一开口1101D和该第七开口1107D相连通的第三连通通道1003D和一个分别与该阀体11D的该第六开口1106D和一个排污开口(或第八开口)1108D相连通的第四连通通道1004D，当该净化-软化水处理系统处在该第三工作状态时，该流体阀10D形成一个分别与该阀体11D的该第一开口1101D和该第六开口1106D相连通的第五连通通道1005D和一个分别与该阀体1D1的该第七开口1107D和该排污开口1108D相连通的第六连通通道1006D，当该净化-软化水处理系统处在该第四工作状态时，该流体阀10D形成一个分别与该阀体11D的该第一开口1101D和该第四开口1104D相连通的第七连通通道1007D，当该净化-软化水处理系统处在该第五工作状态时，该流体阀10D形成一个分别与该阀体11D的该第一开口1101D和该第五开口1105D相连通的第八连通通道1008D和一个分别与该阀体11D的该第六开口1106D和该排污开口1108D相连通的第九连通通道1009D。优选地，依本发明第三较佳实施例的净化-软化水处理系统进一步具有一个第六工作状态和一个第七工作状态，其中当该净化-软化水处理系统处在该第六工作状态时，该流体阀10D形成一个分别与该阀体11D的该第五开口1105D和该排污开口1108D相连通的第十连通通道10010D；当该净化-软化水处理系统处在该第七工作状态时，该流体阀10D形成一个分别与该阀体11D的该第一开口1101D和该第三开口1103D相连通的第十一连通通道10011D。更优选地，当该净化-软化水处理系统处在该第六工作状态时，该流体阀10D进一步形成一个分别与该阀体11D的该第一开口1101D和该第六开口1106D相连通的第十二连通通道10012D，当该净化-软化水处理系统处在该第七工作状态时，该流体阀10D形成一个分别与该阀体11D的该第六开口1106D和该第四开口1104D相连通的第十三连通通道10013D和一个分别与该阀体11D的该第七开口1107D和该平面阀10D的该排污开口1108D相连通的第十四连通通道10014D。
如附图之图81至图97G所示，依本发明第三较佳实施例的净化-软化水处理系统的流体阀10D是一个平面阀10，其中该平面阀10D进一步包括一个动阀片13D和一个定阀片12D，该定阀片12D具有一个第一流体控制面120D，该动阀片13D具有一个第二流体控制面130D，其中该动阀片13D和该定 阀片12D均被设置在该内腔110D，其中该动阀片13D的该第二流体控制面130D被设置在该定阀片12D的该第一流体控制面120D，且该动阀片13D被设置能够相对该定阀片12D转动，其中该净化装置20具有一个第一连通开口201和一个第二连通开口202，其中该软化装置30包括至少一个软化箱31，其中该软化箱31具有一个第一导通开口301和一个第二导通开口302，其中该阀体11D的该内腔110D与该第一开口1101D相连通，该净化装置20的该第一连通开口201与该阀体11D的该第五开口1105D相连通，该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301均与该阀体11D的该第六开口1106D相连通，该软化箱31的该第二导通开口302与该阀体11D的该第七开口1107D相连通。因此，当该流体阀10D是一个平面阀时，该流体阀10D的该阀芯1D包括该动阀片13D和该定阀片12D。
如附图之图81至图97G所示，依本发明第三较佳实施例的净化-软化水处理系统的该软化装置30进一步包括一个射流器32和一个盐液箱33，其中该射流器32具有一个适于与该阀体11D的该第三开口1103D相连通的射出口321和一个适于与该阀体11D的该第四开口1104D相连通的射入口322，其中该盐液箱33适于与该射流器32相连通，从而使来自该盐液箱33的盐液能够通过该射流器32和该第四开口1104D，和经该平面阀10D流向该软化装置30的该软化箱31，从而使该软化箱31内的软化树脂得到再生。相应地，当本发明净化-软化水处理系统处于一个软化滤芯吸盐再生工作状态时，原水或待处理水自该阀体11D的该第一开口1101D流入到该阀体11D的该内腔110D，然后通过一个第十一连通通道10011D流入该第三开口1103D，再流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11D的该第四开口1104D，然后通过一个第十三连通通道10013D流入该第六开口1106D，进入该软化箱31的该第一导通开口301，顺流再生该软化箱31中的水处理材料或机构，如软化树脂后，从该第二导通开口302流出，然后流经该阀体11D的该第七开口1107D流入一个第十四连通通道10014D，然后从该平面阀10D的一个排污开口(或第八开口)1108D流出。可以理解，尽管本发明仅示例性地描述通过射流器32向软化箱31提供盐液方式，然而，盐液也可以通过其它方式或机构经过该平面阀10D的该第四开口1104D被提供给该软化箱31。因此，通过射流器32向软化箱31提供盐液的方式并不应成为本发明的限制。
本领域技术人员能够理解，本发明净化-软化水处理系统的该平面阀10D进一步具有一个被设置在该阀体11D的连接机构，如连接螺纹、卡接接头等，以便于该平面阀10D与该净化-软化水处理系统的其它结构部件，如净化装置20、软化装置30等相连接，以引导水分别流向净化装置20、软化装置30的软化箱31和该平面阀10D形成的各个连通通道。
如附图之图81至图97G所示，依本发明第三较佳实施例的该净化-软化水处理系统具有一个第一工作状态、一个第二工作状态、一个第三工作状态、一个第四工作状态和一个第五工作状态，其中当该净化-软化水处理系统处在该第一工作状态时，该平面阀10D的该动阀片13D和该定阀片12D形成一个分别与该阀体11D的该内腔110D(或该第一开口1101D)和该第五开口1105D相连通的第一连通通道1001D和一个分别与该阀体11D的该第二开口1102D和该第七开口1107D相连通的第二连通通道1002D，当该净化-软化水处理系统处在该第二工作状态时，该平面阀10D的该动阀片13D 和该定阀片12D形成一个分别与该阀体11D的该内腔110D(或该第一开口1101D)和该第七开口1107D相连通的第三连通通道1003D和一个分别与该阀体11D的该第六开口1106D和该平面阀10D的该排污开口1108D相连通的第四连通通道1004D，当该净化-软化水处理系统处在该第三工作状态时，该平面阀10D的该动阀片13D和该定阀片12D形成一个分别与该阀体11D的该内腔110D(或该第一开口1101D)和该第六开口1106D相连通的第五连通通道1005D和一个分别与该阀体11D的该第七开口1107D和该平面阀10D的该排污开口1108D相连通的第六连通通道1006D，当该净化-软化水处理系统处在该第四工作状态时，该平面阀10D的该动阀片13D和该定阀片12D形成一个分别与该阀体11D的该内腔110D(或该第一开口1101D)和该第四开口1104D相连通的第七连通通道1007D，当该净化-软化水处理系统处在该第五工作状态时，该平面阀10D的该动阀片13D和该定阀片12D形成一个分别与该阀体11D的该内腔110D(或该第一开口1101D)和该第五开口1105D相连通的第八连通通道1008D和一个分别与该阀体11D的该第六开口1106D和该平面阀10D的该排污开口1108D相连通的第九连通通道1009D。
如附图之图81至图97G所示，当依本发明第三较佳实施例的净化-软化水处理系统处在该第一工作状态时，该平面阀10D形成的该第一连通通道1001D分别与该阀体11D的该内腔110D和该第五开口1105D相连通，该第二连通通道1002D分别与该阀体11D的该第二开口1102D和该第七开口1107D相连通，从而允许原水自该阀体11D的该第一开口1101D流入到该阀体11D的该内腔110D，然后通过该平面阀10D形成的该第一连通通道1001D、该阀体11D的该第五开口1105D、该净化装置20的该第一连通开口201流入该净化装置20，原水经过该净化装置20净化处理后得到的净水从该净化装置20的该第二连通开口202流出，净水可经该软化箱31的该第一导通开口301流入该软化箱31，并经软化处理后得到软化水，软化水从该软化箱31的该第二导通开口302流出，然后经该阀体11D的该第七开口1107D、该平面阀10D的该第二连通通道1002D，最后经该阀体11D的该第二开口1102D流出和向用户供应软化水。优选地，该净化装置20的该第二连通开口202与一个供水出口401(或供水通路400)相连通，从而向使用者提供净水。因此，当该净化-软化水处理系统处在该第一工作状态时，本发明净化-软化水处理系统可同时向使用者提供净水和软化水。相应地，该净化-软化水处理系统的该第一工作状态对应于该净化-软化水处理系统的净化-软化工作状态。因此，当该净化-软化水处理系统处在该第一工作状态时，该阀体11D的该第一开口1101D(或该阀体11D的该内腔110D)、该阀体11D的该第五开口1105D、该净化装置20的该第一连通开口201、该净化装置20的该第二连通开口202、该软化装置30的该软化箱31的该第一导通开口301、该软化装置30的该软化箱31的该第二导通开口302、该阀体11D的该第七开口1107D和该阀体11D的该第二开口1102D被依次连通，从而形成一个将该净化装置20和该软化装置30串联在一起的水流通路，以使原水能够自该净化装置20流向该软化装置30和使原水依次被净化和软化处理。
如附图之图81至图97G所示，当依本发明第三较佳实施例的净化-软化水处理系统处在该第二工作状态时，该平面阀10D形成的该第三连通通道1003D分别与该阀体11D的该内腔110D(或该第一开口1101D)和该第七开口1107D相连通，该第四连通通道1004D分别与该阀体11D的该第六开口1106D和该平面阀10D的该排污开口1108D相连通，从而允许原水自该阀体11D的该第一开口1101D 流入到该阀体11D的该内腔110D，然后通过该平面阀10D形成的该第三连通通道1003D流入该第七开口1107D，再经该软化箱31的该第二导通开口302流入该软化箱31，和对该软化箱31中的软化材料(或水处理材料)，如软化树脂等，反向冲洗后，得到的污水或废水从该软化箱31的该第一导通开口301流出，然后流经该阀体11D的该第六开口1106D流入该平面阀10D的该第四连通通道1004D，然后从该平面阀10D的该排污开口1108D流出。换句话说，当该净化-软化水处理系统处在该第二工作状态时，本发明净化-软化水处理系统可控制对软化滤芯，如软化箱31进行反向冲洗。相应地，该净化-软化水处理系统的该第二工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)反洗工作状态。
如附图之图81至图97G所示，当依本发明第三较佳实施例的净化-软化水处理系统处在该第三工作状态时，该平面阀10D形成的该第五连通通道1005D分别与该阀体11D的该内腔110D(或该第一开口1101D)和该第六开口1106D相连通，该第六连通通道1006D分别与该阀体11D的该第七开口1107D和该平面阀10D的该排污开口1108D相连通，从而允许原水自该阀体11D的该第一开口1101D流入到该阀体11D的该内腔110D，然后通过该第五连通通道1005D流入该第六开口1106D，再进入该软化箱31的该第一导通开口301，对该软化箱31中的水处理材料或机构正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11D的该第七开口1107D流入该第六连通通道1006D，然后从该平面阀10D的该排污开口1108D流出。换句话说，当该净化-软化水处理系统处在该第三工作状态时，本发明净化-软化水处理系统可控制对软化滤芯，如软化箱31进行正向冲洗。相应地，该净化-软化水处理系统的该第三工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)正洗工作状态。
如附图之图81至图97G所示，当依本发明第三较佳实施例的净化-软化水处理系统处在该第四工作状态时，该平面阀10D形成的该第七连通通道1007D分别与该阀体11D的该内腔110D(或该第一开口1101D)和该第四开口1104D相连通，从而允许原水自该阀体11D的该第一开口1101D流入到该阀体11D的该内腔110D，然后通过该第七连通通道1007D流入该第四开口1104D，再流入该射流器32的该射入口322，向盐液箱33补水。换句话说，当该净化-软化水处理系统处在该第四工作状态时，本发明净化-软化水处理系统可控制向盐液箱33补水。相应地，该净化-软化水处理系统处的该第四工作状态对应于该净化-软化水处理系统的盐液箱补水工作状态。
如附图之图81至图97G所示，当依本发明第三较佳实施例的净化-软化水处理系统处在该第五工作状态时，该平面阀10D形成的该第八连通通道1008D分别与该阀体11D的该内腔110D(或该第一开口1101D)和该第五开口1105D相连通，该第九连通通道1009D分别与该阀体11D的该第六开口1106D和该平面阀10D的该排污开口1108D相连通，从而允许原水自该阀体11D的该第一开口1101D流入到该阀体11D的该内腔110D，然后通过该第八连通通道1008D流入该第五开口1105D，再进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11D的该第六开口1106D流入该第九连通通道1009D，然后从该平面阀10D的该排污开口1108D流出。换句话说，当该净化-软化水处理系统处在该第五工作状态时，本发明净化-软化水处理系统可控制对净化装置20进行正向冲洗。相应地，该 净化-软化水处理系统的该第五工作状态对应于该净化-软化水处理系统的净化装置正洗工作状态。
如附图之图81至图97G所示，依本发明第三较佳实施例的净化-软化水处理系统进一步具有一个第六工作状态和一个第七工作状态，其中当该净化-软化水处理系统处在该第六工作状态时，该平面阀10D的该动阀片13D和该定阀片12D形成一个分别与该阀体11D的该第五开口1105D和该平面阀10D的该排污开口1108D相连通的第十连通通道10010D；当该净化-软化水处理系统处在该第七工作状态时，该平面阀10D的该动阀片13D和该定阀片12D形成一个分别与该阀体11D的该内腔110D(或该第一开口1101D)和该第三开口1103D相连通的第十一连通通道10011D。优选地，当该净化-软化水处理系统处在该第六工作状态时，该平面阀10D的该动阀片13D和该定阀片12D进一步形成一个分别与该阀体11D的该内腔110D(或该第一开口1101D)和该第六开口1106D相连通的第十二连通通道10012D，当该净化-软化水处理系统处在该第七工作状态时，该平面阀10D的该动阀片13D和该定阀片12D形成一个分别与该阀体11D的该第六开口1106D和该第四开口1104D相连通的第十三连通通道10013D和一个分别与该阀体11D的该第七开口1107D和该平面阀10D的该排污开口1108D相连通的第十四连通通道10014D。
如附图之图81至图97G所示，当依本发明第三较佳实施例的净化-软化水处理系统处在该第六工作状态时，该平面阀10D形成的该第十连通通道10010D分别与该阀体11D的该第五开口1105D和该平面阀10D的该排污开口1108D相连通，该第十二连通通道10012D分别与该阀体11D的该内腔110D(或该第一开口1101D)和该第六开口1106D相连通，从而允许原水自该阀体11D的该第一开口1101D流入到该阀体11D的该内腔110D，然后通过该第十二连通通道10012D流入该第六开口1106D，再进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11D的该第五开口1105D流入该第十连通通道10010D，然后从该平面阀10D的该排污开口1108D流出；当依本发明第三较佳实施例的净化-软化水处理系统处在该第七工作状态时，该平面阀10D形成的该第十一连通通道10011D分别与该阀体11D的该内腔110D(或该第一开口1101D)和该第三开口1103D相连通，该第十三连通通道10013D分别与该阀体11D的该第六开口1106D和该第四开口1104D相连通，该第十四连通通道10014D分别与该阀体11D的该第七开口1107D和该平面阀10D的该排污开口1108D相连通，从而允许原水自该阀体11D的该第一开口1101D流入到该阀体11D的该内腔110D，然后通过该第十一连通通道10011D流入该第三开口1103D，再流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11D的该第四开口1104D，然后通过该第十三连通通道10013D流入该第六开口1106D，进入该软化箱31的该第一导通开口301，顺流再生该软化箱31中的软化树脂后，从该第二导通开口302流出，然后流经该阀体11D的该第七开口1107D流入该第十四连通通道10014D，然后从该平面阀10D的该排污开口1108D流出。相应地，该净化-软化水处理系统的该第六工作状态对应于该净化-软化水处理系统的净化装置反洗工作状态，该净化-软化水处理系统的该第七工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)再生工作状态。
相应地，如附图之图81至图97G所示，依本发明第三较佳实施例的净化-软化水处理系统的该 流体阀(或平面阀)10D具有一个第一工作位、一个第二工作位、一个第三工作位、一个第四工作位、一个第五工作位、一个第六工作位和一个第七工作位，其中当该流体阀(或平面阀)10D处在该第一工作位时，该流体阀10D的该阀芯1D形成该第一连通通道1001D和该第二连通通道1002D，当该流体阀(或平面阀)10D处在该第二工作位时，该流体阀10D的该阀芯1形成该第三连通通道1003D和该第四连通通道1004D，当该流体阀(或平面阀)10D处在该第三工作位时，该流体阀10D的该阀芯1D形成该第五连通通道1005D和该第六连通通道1006D，当该流体阀(或平面阀)10D处在该第四工作位时，该流体阀10D的该阀芯1D形成该第七连通通道1007D，当该流体阀(或平面阀)10D处在该第五工作位时，该流体阀10D的该阀芯1D形成该第八连通通道1008D和该第九连通通道1009D；当该流体阀(或平面阀)10D处在该第六工作位时，该流体阀10D的该阀芯1D形成该第十连通通道10010D；当该流体阀(或平面阀)10D处在该第七工作位时，该流体阀10D的该阀芯1D形成该第十一连通通道10011D。更优选地，当该流体阀(或平面阀)10D处在该第六工作位时，该流体阀10D的该阀芯1D进一步形成该第十二连通通道10012D，当该流体阀(或平面阀)10D处在该第七工作位时，该流体阀10D的该阀芯1D进一步形成该第十三连通通道10013D和该第十四连通通道10014D。
如附图之图81至图82、图95A至图95G所示，依本发明第三较佳实施例的净化-软化水处理系统进一步具有一个供水单元40，其中该供水单元40形成一个供水通路400，其中该供水通路400被设置与该净化装置20的该第二连通开口202相连通，以向使用者提供净水。如附图之图95A至图95G所示，该供水单元40包括一个供水管道(或供水管)41和一个流体阀42，其中该流体阀42被设置在该供水管道41，以控制向使用者提供净水。可以理解，该供水管道41形成该供水出口401。优选地，该流体阀42是一个电动球阀或电动平面阀，以便于使用者通过一个控制装置16D自动控制净水的提供。因此，该净化装置20的该第二连通开口202分别与该平面阀10D的该第六开口1106D、该软化箱31的该第一导通开口301和该供水通路400(或该供水出口401)相连通。此外，该平面阀10D的该第六开口1106D进一步与该软化箱31的该第一导通开口301相连通。
如附图之图94A至图97G所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D具有一个第一通道101D，一个第二通道102D，一个第三通道103D，一个第四通道104D、一个第五通道105D、一个第六通道106D、一个第七通道107D、一个第八通道108D、一个第九通道109D、一个第十通道1010D、一个第十一通道1011D和一个第十二通道1012D，其中该第一通道101D、该第二通道102D、该第三通道103D、该第四通道104D、该第五通道105D、该第六通道106D、该第七通道107D、该第八通道108D和该第十二通道1012D分别设于该定阀片12D并分别自该定阀片12D的该第一流体控制面120D延伸；该第九通道109D、该第十通道1010D和该第十一通道1011D分别设于该动阀片13D并分别自该动阀片13D的该第二流体控制面130D延伸，该第一通道101D和该第二通道102D分别与该第五开口1105D相连通，该第三通道103D和该第四通道104D分别与该第七开口1107D相连通，该第五通道105D与该第二开口1102D相连通，该第六通道106D与该第三开口1103D相连通，该第七通道107D与该第四开口1104D相连通，该第八通道108D和该第十二通道1012D分别与该第六开口1106D相连通，该第九通道109D与该阀体11D的该内腔110D相连通，该第十一通道 1011D与该排污开口1108D相连通。优选地，该排污开口1108D被设置在该平面阀10D的该阀体11D，且该排污开口1108D通过一个排污通道150D与该第十一通道1011D相连通。因此，可选地，该平面阀10D的该排污开口1108D形成在该动阀片13D，且该平面阀10D的该排污开口1108D分别与该第十一通道1011D和该排污通道150D相连通。可以理解，本发明该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301与该阀体11D的该第六开口1106D的连通可通过多种方式实现。如附图之图86A所示，该阀体11D的该第六开口1106D可通过一个分别与该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301相连通的连通管路(或三通管路)实现该净化装置20的该第二连通开口202、该软化箱31的该第一导通开口301和该阀体11的该第六开口1106之间的连通。可选地，该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301与该阀体11的该第六开口1106的连通也可通过被设置在该阀体11D的连通通路实现，其中该连通通路可被设置分别与该净化装置20的该第二连通开口202和该阀体11D的该第六开口1106D相连通，和分别与该软化箱31的该第一导通开口301和该阀体11D的该第六开口1106D相连通。因此，该阀体11D的该第八通道108D(或该第十二通道1012D)、该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301通过该阀体11D的该第六开口1106D形成一个三通结构。此外，为了确保该阀体11D的该内腔110D中的水进入该第九通道109D，该第九通道109D被设置可通过一个始终与外部空间相连通的进水口1091D保持始终与该阀体11D的该内腔110D相连通。
值得注意的是，该平面阀10D的该第一通道101D和该第二通道102D分别与该第五开口1105D的连通，可以是分别地和独自地与该第五开口1105D相连通，也可以通过一个流体通道相连通；该平面阀10D的该第三通道103D和该第四通道104D分别与该第七开口1107D的连通，可以是分别地和独自地与该第七开口1107D相连通，也可以通过一个流体通道相连通。例如，如附图之图81至图97G所示，该平面阀10D的该第一通道101D和该第二通道102D通过一个第一流体通道1211D相连通，该第二通道102D被设置直接与该第五开口1105D相连通，从而使该第一通道101D通过该第一流体通道1211D和该第二通道102D，也与该第五开口1105D相连通；该平面阀10D的该第三通道103D和该第四通道104D分别单独地与该第七开口1107D相连通。可选地，如附图之图98A和98B所示，该第一通道101D被设置直接与该第五开口1105D相连通，该第二通道102D通过该第一流体通道1211D和该第一通道101D，也与该第五开口1105D相连通。或者可选地，该平面阀10D的该第一通道101D和该第二通道102D可分别地和独自地与该第五开口1105D相连通；或者可选地，如附图之图98C所示，该平面阀10D的该第三通道103D和该第四通道104D通过一个第二流体通道1212D相连通，该第三通道103D被设置直接与该第七开口1107D相连通，从而使该第四通道104D通过该第二流体通道1212D和该第三通道103D，也与该第七开口1107D相连通；或者可选地，如附图之图98D所示，该平面阀10D的该第三通道103D和该第四通道104D通过一个第二流体通道1212D相连通，该第四通道104D被设置直接与该第七开口1107D相连通，从而使该第三通道103D通过该第二流体通道1212D和该第四通道104D，也与该第七开口1107D相连通。可以理解，进一步地，该第一流体通道1211D和该第二流体通道1212D可被设置在该定阀片12D的该第一流体控制面120D，也可被设置在该阀体11D或该定阀片12D的内部。可以理解，该平面阀10D的该第一通道101D和该第二通道102D与该第五开口 1105D的连通，和该平面阀10D的该第三通道103D和该第四通道104D与该第七开口1107D的连通，也可以是通过其它方式的连通。同样地，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D的该第八通道108D和该第十二通道1012D分别与该第六开口1106D的连通，可以是分别地和独自地与该第六开口1106D相连通，也可以通过一个流体通道相连通。
如附图之图94A至图97G所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D的该动阀片13D能够相对定阀片12D转动从而使得该平面阀10D具有一个第一工作位，一个第二工作位，一个第三工作位，一个第四工作位和一个第五工作位，其中当平面阀10D处于该第一工作位时，该平面阀10D的该第九通道109D与该第一通道101D相连通，该第十通道1010D分别与该第三通道103D和该第五通道105D相连通；当该平面阀10D处于该第二工作位时，该平面阀10D的该第九通道109D与该第四通道104D相连通，该第十一通道1011D与该第八通道108D相连通；当该平面阀10D处于该第三工作位时，该平面阀10D的该第九通道109D与该第八通道108D相连通，该平面阀10D的该第十一通道1011D与该第三通道103D相连通；当该平面阀10D处于该第四工作位时，该平面阀10D的该第九通道109D与该第七通道107D相连通；当该平面阀10D处于该第五工作位时，该平面阀10D的该第九通道109D与该第二通道102D相连通，该平面阀10D的该第十一通道1011D与该第八通道108D相连通。
如附图之图94A至图97G所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D进一步具有一个第六工作位和一个第七工作位，其中当该平面阀10D处于该第六工作位时，该平面阀10D的该第十一通道1011D与该第一通道101D相连通；当平面阀10D处于该第七工作位时，该平面阀10D的该第九通道109D与该第六通道106D相连通。
可以理解，当该平面阀10D处于该第一工作位时，依本发明第三较佳实施例的净化-软化水处理系统被控制处在该净化-软化工作状态，该平面阀10D的该第九通道109D与该第一通道101D相连通，从而形成该第一连通通道1001D，该第十通道1010D分别与该第三通道103D和该第五通道105D相连通，从而形成该第二连通通道1002D；当该平面阀10D处于该第二工作位时，依本发明第三较佳实施例的净化-软化水处理系统被控制处在该软化滤芯(软化装置)反洗工作状态，该平面阀10D的该第九通道109D与该第四通道104D相连通，从而形成该第三连通通道1003D，该第十一通道1011D与该第八通道108D相连通，从而形成该第四连通通道1004D；当该平面阀10D处于该第三工作位时，依本发明第三较佳实施例的净化-软化水处理系统被控制处在该软化滤芯(软化装置)正洗工作状态，该平面阀10D的该第九通道109D与该第八通道108D相连通，从而形成该第五连通通道1005D，该平面阀10D的该第十一通道1011D与该第三通道103D相连通，从而形成该第六连通通道1006D；当该平面阀10D处于该第四工作位时，依本发明第三较佳实施例的净化-软化水处理系统被控制处在该盐液箱补水工作状态，该平面阀10D的该第九通道109D与该第七通道107D相连通，从而形成该第七连通通道1007D；该平面阀10D处于该第五工作位时，依本发明第三较佳实施例的净化-软化水处理系统被控制处在该净化装置正洗工作状态时，该平面阀10D的该第九通道109D与该第二通道102D相连通，从而形成该第八连通通道1008D，该平面阀10D的该第十一通道1011D与该第八通道108D相连通，从而形成该第九连通通道1009D。进一步地，当该平面阀10D处于该第六 工作位时，依本发明第三较佳实施例的净化-软化水处理系统被控制处在该净化装置反洗工作状态，该平面阀10D的该第十一通道1011D与该第一通道101D相连通，从而形成该第十连通通道10010D；当该平面阀10D处于该第七工作位时，依本发明第三较佳实施例的净化-软化水处理系统被控制处在该软化滤芯再生工作状态，该平面阀10D的该第九通道109D与该第六通道106D相连通，从而形成该第十一连通通道10011D。更进一步地，当该平面阀10D处于该第六工作位时，该第九通道109D与该第八通道108D相连通，从而形成该第十二连通通道10012D，当该平面阀10D处于该第七工作位时，该第十通道1010D分别与该第七通道107D和该第十二通道1012D相连通，从而形成该第十三连通通道10013D，该第十一通道1011D与该第四通道104相连通，从而形成该第十四连通通道10014D。可以理解，该第十一通道1011D可以是一个被设置在该动阀片13D的通孔，其中该第十一通道1011D自该动阀片13D的该第二流体控制面130D向上延伸至其相对的另一面，从而在相应的工作位将污水或废水向上排出至该排污通道150D。可以理解，当该平面阀10D处于该第一工作位时，该平面阀10D的该第十通道1010D分别与该第三通道103D和该第五通道105D相连通，且该平面阀10D的该动阀片13D将该第五通道105D与该阀体11D的该内腔110D相隔开，以防止该阀体11D的该内腔110D内的原水进入该第五通道105D。
如附图之图87A至图97G所示，相应地，当该平面阀10D处于第一工作位时，该水处理机处于净化-软化工作状态，原水自该阀体11D的该第一开口1101D流入到该阀体11D的该内腔110D，然后通过该动阀片13D的该第九通道109D流入该定阀片12D的该第一通道101D，然后通过该阀体11D的该第五开口1105D进入该净化装置20的该第一连通开口201，经过该净化装置20的水处理材料或机构处理后，从该净化装置20的该第二连通开口202流出，然后流入该软化箱31的该第一导通开口301，经过该软化箱31内的软化树脂处理后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11D的该第七开口1107D进入该定阀片12D的该第三通道103D，经过该动阀片13D的该第十通道1010D导流进入该定阀片12D的该第五通道105D，然后经过该阀体11D的该第二开口1102D向用户供应处理后水；当该平面阀10D处于第二工作位时，该水处理机处于该软化滤芯(软化装置)反洗工作状态，原水自该阀体11D的该第一开口1101D流入到该阀体11D的该内腔110D，然后通过该动阀片13D的该第九通道109D流入该定阀片12D的该第四通道104D，然后通过该阀体11D的该第七开口1107D进入该软化箱31的该第二导通开口302，对该软化箱31中的软化树脂反向冲洗后，从该软化箱31的该第一导通开口301流出，然后流经该阀体11D的该第六开口1106D，再流经该定阀片12D的该第八通道108D和该动阀片13D的该第十一通道1011D，再从该平面阀10D的该排污开口1108D流出；当该平面阀10D处于第三工作位时，该水处理机处于该软化滤芯(软化装置)正洗工作状态，原水自该阀体11D的该第一开口1101D流入到该阀体11D的该内腔110D，然后通过该动阀片13D的该第九通道109D流入该定阀片12D的该第八通道108D，然后通过该阀体11D的该第六开口1106D进入该软化箱31的该第一导通开口301，对该软化箱31中的软化树脂正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11D的该第七开口1107D，再流经该定阀片12D的该第三通道103D和该动阀片13D的该第十一通道1011D，再从该平面阀10D的该排污开口1108D流出；当该平面阀10D处于第四工作位时，该水处理机处于该盐液箱补水工作状态，原水自该阀体11D的该第一 开口1101D流入到该阀体11D的该内腔110D，然后通过该动阀片13D的该第九通道109D流入该定阀片12D的该第七通道107D，然后流经该阀体11D的该第四开口1104D流入该射流器32的该射入口322，向盐液箱33补水；当该平面阀10D处于第五工作位时，该水处理机处于该净化装置正洗工作状态，原水自该阀体11D的该第一开口1101D流入到该阀体11D的该内腔110D，然后通过该动阀片13D的该第九通道109D流入该定阀片12D的该第二通道102D，然后通过该阀体11D的该第五开口1105D进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11D的该第六开口1106D，进入该定阀片12D的该第八通道108D，再流经该动阀片13D的该第十一通道1011D从该平面阀10D的该排污开口1108D流出。进一步地，当该平面阀10D处于第六工作位时，该水处理机处于净化装置反洗工作状态，原水自该阀体11D的该第一开口1101D流入到该阀体11D的该内腔110D，然后通过该动阀片13D的该第九通道109D流入该定阀片12D的该第八通道108D，然后通过该阀体11D的该第六开口1106D进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11D的该第五开口1105D，进入该定阀片12D的该第一通道101D，再流经该动阀片13D的该第十一通道1011D从该平面阀10D的该排污开口1108D流出；当该平面阀10D处于第七工作位时，该水处理机处于该软化滤芯再生工作状态，原水自该阀体11D的该第一开口1101D流入到该阀体11D的该内腔110D，然后通过该动阀片13D的该第九通道109D流入该定阀片12D的该第六通道106D，然后通过该阀体11D的该第三开口1103D流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11D的该第四开口1104D，然后进入该定阀片12D的该第七通道107D，再经过动阀片13D的该第十通道1010D导流进入该定阀片12D的该第十二通道1012D，然后流经该阀体11D的该第六开口1106D进入该软化箱31的该第一导通开口301，顺流再生该软化箱31中的如软化树脂后，从该第二导通开口302流出，然后流经该阀体11D的该第七开口1107D进入该定阀片12D的该第四通道104D，再通过该动阀片13D的该第十一通道1011D，从该平面阀10D的该排污开口1108D流出。
如附图之图97A至图97G所示，优选地，当平面阀10D处于第一工作位时，该平面阀10D的该第二通道102D、该第四通道104D、该第八通道108D和该第十二通道1012D被该动阀片13D封闭；当平面阀10D处于第二工作位时，该平面阀10D的该第一通道101D、该第三通道103D和该第十二通道1012D被该动阀片13D封闭；当平面阀10D处于第三工作位时，该平面阀10D的该第二通道102D、该第四通道104D和该第十二通道1012D被该动阀片13D封闭；当平面阀10D处于第四工作位时，该平面阀10D的该第六通道106D被该动阀片13D封闭；当平面阀10D处于第五工作位时，该平面阀10D的该第一通道101D、该第三通道103D、该第四通道104D和该第十二通道1012D被该动阀片13D封闭；当平面阀10D处于第六工作位时，该平面阀10D的该第二通道102D、该第三通道103D、该第四通道104D和该第十二通道1012D被该动阀片13D封闭；当平面阀10D处于第七工作位时，该平面阀10D的该第一通道101D、该第二通道102D、该第三通道103D和该第八通道108D被该动阀片13D封闭。
如附图之图97A至图97G所示，更优选地，当平面阀10D处于第二工作位时，该平面阀10D的该 第六通道106D和该第七通道107D分别被该动阀片13D封闭；当平面阀10D处于第三工作位时，该平面阀10D的该第六通道106D和该第七通道107D分别被该动阀片13D封闭，该第十通道1010D分别与该第一通道101D和该第八通道108D相连通；当平面阀10D处于第四工作位时，该平面阀10D的该第一通道101D和该第三通道103D分别被该动阀片13D封闭；当平面阀10D处于第五工作位时，该平面阀10D的该第六通道106D和该第七通道107D分别被该动阀片13D封闭；当平面阀10D处于第六工作位时，该平面阀10D的该第六通道106D和该第七通道107D分别被该动阀片13D封闭，该平面阀10D的该第十通道1010D与该第八通道108D相连通。
如附图之图97A至图97G所示，最优选地，当平面阀10D处于第一工作位时，该平面阀10D的该第六通道106D和该第七通道107D分别被该动阀片13D封闭，该第十一通道1011D被该定阀片12D封闭；当平面阀10D处于第二工作位时，该平面阀10D的该第十通道1010D分别与该第二通道102D和该第八通道108D相连通，该第五通道105D被该动阀片13D封闭；当平面阀10D处于第三工作位时，该平面阀10D的该第五通道105D被该动阀片13D封闭；当平面阀10D处于第四工作位时，该平面阀10D的该第十通道1010D分别与该第四通道104D和该第十二通道1012D相连通，该第十一通道1011D与该第二通道102D相连通，该第八通道108D和该第五通道105D被该动阀片13D封闭；当平面阀10D处于第五工作位时，该平面阀10D的该第十通道1010D与该第八通道108D相连通，该第五通道105D被该动阀片13D封闭；当平面阀10D处于第六工作位时，该平面阀10D的该第五通道105D被该动阀片13D封闭；当平面阀10D处于第七工作位时，该平面阀10D的该第五通道105D被该动阀片13D封闭。
值得注意的是该平面阀10D的该第一通道101D、该第二通道102D、该第三通道103D、该第四通道104D、该第五通道105D、该第六通道106D、该第七通道107D、该第八通道108D和该第十二通道1012D分别相隔开地设于该定阀片12D的该第一流体控制面120D；该第九通道109D、该第十通道1010D和该第十一通道1011D分别相隔开地设于该动阀片13D的该第二流体控制面130D。换句话说，该平面阀10D的该第一通道101D、该第二通道102D、该第三通道103D、该第四通道104D、该第五通道105D、该第六通道106D、该第七通道107D、该第八通道108D和该第十二通道1012D分别形成一个被设置在该定阀片12D的该第一流体控制面120D的通道开口，该第九通道109D、该第十通道1010D和该第十一通道1011D分别形成一个被设置在该动阀片13D的该第二流体控制面130D的通道开口，当该平面阀10D的该动阀片13D被面(该第二流体控制面130D)对面(该第一流体控制面120D)设置，且该动阀片13D相对该定阀片12D转动时，被设置在该动阀片13D的通道和被设置在该定阀片12D的通道通过相应的通道开口选择性地相连通，从而形成相应的连通通道和控制流体(如水流)的流动方向。
可以理解，该平面阀10D的该第一通道101D、该第二通道102D、该第三通道103D、该第四通道104D、该第五通道105D、该第六通道106D、该第七通道107D、该第八通道108D、该第九通道109D、该第十通道1010D、该第十一通道1011D和该第十二通道1012D可具有任何能够实现本文中相互连通关系的延伸路径(或方向)；该平面阀10D的该第一通道101D、该第二通道102D、该第三通道103D、该第四通道104D、该第五通道105D、该第六通道106D、该第七通道107D、该第八通 道108D和该第十二通道1012D分别形成在该定阀片12D的该第一流体控制面120D的通道开口，和该第九通道109D、该第十通道1010D和该第十一通道1011D分别形成在该动阀片13的该第二流体控制面130D的通道开口，可具有任何能够实现本文中相互连通关系的形状。例如，该第八通道108D形成在该定阀片12D的该第一流体控制面120D的通道开口可被设置具有一个规则形状，也可被设置为具有一个不规则形状。因此，该平面阀10D的该第一通道101D、该第二通道102D、该第三通道103D、该第四通道104D、该第五通道105D、该第六通道106D、该第七通道107D、该第八通道108D、该第九通道109D、该第十通道1010D、该第十一通道1011D和该第十二通道1012D的延伸路径(或方向)和其通道开口的形状不应成为对本发明的限制。
如附图之图96A至图96D所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D的该第一通道101D、该第八通道108D、该第二通道102D、该第四通道104D、该第十二通道1012D、该第七通道107D、该第六通道106D、该第五通道105D和该第三通道103D以此顺序顺时针地排布在该定阀片12D；该平面阀10D的该第十一通道1011D、该第十通道1010D和该第九通道109D以此顺序顺时针地排布在该动阀片13D。可选地，该平面阀10D的该第一通道101D、该第八通道108D、该第二通道102D、该第四通道104D、该第十二通道1012D、该第七通道107D、该第六通道106D、该第五通道105D和该第三通道103D以此顺序逆时针地排布在该定阀片12D；该平面阀10D的该第十一通道1011D、该第十通道1010D和该第九通道109D以此顺序逆时针地排布在该动阀片13D。
如附图之图96A至图96D所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D的该定阀片12D具有一个第一中心部121D和一个自该第一中心部121D向外延伸的第一延伸部122D，该动阀片13D具有一个第二中心部131D和一个自该第二中心部131D向外延伸的第二延伸部132D，其中该定阀片12D的该第一流体控制面120D具有一个图中点划线所示的中心部分1200D，其中该中心部分1200D被设于该定阀片12D的该第一中心部121D，且该第一流体控制面120D的中心部分1200D之外的部分被顺时针等分为点划线所示的一个第一部分1201D、一个第二部分1202D、一个第三部分1203D、一个第四部分1204D、一个第五部分1205D、一个第六部分1206D、一个第七部分1207D、一个第八部分1208D、一个第九部分1209D、一个第十部分12010D和一个第十一部分12011D；该平面阀10D的动阀片13D的该第二流体控制面130D具有一个图中点划线所示的中心区域1300D，其中该中心区域1300D设于该动阀片13D的该第二中心部131D，且该第二流体控制面130D的该中心区域1300D之外的部分被顺时针等分为点划线所示的一个第一区域1301D、一个第二区域1302D、一个第三区域1303D、一个第四区域1304D、一个第五区域1305D、一个第六区域1306D、一个第七区域1307D、一个第八区域1308D、一个第九区域1309D、一个第十区域13010D和一个第十一区域13011D；其中该第一通道101D自第一流体控制面120D的该第一部分1201D向下延伸；该第八通道108D自该定阀片12D的该第一流体控制面120D的该第二部分1202D、该第三部分1203D和该第四部分1204D向下延伸；该第二通道102D自该定阀片12D的该第一流体控制面120D的该第五部分1205D向下延伸；该第四通道104D自该定阀片12D的该第一流体控制面120D的该第六部分1206D向下延伸；该第十二通道1012D自该定阀片12D的该第一流体控制面120D的该第七部分1207D向下延伸；该第七通道107D自该第一流体控制面120D的该第八部分1208D向下延伸；该第六通道106D 自该第一流体控制面120D的该第九部分1209D向下延伸；该第五通道105D自该第一流体控制面120D的该第十部分12010D向下延伸；该第三通道103D自该第一流体控制面120D的该第十一部分12011D向下延伸；该第九通道109D自该第二流体控制面130D的该第一区域1301D向上延伸；该第十一通道1011D自该第二流体控制面130D的该第九区域1309D向上延伸；该第十通道1010D自该第二流体控制面130D的该第十区域13010D和该第十一区域13011D向上延伸。
可选地，该平面阀10D的定阀片12D的第一流体控制面120D和动阀片13D的该第二流体控制面130D均为圆形，该第一通道101D、该第二通道102D、该第三通道103D、该第四通道104D、该第五通道105D、该第六通道106D、该第七通道107D、该第八通道108D和该第十二通道1012D均沿径向设于该定阀片12D的该第一流体控制面120D，且该第九通道109D和该第十通道1010D均沿径向设于该动阀片13D的该第二流体控制面130D。
优选地，该第一通道101D自该定阀片12D的该第一流体控制面120D向下和向外延伸、该第二通道102D自该定阀片12D的该第一流体控制面120D向下和向外延伸、该第三通道103D自该定阀片12D的该第一流体控制面120D向下和向外延伸、该第四通道104D自该定阀片12D的第一流体控制面120D向下和向外延伸、该第五通道105D自该定阀片12D的第一流体控制面120D向下和向外延伸、该第六通道106D自该定阀片12D的第一流体控制面120D向下和向外延伸、该第七通道107D自该定阀片12D的第一流体控制面120D向下和向外延伸、该第八通道108D自该定阀片12D的该第一流体控制面120D向下和向外延伸、该第十二通道1012D自该定阀片12D的该第一流体控制面120D向下和向外延伸。
如附图之图83至图86D所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D的该阀体11D具有一个内壁111D，其中该定阀片12D适于该第一流体控制面120D朝上地设于该内腔110D，和该动阀片13D适于该第二流体控制面130D朝下地设于该内腔110D，其中该内腔110D始终与该第九通道109D相连通。值得注意的是，该平面阀10D的该定阀片12D可以被可拆卸地设置在该阀体11D的内壁111D，也可以与该平面阀10D的该阀体11D的该内壁111D相一体成型。本领域技术人员可以理解，当该定阀片12D被可拆卸地设置在该阀体11D内时，该定阀片12D和该阀体11D之间通过一个固定机构来保持该定阀片12D和该阀体11D之间的同步。例如，如附图之图83至图86D所示，该定阀片12D具有一个自该定阀片12D的边缘向外突出的制动件123D，该阀体11D的该内壁111D具有一个制动槽1110D，其中该定阀片12D的该制动件123D被设置能够与该阀体11D的该内壁111D的该制动槽1110D相啮合，以确保该定阀片12D和该阀体11D之间相同步(或不会发生相对转动)和确保被设置在该定阀片12D的各个通道与被设置在该阀体11D的相应开口相连通。可以理解，当该定阀片12D被可拆卸地设置在该阀体11D内时，该定阀片12D可被单独制造。换句话说，此时，该定阀片12D可由耐磨材料制成，从而提高该定阀片12D(或整个平面阀)的使用寿命。优选地，该定阀片12D的该第一流体控制面120D经平滑处理以减小其粗糙程度。
如附图之图83至图86D所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D进一步包括一个导流元件15D，其中该导流元件15D形成该排污通道150D，其中该导流元件15D被设置自该动阀片13D向上延伸且该导流元件15D的该排污通道150D分别与该平面阀的该排污开口 1108D和该第十一通道1011D相连通(该排污开口1108D被设置在该平面阀10D的该阀体11D)，或者该排污通道150D直接与该排污开口1108D相连通(该排污开口1108D被设置在该平面阀10D的该动阀片13D，并与该第十一通道1011D相连通)，以使污水或废水可自其流出。
如附图之图83至图86D所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D进一步包括一个自该动阀片13D向上延伸的驱动元件18D，其中该驱动元件18D被设置能够驱动该平面阀10D的该动阀片13D相对该定阀片12D发生转动。优选地，该驱动元件18D与该导流元件15D相一体成型。可选地，该驱动元件18D与该导流元件15D为两个独立的机构。
如附图之图83至图86D所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D进一步包括一个密封元件17D，其中该密封元件17D被设置与该驱动元件18D相面对面，其中该密封元件17D形成一个第一密封面170D，该驱动元件18D形成一个第二密封面180D，其中该密封元件17D的该第一密封面170D被设置在该驱动元件18D的该第二密封面180D，从而使得当该驱动元件18D相对该密封元件17D转动，以驱动该动阀片13D相对该定阀片12D转动时，该驱动元件18D和该密封元件17D之间被密封和防止水的泄漏。此外，该密封元件17D被设置能够保持该驱动元件18D处于适当位置，从而保持该动阀片13D处于一个预设位置。
如附图之图87A至图87D所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D的该动阀片13D的直径被设置稍小于该阀体11D的内腔110D的直径，从而使得该平面阀10D的该第九通道109D可通过该进水口1091D保持与该阀体11D的该内腔110D相连通。
如附图之图87A至图97G所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D的该控制装置16D被设置能够根据一个净化-软化控制指令，通过一个传动机构14D，如传动齿轮，驱动该驱动元件18D转动，以驱动该平面阀10D的该动阀片13D相对该定阀片12D转动，从而形成一个分别与该平面阀10D的该阀体11D的该内腔110D和该第五开口1105D相连通的第一连通通道1001D和一个分别与该阀体11D的该第二开口1102D和该第七开口1107D相连通的第二连通通道1002D，以允许原水自该阀体11D的该内腔110D，经过该平面阀10D形成的该第一连通通道1001D、该阀体11D的该第五开口1105D、该净化装置20的该第一连通开口201流入该净化装置20，原水经过该净化装置20净化处理后得到的净水从该净化装置20的该第二连通开口202流出，净水可经该软化箱31的该第一导通开口301流入该软化箱31，并经软化处理后得到软化水，软化水从该软化箱31的该第二导通开口302流出，然后经该阀体11D的该第七开口1107D、该平面阀10D的该第二连通通道1002D，最后经该阀体11D的该第二开口1102D流出和向用户供应软化水；根据一个软化滤芯(软化装置)反洗控制指令，通过该传动机构14D，如传动齿轮，驱动该驱动元件18D转动，以驱动该平面阀10D的该动阀片13D相对该定阀片12D转动，从而形成一个分别与该平面阀10D的该阀体11D的该内腔110D和该第七开口1107D相连通的第三连通通道1003D和一个分别与该阀体11D的该第六开口1106D和该平面阀10D的该排污开口1108D相连通的第四连通通道1004D，以允许原水自该阀体11D的该第一开口1101D流入到该阀体11D的该内腔110D，然后通过该平面阀10D形成的该第三连通通道1003D流入该第七开口1107D，再经该软化箱31的该第二导通开口302流入该软化箱31，和对该软化箱31中的软化材料(或水处理材料)，如软化树脂等，反向冲洗后，得到的污水或废水从该软 化箱31的该第一导通开口301流出，然后流经该阀体11D的该第六开口1106D流入该平面阀10D的该第四连通通道1004D，然后从该平面阀10D的该排污开口1108D流出；根据一个软化滤芯(软化装置)正洗控制指令，通过该传动机构14D，如传动齿轮，驱动该驱动元件18D转动，以驱动该平面阀10D的该动阀片13D相对该定阀片12D转动，从而形成一个分别与该阀体11D的该内腔110D和该第六开口1106D相连通的第五连通通道1005D和一个分别与该阀体11D的该第七开口1107D和该平面阀10D的该排污开口1108D相连通的第六连通通道1006D，以允许原水自该阀体11D的该第一开口1101D流入到该阀体11D的该内腔110D，然后通过该第五连通通道1005D流入该第六开口1106D，再进入该软化箱31的该第一导通开口301，对该软化箱31中的水处理材料或机构正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11D的该第七开口1107D流入该第六连通通道1006D，然后从该平面阀10D的该排污开口1108D流出；根据一个补水控制指令，通过该传动机构14D，如传动齿轮，驱动该驱动元件18D转动，以驱动该平面阀10D的该动阀片13D相对该定阀片12D转动，从而形成一个分别与该阀体11D的该内腔110D和该第四开口1104D相连通的第七连通通道1007D，以允许原水自该阀体11D的该第一开口1101D流入到该阀体11D的该内腔110D，然后通过该第七连通通道1007D流入该第四开口1104D，再流入该射流器32的该射入口322，向盐液箱33补水；根据一个净化装置正洗控制指令，通过该传动机构14D，如传动齿轮，驱动该驱动元件18D转动，以驱动该平面阀10D的该动阀片13D相对该定阀片12D转动，从而形成一个分别与该阀体11D的该内腔110D和该第五开口1105D相连通的第八连通通道1008D和一个分别与该阀体11D的该第六开口1106D和该平面阀10D的该排污开口1108D相连通的第九连通通道1009D，以允许原水自该阀体11D的该第一开口1101D流入到该阀体11D的该内腔110D，然后通过该第八连通通道1008D流入该第五开口1105D，再进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11D的该第六开口1106D流入该第九连通通道1009D，然后从该平面阀10D的该排污开口1108D流出。
如附图之图87A至图97G所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D的该控制装置16D进一步被设置能够根据一个净化装置反洗控制指令，通过该传动机构14D，如传动齿轮，驱动该驱动元件18D转动，以驱动该平面阀10D的该动阀片13D相对该定阀片12D转动，从而形成一个分别与该阀体11D的该第五开口1105D和该平面阀10D的该排污开口1108D相连通的第十连通通道10010D和一个分别与该阀体11D的该内腔110D和该第六开口1106D相连通的第十二连通通道10012D，以允许原水自该阀体11D的该第一开口1101D流入到该阀体11D的该内腔110D，然后通过该第十二连通通道10012D流入该第六开口1106D，再进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11D的该第五开口1105D流入该第十连通通道10010D，然后从该平面阀10D的该排污开口1108D流出。
如附图之图87A至图97G所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D的该控制装置16D进一步被设置能够根据一个软化滤芯再生控制指令，通过该传动机构14D，如传动齿轮，驱动该驱动元件18D转动，以驱动该平面阀10D的该动阀片13D相对该定阀片12D转动， 从而形成一个分别与该阀体11D的该内腔110D和该第三开口1103D相连通的第十一连通通道10011D、一个分别与该阀体11D的该第六开口1106D和该第四开口1104D相连通的第十三连通通道10013D和一个分别与该阀体11D的该第七开口1107D和该平面阀10D的该排污开口1108D相连通的第十四连通通道10014D，以允许原水自该阀体11D的该第一开口1101D流入到该阀体11D的该内腔110D，然后通过该第十一连通通道10011D流入该第三开口1103D，再流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11D的该第四开口1104D，然后通过该第十三连通通道10013D流入该第六开口1106D，进入该软化箱31的该第一导通开口301，顺流再生该软化箱31中的软化树脂后，从该第二导通开口302流出，然后流经该阀体11D的该第七开口1107D流入该第十四连通通道10014D，然后从该平面阀10D的该排污开口1108D流出。
值得注意的是，该控制指令，如净化-软化控制指令、软化装置反洗控制指令、软化装置正洗控制指令、补水控制指令、净化装置正洗控制指令、净化装置反洗控制指令、软化滤芯再生控制指令等控制指令，可以被预设在该控制装置16D的控制模块，也可以通过一个电子通讯网络接收自一个控制终端，或者由使用者通过一个输入界面输入。例如，当本发明净化-软化水处理系统被设置具有一个用于该平面阀10D的输入界面，如触控板或控制按钮时，使用者可通过触控面板或相应的控制按钮向该控制装置16D的控制模块发送上述控制指令，以使该控制装置16D的控制模块控制该控制装置16D的电机转动，从而通过该传动机构14D驱动该驱动元件18D转动。
附图之图81和图82、图99至图113G显示的是依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D的一种可选实施，其适用于控制净化-软化水处理系统对原水或待处理水进行净化-软化处理，其中该平面阀(流体阀)10D′包括一个阀体11D′和一个阀芯1D′，其中该阀芯1D′包括一个动阀片13D′和一个定阀片12D′，其中该阀体11D′形成一个内腔110D、一个第一开口1101D、一个第二开口1102D、一个第三开口1103D、一个第四开口1104D、一个第五开口1105D、一个第六开口1106D、一个第七开口1107D和一个排污开口(或第八开口)1108′，该定阀片12D′具有一个第一流体控制面120D，该动阀片13D′具有一个第二流体控制面130D，其中该动阀片13D′和该定阀片12D′均被设置在该内腔110D，其中该动阀片13D′的该第二流体控制面130D被设置在该定阀片12D′的该第一流体控制面120D，且该动阀片13D′被设置能够相对该定阀片12D′转动，其中该净化-软化水处理系统的净化装置20具有一个第一连通开口201和一个第二连通开口202，该净化-软化水处理系统的软化装置30包括至少一个软化箱31，其中该软化箱31具有一个第一导通开口301和一个第二导通开口302，其中该平面阀10D′的该阀体11D′的该内腔110D与该第一开口1101D相连通，该净化装置20的该第一连通开口201与该阀体11D′的该第五开口1105D相连通，该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301均与该阀体11D′的该第六开口1106D相连通，该软化箱31的该第二导通开口302与该阀体11D′的该第七开口1107D相连通。
如附图之图81和图82、图99至图113G所示，依本发明第三较佳实施例的净化-软化水处理系统的该软化装置30进一步包括一个射流器32和一个盐液箱33，其中该射流器32具有一个适于与该阀体11D′的该第三开口1103D相连通的射出口321和一个适于与该阀体11D′的该第四开口1104D相连通 的射入口322，其中该盐液箱33适于与该射流器32相连通，从而使来自该盐液箱33的盐液能够通过该射流器32和该第四开口1104D，和经该平面阀10D′流向该软化装置30的该软化箱31，从而使该软化箱31内的软化树脂得到再生。相应地，当本发明净化-软化水处理系统处于一个软化滤芯吸盐再生工作状态时，原水或待处理水自该阀体11D′的该第一开口1101D流入到该阀体11D′的该内腔110D，然后通过一个第十一连通通道10011D流入该第三开口1103D，再流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11D′的该第四开口1104D，然后通过一个第十三连通通道10013D流入该第六开口1106D，进入该软化箱31的该第一导通开口301，顺流再生该软化箱31中的水处理材料或机构，如软化树脂后，从该第二导通开口302流出，然后流经该阀体11D′的该第七开口1107D流入一个第十四连通通道10014D′，然后从该平面阀10D′的该排污开口1108D′流出。可以理解，尽管本发明仅示例性地描述通过射流器32向软化箱31提供盐液方式，然而，盐液也可以通过其它方式或机构经过该平面阀10D′的该第四开口1104D被提供给该软化箱31。因此，通过射流器32向软化箱31提供盐液的方式并不应成为本发明的限制。
本领域技术人员能够理解，本发明净化-软化水处理系统的该平面阀10D′进一步具有一个被设置在该阀体11D的连接机构，如连接螺纹、卡接接头等，以便于该平面阀10D′与该净化-软化水处理系统的其它结构部件，如净化装置20、软化装置30等相连接，以引导水分别流向净化装置20、软化装置30的软化箱31和该平面阀10D′形成的各个连通通道。
如附图之图99至图113G所示，依本发明第三较佳实施例的该净化-软化水处理系统具有一个第一工作状态、一个第二工作状态、一个第三工作状态、一个第四工作状态和一个第五工作状态，其中当该净化-软化水处理系统处在该第一工作状态时，该平面阀10D′的该动阀片13D′和该定阀片12D′形成一个分别与该阀体11D′的该内腔110D(或该第一开口1101D)和该第五开口1105D相连通的第一连通通道1001D和一个分别与该阀体11D′的该第二开口1102D和该第七开口1107D相连通第二连通通道1002D，当该净化-软化水处理系统处在该第二工作状态时，该平面阀10D′的该动阀片13D′和该定阀片12D′形成一个分别与该阀体11D′的该内腔110D(或该第一开口1101D)和该第七开口1107D相连通的第三连通通道1003D和一个分别与该阀体11D′的该第六开口1106D和该平面阀10D′的该排污开口1108D′相连通的第四连通通道1004D′，当该净化-软化水处理系统处在该第三工作状态时，该平面阀10D′的该动阀片13D′和该定阀片12D′形成一个分别与该阀体11D′的该内腔110D(或该第一开口1101D)和该第六开口1106D相连通的第五连通通道1005D和一个分别与该阀体11D′的该第七开口1107D和该平面阀10D′的该排污开口1108D′相连通的第六连通通道1006D′，当该净化-软化水处理系统处在该第四工作状态时，该平面阀10D′的该动阀片13D′和该定阀片12D′形成一个分别与该阀体11D′的该内腔110D(或该第一开口1101D)和该第四开口1104D相连通的第七连通通道1007D，当该净化-软化水处理系统处在该第五工作状态时，该平面阀10D′的该动阀片13D′和该定阀片12D′形成一个分别与该阀体11D′的该内腔110D(或该第一开口1101D)和该第五开口1105D相连通的第八连通通道1008D和一个分别与该阀体11D′的该第六开口1106D和该平面阀10D′的该排污开口1108D′相连通的第九连通通道1009D′。
如附图之图99至图113G所示，当依本发明第三较佳实施例的净化-软化水处理系统处在该第一工作状态时，该平面阀10D′形成的该第一连通通道1001D分别与该阀体11D′的该内腔110D(或该第一开口1101D)和该第五开口1105D相连通，该第二连通通道1002D分别与该阀体11D′的该第二开口1102D和该第七开口1107D相连通，从而允许原水自该阀体11D′的该第一开口1101D流入到该阀体11D′的该内腔110D，然后通过该平面阀10D′形成的该第一连通通道1001D、该阀体11D′的该第五开口1105D、该净化装置20的该第一连通开口201流入该净化装置20，原水经过该净化装置20净化处理后得到的净水从该净化装置20的该第二连通开口202流出，净水可经该软化箱31的该第一导通开口301流入该软化箱31，并经软化处理后得到软化水，软化水从该软化箱31的该第二导通开口302流出，然后经该阀体11D′的该第七开口1107D、该平面阀10D′的该第二连通通道1002D，最后经该阀体11D′的该第二开口1102D流出和向用户供应软化水。优选地，该净化装置20的该第二连通开口202与一个供水出口401(或供水通路400)相连通，从而向使用者提供净水。因此，当该净化-软化水处理系统处在该第一工作状态时，本发明净化-软化水处理系统可同时向使用者提供净水和软化水。相应地，该净化-软化水处理系统处的该第一工作状态对应于该净化-软化水处理系统的净化-软化工作状态。因此，当该净化-软化水处理系统处在该第一工作状态时，该阀体11D′的该第一开口1101D(或该阀体11D′的该内腔110D)、该阀体11D′的该第五开口1105D、该净化装置20的该第一连通开口201、该净化装置20的该第二连通开口202、该软化装置30的该软化箱31的该第一导通开口301、该软化装置30的该软化箱31的该第二导通开口302、该阀体11D′的该第七开口1107D和该阀体11D′的该第二开口1102D被依次连通，从而形成一个将该净化装置20和该软化装置30串联在一起的水流通路，以使原水能够自该净化装置20流向该软化装置30和使原水依次被净化和软化处理。
如附图之图99至图113G所示，当依本发明第三较佳实施例的净化-软化水处理系统处在该第二工作状态时，该平面阀10D′形成的该第三连通通道1003D分别与该阀体11D′的该内腔110D(或该第一开口1101D)和该第七开口1107D相连通，该第四连通通道1004D′分别与该阀体11D′的该第六开口1106D和该平面阀10D′的该排污开口1108D′相连通，从而允许原水自该阀体11D′的该第一开口1101D流入到该阀体11D′的该内腔110D，然后通过该平面阀10D′形成的该第三连通通道1003D流入该第七开口1107D，再经该软化箱31的该第二导通开口302流入该软化箱31，和对该软化箱31中的软化材料(或水处理材料)，如软化树脂等，反向冲洗后，得到的污水或废水从该软化箱31的该第一导通开口301流出，然后流经该阀体11D′的该第六开口1106D流入该平面阀10D′的该第四连通通道1004D′，然后从该平面阀10D′的该排污开口1108D′流出。换句话说，当该净化-软化水处理系统处在该第二工作状态时，本发明净化-软化水处理系统可控制对软化滤芯，如软化箱31进行反向冲洗。相应地，该净化-软化水处理系统的该第二工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)反洗工作状态。
如附图之图99至图113G所示，当依本发明第三较佳实施例的净化-软化水处理系统处在该第三工作状态时，该平面阀10D′形成的该第五连通通道1005D分别与该阀体11D′的该内腔110D(或该第一开口1101D)和该第六开口1106D相连通，该第六连通通道1006D′分别与该阀体11D′的该第七开口1107D和该平面阀10D′的该排污开口1108D′相连通，从而允许原水自该阀体11D′的该第一开口 1101D流入到该阀体11D′的该内腔110D，然后通过该第五连通通道1005D流入该第六开口1106D，再进入该软化箱31的该第一导通开口301，对该软化箱31中的水处理材料或机构正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11D′的该第七开口1107D流入该第六连通通道1006D′，然后从该平面阀10D′的该排污开口1108D′流出。换句话说，当该净化-软化水处理系统处在该第三工作状态时，本发明净化-软化水处理系统可控制对软化滤芯，如软化箱31进行正向冲洗。相应地，该净化-软化水处理系统的该第三工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)正洗工作状态。
如附图之图99至图113G所示，当依本发明第三较佳实施例的净化-软化水处理系统处在该第四工作状态时，该平面阀10D′形成的该第七连通通道1007D分别与该阀体11D′的该内腔110D(或该第一开口1101D)和该第四开口1104D相连通，从而允许原水自该阀体11D′的该第一开口1101D流入到该阀体11D′的该内腔110D，然后通过该第七连通通道1007D流入该第四开口1104D，再流入该射流器32的该射入口322，向盐液箱33补水。换句话说，当该净化-软化水处理系统处在该第四工作状态时，本发明净化-软化水处理系统可控制向盐液箱33补水。相应地，该净化-软化水处理系统处的该第四工作状态对应于该净化-软化水处理系统的盐液箱补水工作状态。
如附图之图99至图113G所示，当依本发明第三较佳实施例的净化-软化水处理系统处在该第五工作状态时，该平面阀10D′形成的该第八连通通道1008D分别与该阀体11D′的该内腔110D(或该第一开口1101D)和该第五开口1105D相连通，该第九连通通道1009D′分别与该阀体11D′的该第六开口1106D和该平面阀10D′的该排污开口1108D′相连通，从而允许原水自该阀体11D′的该第一开口1101D流入到该阀体11D′的该内腔110D，然后通过该第八连通通道1008D流入该第五开口1105D，再进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11D′的该第六开口1106D流入该第九连通通道1009D′，然后从该平面阀10D′的该排污开口1108D′流出。换句话说，当该净化-软化水处理系统处在该第五工作状态时，本发明净化-软化水处理系统可控制对净化装置20进行正向冲洗。相应地，该净化-软化水处理系统的该第五工作状态对应于该净化-软化水处理系统的净化装置正洗工作状态。
如附图之图99至图113G所示，依本发明第三较佳实施例的净化-软化水处理系统进一步具有一个第六工作状态和一个第七工作状态，其中当该净化-软化水处理系统处在该第六工作状态时，该平面阀10D′的该动阀片13D′和该定阀片12D′形成一个分别与该阀体11D′的该第五开口1105D和该平面阀10D′的该排污开口1108D′相连通的第十连通通道10010D′；当该净化-软化水处理系统处在该第七工作状态时，该平面阀10D′的该动阀片13D′和该定阀片12D′形成一个分别与该阀体11D′的该内腔110D(或该第一开口1101D)和该第三开口1103D相连通的第十一连通通道10011D。优选地，当该净化-软化水处理系统处在该第六工作状态时，该平面阀10D′的该动阀片13D′和该定阀片12D′进一步形成一个分别与该阀体11D′的该内腔110D(或该第一开口1101D)和该第六开口1106D相连通的第十二连通通道10012D，当该净化-软化水处理系统处在该第七工作状态时，该平面阀10D′的该动阀片13D′和该定阀片12D′形成一个分别与该阀体11D′的该第六开口1106D和该第四开口1104D相连 通的第十三连通通道10013D和一个分别与该阀体11D′的该第七开口1107D和该平面阀10D′的该排污开口1108D′相连通的第十四连通通道10014D′。
如附图之图99至图113G所示，当依本发明第三较佳实施例的净化-软化水处理系统处在该第六工作状态时，该平面阀10D′形成的该第十连通通道10010D′分别与该阀体11D′的该第五开口1105D和该平面阀10D′的该排污开口1108D′相连通，该第十二连通通道10012D分别与该阀体11D′的该内腔110D(或该第一开口1101D)和该第六开口1106D相连通，从而允许原水自该阀体11D′的该第一开口1101D流入到该阀体11D′的该内腔110D，然后通过该第十二连通通道10012D流入该第六开口1106D，再进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11D′的该第五开口1105D流入该第十连通通道10010D′，然后从该平面阀10D′的该排污开口1108D′流出；当依本发明第三较佳实施例的净化-软化水处理系统处在该第七工作状态时，该平面阀10D′形成的该第十一连通通道10011D分别与该阀体11D′的该内腔110D(或该第一开口1101D)和该第三开口1103D相连通，该第十三连通通道10013D分别与该阀体11D′的该第六开口1106D和该第四开口1104D相连通，该第十四连通通道10014D′分别与该阀体11D′的该第七开口1107D和该平面阀10D′的该排污开口1108D′相连通，从而允许原水自该阀体11D′的该第一开口1101D流入到该阀体11D′的该内腔110D，然后通过该第十一连通通道10011D流入该第三开口1103D，再流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11D′的该第四开口1104D，然后通过该第十三连通通道10013D流入该第六开口1106D，进入该软化箱31的该第一导通开口301，顺流再生该软化箱31中的软化树脂后，从该第二导通开口302流出，然后流经该阀体11D′的该第七开口1107D流入该第十四连通通道10014D′，然后从该平面阀10D′的该排污开口1108D′流出。相应地，该净化-软化水处理系统的该第六工作状态对应于该净化-软化水处理系统的净化装置反洗工作状态，该净化-软化水处理系统的该第七工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)再生工作状态。
如附图之图81和图82、图111A至图111G所示，依本发明第三较佳实施例的净化-软化水处理系统进一步具有一个供水单元40，其中该供水单元40形成一个供水通路400，其中该供水通路400被设置与该净化装置20的该第二连通开口202相连通，以向使用者提供净水。如附图之图111A至图111G所示，该供水单元40包括一个供水管道(或供水管)41和一个流体阀42，其中该流体阀42被设置在该供水管道41，以控制向使用者提供净水。可以理解，该供水管道41形成该供水出口401。优选地，该流体阀42是一个电动球阀或电动平面阀，以便于使用者通过一个控制装置16D自动控制净水的提供。因此，该净化装置20的该第二连通开口202分别与该平面阀10D′的该第六开口1106D、该软化箱31的该第一导通开口301和该供水通路400(或该供水出口401)相连通。此外，该平面阀10D′的该第六开口1106D进一步与该软化箱31的该第一导通开口301相连通。
如附图之图110A至图113G所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D′具有一个第一通道101D，一个第二通道102D，一个第三通道103D，一个第四通道104D、一个第五通道105D、一个第六通道106D、一个第七通道107D、一个第八通道108D、一个第九通道109D、 一个第十通道1010D、一个第十一通道1011D′、一个第十二通道1012D和一个第十三通道1013D′，其中该第一通道101D、该第二通道102D、该第三通道103D、该第四通道104D、该第五通道105D、该第六通道106D、该第七通道107D、该第八通道108D、该第十二通道1012D和该第十三通道1013D′分别设于该定阀片12D′并分别自该定阀片12D′的该第一流体控制面120D延伸；该第九通道109D、该第十通道1010D和该第十一通道1011D′分别设于该动阀片13D′并分别自该动阀片13D′的该第二流体控制面130D延伸，其中该第一通道101D和该第二通道102D分别与该第五开口1105D相连通，该第三通道103D和该第四通道104D分别与该第七开口1107D相连通，该第五通道105D与该第二开口1102D相连通，该第六通道106D与该第三开口1103D相连通，该第七通道107D与该第四开口1104D相连通，该第八通道108D和该第十二通道1012D分别与该第六开口1106D相连通，该第九通道109D与该阀体11D′的该内腔110D相连通，该第十一通道1011D′与该第十三通道1013D′相连通，该第十三通道1013D′与该排污开口1108D′相连通。可以理解，本发明该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301与该阀体11D′的该第六开口1106D的连通可通过多种方式实现。如附图之图102A所示，该阀体11D′的该第六开口1106D可通过一个分别与该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301相连通的连通管路(或三通管路)实现该净化装置20的该第二连通开口202、该软化箱31的该第一导通开口301和该阀体11′的该第六开口1106之间的连通。可选地，该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301与该阀体11D′的该第六开口1106D的连通也可通过被设置在该阀体11′的连通通路实现，其中该连通通路可被设置分别与该净化装置20的该第二连通开口202和该阀体11D的该第六开口1106D相连通，和分别与该软化箱31的该第一导通开口301和该阀体11D′的该第六开口1106D相连通。因此，该阀体11D′的该第八通道108D(或该第十二通道1012D)、该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301通过该阀体11D′的该第六开口1106D形成一个三通结构。此外，为了确保该阀体11D′的该内腔110D中的水进入该平面阀10D′的该第九通道109D,该第九通道109D被设置可通过一个始终与外部空间相连通的进水口1091D保持始终与该阀体11D′的该内腔110D相连通。
值得注意的是，该平面阀10D′的该第一通道101D和该第二通道102D分别与该第五开口1105D的连通，可以是分别地和独自地与该第五开口1105D相连通，也可以通过一个流体通道相连通；该平面阀10D′的该第三通道103D和该第四通道104D分别与该第七开口1107D的连通，可以是分别地和独自地与该第七开口1107D相连通，也可以通过一个流体通道相连通。例如，如附图之图99至图113G所示，该平面阀10D′的该第一通道101D和该第二通道102D通过一个第一流体通道1211D相连通，该第二通道102D被设置直接与该第五开口1105D相连通，从而使该第一通道101D通过该第一流体通道1211D和该第二通道102D，也与该第五开口1105D相连通；该平面阀10D′的该第三通道103D和该第四通道104D分别单独地与该第七开口1107D相连通。可选地，如附图之图114A和图114B所示，该第一通道101D被设置直接与该第五开口1105D相连通，该第二通道102D通过该第一流体通道1211D和该第一通道101D，也与该第五开口1105D相连通。或者可选地，该平面阀10D′的该第一通道101D和该第二通道102D可分别地和独自地与该第五开口1105D相连通；或者可选地，如附图之图115所示，该平面阀10D′的该第三通道103D和该第四通道104D通过一个第二流体通道1212D 相连通，该第三通道103D被设置直接与该第七开口1107D相连通，从而使该第四通道104D通过该第二流体通道1212D和该第三通道103D，也与该第七开口1107D相连通；或者可选地，如附图之图116所示，该平面阀10D′的该第三通道103D和该第四通道104D通过一个第二流体通道1212D相连通，该第四通道104D被设置直接与该第七开口1107D相连通，从而使该第三通道103D通过该第二流体通道1212D和该第四通道104D，也与该第七开口1107D相连通。可以理解，进一步地，该第一流体通道1211D和该第二流体通道1212D可被设置在该定阀片12D′的该第一流体控制面120D，也可被设置在该阀体11D′或该定阀片12D′的内部。可以理解，该平面阀10D′的该第一通道101D和该第二通道102D与该第五开口1105D的连通，和该平面阀10D′的该第三通道103D和该第四通道104D与该第七开口1107D的连通，也可以是通过其它方式的连通。同样地，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D′的该第八通道108D和该第十二通道1012D分别与该第六开口1106D的连通，可以是分别地和独自地与该第六开口1106D相连通，也可以通过一个流体通道相连通。
如附图之图111A至图113G所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D′的该动阀片13D′能够相对定阀片12D′转动从而使得该平面阀10D′具有一个第一工作位，一个第二工作位，一个第三工作位，一个第四工作位和一个第五工作位，其中当该平面阀10D′处于该第一工作位时，该平面阀10D′的该第九通道109D与该第一通道101D相连通，该第十通道1010D分别与该第三通道103D和该第五通道105D相连通；当该平面阀10D′处于该第二工作位时，该平面阀10D′的该第九通道109D与该第四通道104D相连通，该第十一通道1011D′分别与该第八通道108D和该第十三通道1013D′相连通；当该平面阀10D′处于该第三工作位时，该平面阀10D′的该第九通道109D与该第八通道108D相连通，该平面阀10D′的该第十一通道1011D′分别与该第三通道103D和该第十三通道1013D′相连通；当该平面阀10D′处于该第四工作位时，该平面阀10D′的该第九通道109D与该第七通道107D相连通；当该平面阀10D′处于该第五工作位时，该平面阀10D′的该第九通道109D与该第二通道102D相连通，该平面阀10D′的该第十一通道1011D′分别与该第八通道108D和该第十三通道1013D′相连通。
如附图之图111A至图113G所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D′进一步具有一个第六工作位和一个第七工作位，其中当该平面阀10D′处于该第六工作位时，该平面阀10D′的该第十一通道1011D′分别与该第一通道101D和该第十三通道1013D′相连通；当平面阀10D′处于该第七工作位时，该平面阀10D′的该第九通道109D与该第六通道106D相连通。
可以理解，当该平面阀10D′处于该第一工作位时，依本发明第三较佳实施例的净化-软化水处理系统被控制处在该净化-软化工作状态，该平面阀10D′的该第九通道109D与该第一通道101D相连通，从而形成该第一连通通道1001D，该第十通道1010D分别与该第三通道103D和该第五通道105D相连通，从而形成该第二连通通道1002D；当该平面阀10D′处于该第二工作位时，依本发明第三较佳实施例的净化-软化水处理系统被控制处在该软化滤芯(软化装置)反洗工作状态，该平面阀10D′的该第九通道109D与该第四通道104D相连通，从而形成该第三连通通道1003D，该第十一通道1011D′分别与该第八通道108D和该第十三通道1013D′相连通，从而形成该第四连通通道1004D′；当该平面阀10D′处于该第三工作位时，依本发明第三较佳实施例的净化-软化水处理系统被控制处在 该软化滤芯(软化装置)正洗工作状态，该平面阀10D′的该第九通道109D与该第八通道108D相连通，从而形成该第五连通通道1005D，该平面阀10D′的该第十一通道1011D′分别与该第三通道103D和该第十三通道1013D′相连通，从而形成该第六连通通道1006D′；当该平面阀10D′处于该第四工作位时，依本发明第三较佳实施例的净化-软化水处理系统被控制处在该盐液箱补水工作状态，该平面阀10D′的该第九通道109D与该第七通道107D相连通，从而形成该第七连通通道1007D；该平面阀10D′处于该第五工作位时，依本发明第三较佳实施例的净化-软化水处理系统被控制处在该净化装置正洗工作状态时，该平面阀10D′的该第九通道109D与该第二通道102D相连通，从而形成该第八连通通道1008D，该平面阀10D′的该第十一通道1011D′分别与该第八通道108D和该第十三通道1013D′相连通，从而形成该第九连通通道1009D′。进一步地，当该平面阀10D′处于该第六工作位时，依本发明第三较佳实施例的净化-软化水处理系统被控制处在该净化装置反洗工作状态，该平面阀10D′的该第十一通道1011D′分别与该第一通道101D和该第十三通道1013D′相连通，从而形成该第十连通通道10010D′；当该平面阀10D′处于该第七工作位时，依本发明第三较佳实施例的净化-软化水处理系统被控制处在该软化滤芯再生工作状态，该平面阀10D′的该第九通道109D与该第六通道106D相连通，从而形成该第十一连通通道10011D。更进一步地，当该平面阀10D′处于该第六工作位时，该第九通道109D与该第八通道108D相连通，从而形成该第十二连通通道10012D；当该平面阀10D′处于该第七工作位时，该第十通道1010D分别与该第七通道107D和该第十二通道1012D相连通，从而形成该第十三连通通道10013D，该第十一通道1011D′分别与该第四通道104D和该第十三通道1013D′相连通，从而形成该第十四连通通道10014D′。优选地，该第十一通道1011D′是一个被设置在该动阀片13D′的该第二流体控制面130D的导通盲孔或导通槽，以在相应的工作位连通该定阀片12D′的不同通道，例如，在第二工作位连通(或导通)该第八通道108D和该第十三通道1013D′。可以理解，当该平面阀10D′处于该第一工作位时，该平面阀10D′的该第十通道1010D分别与该第三通道103D和该第五通道105D相连通,且该平面阀10D′的该动阀片13D′将该第五通道105D与该阀体11D′的该内腔110D相隔开，以防止该阀体11D′的该内腔110D内的原水进入该第五通道105D。
如附图之图103A至图113G所示，相应地，当该平面阀10D′处于第一工作位时，该水处理机处于净化-软化工作状态，原水自该阀体11D′的该第一开口1101D流入到该阀体11D′的该内腔110D，然后通过该动阀片13D′的该第九通道109D流入该定阀片12D′的该第一通道101D，然后通过该阀体11D′的该第五开口1105D进入该净化装置20的该第一连通开口201，经过该净化装置20的水处理材料或机构处理后，从该净化装置20的该第二连通开口202流出，然后流入该软化箱31的该第一导通开口301，经过该软化箱31内的软化树脂处理后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11D′的该第七开口1107D进入该定阀片12D′的该第三通道103D，经过该动阀片13D′的该第十通道1010D导流进入该定阀片12D′的该第五通道105D，然后经过该阀体11D′的该第二开口1102D向用户供应处理后水；当该平面阀10D′处于第二工作位时，该水处理机处于该软化滤芯(软化装置)反洗工作状态，原水自该阀体11D′的该第一开口1101D流入到该阀体11D′的该内腔110D，然后通过该动阀片13D′的该第九通道109D流入该定阀片12D′的该第四通道104D，然后通过该阀体11D′的该第七开口1107D进入该软化箱31的该第二导通开口302，对该软化箱31中的软化树脂反向冲洗后，从 该软化箱31的该第一导通开口301流出，然后流经该阀体11D′的该第六开口1106D，再流经该定阀片12D′的该第八通道108D和该动阀片13D′的该第十一通道1011D′和该第十三通道1013D′，然后，从该平面阀10D′的该排污开口1108D′流出；当该平面阀10D′处于第三工作位时，该水处理机处于该软化滤芯(软化装置)正洗工作状态，原水自该阀体11D′的该第一开口1101D流入到该阀体11D′的该内腔110D，然后通过该动阀片13D′的该第九通道109D流入该定阀片12D′的该第八通道108D，然后通过该阀体11D′的该第六开口1106D进入该软化箱31的该第一导通开口301，对该软化箱31中的软化树脂正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11D′的该第七开口1107D，再流经该定阀片12D′的该第三通道103D和该动阀片13D′的该第十一通道1011D′和该第十三通道1013D′，然后，从该平面阀10D′的该排污开口1108D′流出；当该平面阀10D′处于第四工作位时，该水处理机处于该盐液箱补水工作状态，原水自该阀体11D′的该第一开口1101D流入到该阀体11D′的该内腔110D，然后通过该动阀片13D′的该第九通道109D流入该定阀片12D′的该第七通道107D，然后流经该阀体11D′的该第四开口1104D流入该射流器32的该射入口322，向盐液箱33补水；当该平面阀10D′处于第五工作位时，该水处理机处于该净化装置正洗工作状态，原水自该阀体11D′的该第一开口1101D流入到该阀体11D′的该内腔110D，然后通过该动阀片13D′的该第九通道109D流入该定阀片12D′的该第二通道102D，然后通过该阀体11D′的该第五开口1105D进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11D′的该第六开口1106D，进入该定阀片12D′的该第八通道108D，再流经该动阀片13D′的该第十一通道1011D′和该第十三通道1013D′，然后，从该平面阀10D′的该排污开口1108D′流出。进一步地，当该平面阀10D′处于第六工作位时，该水处理机处于净化装置反洗工作状态，原水自该阀体11D′的该第一开口1101D流入到该阀体11D′的该内腔110D，然后通过该动阀片13D′的该第九通道109D流入该定阀片12D′的该第八通道108D，然后通过该阀体11D′的该第六开口1106D进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11D′的该第五开口1105D，进入该定阀片12D′的该第一通道101D，再流经该动阀片13D′的该第十一通道1011D′和该第十三通道1013D′，然后，从该平面阀10D′的该排污开口1108D′流出；当该平面阀10D′处于第七工作位时，该水处理机处于该软化滤芯再生工作状态，原水自该阀体11D′的该第一开口1101D流入到该阀体11D′的该内腔110D，然后通过该动阀片13D′的该第九通道109D流入该定阀片12D′的该第六通道106D，然后通过该阀体11D′的该第三开口1103D流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11D′的该第四开口1104D，然后进入该定阀片12D′的该第七通道107D，再经过该动阀片13D′的该第十通道1010D导流进入该定阀片12D′的该第十二通道1012D，然后流经该阀体11D′的该第六开口1106D进入该软化箱31的该第一导通开口301，顺流再生该软化箱31中的如软化树脂后，从该第二导通开口302流出，然后流经该阀体11D′的该第七开口1107D进入该定阀片12D′的该第四通道104D，再通过该动阀片13D′的该第十一通道1011D′和该第十三通道1013D′，然后，从该平面阀10D′的该排污开口1108D′流出。
如附图之图113A至图113G所示，优选地，当平面阀10D′处于第一工作位时，该平面阀10D′的 该第二通道102D、该第四通道104D、该第八通道108D和该第十二通道1012D被该动阀片13D′封闭；当平面阀10D′处于第二工作位时，该平面阀10D′的该第一通道101D、该第三通道103D和该第十二通道1012D被该动阀片13D′封闭；当平面阀10D′处于第三工作位时，该平面阀10D′的该第二通道102D、该第四通道104D和该第十二通道1012D被该动阀片13D′封闭；当平面阀10D′处于第四工作位时，该平面阀10D′的该第六通道106D被该动阀片13D′封闭；当平面阀10D′处于第五工作位时，该平面阀10D′的该第一通道101D、该第三通道103D、该第四通道104D和该第十二通道1012D被该动阀片13D′封闭；当平面阀10D′处于第六工作位时，该平面阀10D′的该第二通道102D、该第三通道103D、该第四通道104D和该第十二通道1012D被该动阀片13D′封闭；当平面阀10D′处于第七工作位时，该平面阀10D′的该第一通道101D、该第二通道102D、该第三通道103D和该第八通道108D被该动阀片13D′封闭。
如附图之图113A至图113G所示，更优选地，当平面阀10D′处于第二工作位时，该平面阀10D′的该第六通道106D和该第七通道107D分别被该动阀片13D′封闭；当平面阀10D′处于第三工作位时，该平面阀10D′的该第六通道106D和该第七通道107D分别被该动阀片13D′封闭，该第十通道1010D分别与该第一通道101D和该第八通道108D相连通；当平面阀10D′处于第四工作位时，该平面阀10D′的该第一通道101D和该第三通道103D分别被该动阀片13D′封闭；当平面阀10D′处于第五工作位时，该平面阀10D′的该第六通道106D和该第七通道107D分别被该动阀片13D′封闭；当平面阀10D′处于第六工作位时，该平面阀10D′的该第六通道106D和该第七通道107D分别被该动阀片13D′封闭，该平面阀10D′的该第十通道1010D与该第八通道108D相连通。
如附图之图113A至图113G所示，最优选地，当平面阀10D′处于第一工作位时，该平面阀10D′的该第六通道106D和该第七通道107D分别被该动阀片13D′封闭，该第十一通道1011D′与该第十三通道1013D′相连通；当平面阀10D′处于第二工作位时，该平面阀10D′的该第十通道1010D分别与该第二通道102D和该第八通道108D相连通，该第五通道105D被该动阀片13D′封闭；当平面阀10D′处于第三工作位时，该平面阀10D′的该第五通道105D被该动阀片13D′封闭；当平面阀10D′处于第四工作位时，该平面阀10D′的该第十通道1010D分别与该第四通道104D和该第十二通道1012D相连通，该第十一通道1011D′分别与该第二通道102D和该第十三通道1013D′相连通，该第八通道108D和该第五通道105D分别被该动阀片13D′封闭；当平面阀10D′处于第五工作位时，该平面阀10D′的该第十通道1010D与该第八通道108D相连通，该第五通道105D被该动阀片13D′封闭；当平面阀10D′处于第六工作位时，该平面阀10D′的该第五通道105D被该动阀片13D′封闭；当平面阀10D′处于第七工作位时，该平面阀10D的该第五通道105D被该动阀片13D′封闭。
如附图之图81至图113G所示，优选地，本文中的通道被封闭，指的是相应通道形成在该平面阀10D的该定阀片12D(或定阀片12D′)的第一流体控制面120D和该动阀片13D(或动阀片13D′)的该第二流体控制面130D的通道开口在该平面阀10D的具体工作位(或水处理系统的工作状态)，被该动阀片13D和该定阀片12D的实体部分盖住，从而导致相应通道之间无法通过通道开口相连通。例如，当该平面阀10D处于第一工作位时，该动阀片13D的实体部分正对该平面阀10D的该第六通道106D和该第七通道107D形成在该定阀片12D的第一流体控制面120D的通道开口，从而使该平面 阀10D的该第六通道106D和该第七通道107D被该动阀片13D封闭(或阻塞)。相应地，本文中被设置在该动阀片13D的通道与被设置在定阀片12D的通道之间的相连通，指的是在该平面阀10D的具体工作位(或水处理系统的工作状态)，被设置在该动阀片13D的通道形成在该动阀片13D的该第二流体控制面130D的通道开口与被设置在该定阀片12D的通道形成该定阀片12D的第一流体控制面120D的通道开口选择性地部分或正好对齐和形成允许水流通过的水流通路。例如，当该平面阀10D处于第一工作位时，该平面阀10D的该第九通道109D的通道开口与该第一通道101D的通道开口相对齐，从而使两者相连通和形成该第一连通通道1001D。
值得注意的是该平面阀10D′的该第一通道101D、该第二通道102D、该第三通道103D、该第四通道104D、该第五通道105D、该第六通道106D、该第七通道107D、该第八通道108D、该第十二通道1012D和该第十三通道1013D′分别相隔开地设于该定阀片12D′的该第一流体控制面120D；该第九通道109D、该第十通道1010D和该第十一通道1011D′分别相隔开地设于该动阀片13D′的该第二流体控制面130D。换句话说，该平面阀10′的该第一通道101D、该第二通道102D、该第三通道103D、该第四通道104D、该第五通道105D、该第六通道106D、该第七通道107D、该第八通道108D、该第十二通道1012D和该第十三通道1013D′分别形成一个被设置在该定阀片12D′的该第一流体控制面120D的通道开口，该第九通道109D、该第十通道1010D和该第十一通道1011D′分别形成一个被设置在该动阀片13D′的该第二流体控制面130D的通道开口，当该平面阀10D的该动阀片13D′被面(该第二流体控制面130D)对面(该第一流体控制面120D)设置，且该动阀片13D′相对该定阀片12D′转动时，被设置在该动阀片13D′的通道和被设置在该定阀片12D′的通道通过相应的通道开口选择性地相连通，从而形成相应的连通通道和控制流体(如水流)的流动方向。可以理解，该平面阀10D′的该第一通道101D、该第二通道102D、该第三通道103D、该第四通道104D、该第五通道105D、该第六通道106D、该第七通道107D、该第八通道108D、该第九通道109D、该第十通道1010D、该第十一通道1011D′、该第十二通道1012D和该第十三通道1013D′可具有任何能够实现本文中相互连通关系的延伸路径(或方向)；该平面阀10D′的该第一通道101D、该第二通道102D、该第三通道103D、该第四通道104D、该第五通道105D、该第六通道106D、该第七通道107D、该第八通道108D、该第十二通道1012D和该第十三通道1013D′分别形成在该定阀片12D′的该第一流体控制面120D的通道开口，和该第九通道109D、该第十通道1010D和该第十一通道1011D′分别形成在该动阀片13D′的该第二流体控制面130D的通道开口，可具有任何能够实现本文中相互连通关系的形状。因此，该平面阀10D的该第一通道101D、该第二通道102D、该第三通道103D、该第四通道104D、该第五通道105D、该第六通道106D、该第七通道107D、该第八通道108D、该第十二通道1012D、该第十三通道1013D′、该第九通道109D、该第十通道1010D和该第十一通道1011D′的延伸路径(或方向)和其通道开口的形状不应成为对本发明的限制。
如附图之图112A至图112D所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D′的该第一通道101D、该第八通道108D、该第二通道102D、该第四通道104D、该第十二通道1012D、该第七通道107D、该第六通道106D、该第五通道105D和该第三通道103D以此顺序顺时针地排布在该定阀片12D′；该平面阀10D′的该第十一通道1011D′、该第十通道1010D和该第九通道 109D以此顺序顺时针地排布在该动阀片13D′。可选地，该平面阀10D′的该第一通道101D、该第八通道108D、该第二通道102D、该第四通道104D、该第十二通道1012D、该第七通道107D、该第六通道106D、该第五通道105D和该第三通道103D以此顺序逆时针地排布在该定阀片12D′；该平面阀10D′的该第十一通道1011D′、该第十通道1010D和该第九通道109D以此顺序逆时针地排布在该动阀片13D′。
如附图之图112A至图112D所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D′的该定阀片12D′具有一个第一中心部121D和一个自该第一中心部121D向外延伸的第一延伸部122D，该动阀片13D′具有一个第二中心部131D和一个自该第二中心部131D向外延伸的第二延伸部132D，其中该定阀片12D′的该第一流体控制面120D具有一个图中点划线所示的中心部分1200D，其中该中心部分1200D被设于该定阀片12D′的该第一中心部121D，且该第一流体控制面120D的中心部分1200D之外的部分被顺时针等分为点划线所示的一个第一部分1201D、一个第二部分1202D、一个第三部分1203D、一个第四部分1204D、一个第五部分1205D、一个第六部分1206D、一个第七部分1207D、一个第八部分1208D、一个第九部分1209D、一个第十部分12010D和一个第十一部分12011D；该平面阀10D′的动阀片13D′的该第二流体控制面130D具有一个图中点划线所示的中心区域1300D，其中该中心区域1300D设于该动阀片13D′的该第二中心部131D，且该第二流体控制面130D的该中心区域1300D之外的部分被顺时针等分为点划线所示的一个第一区域1301D、一个第二区域1302D、一个第三区域1303D、一个第四区域1304D、一个第五区域1305D、一个第六区域1306D、一个第七区域1307D、一个第八区域1308D、一个第九区域1309D、一个第十区域13010D和一个第十一区域13011D；其中该第十三通道1013D′自第一流体控制面120D的该中心部分1200D向下延伸；该第一通道101D自该第一流体控制面120D的该第一部分1201D向下延伸；该第八通道108D自该定阀片12D′的该第一流体控制面120D的该第二部分1202D、该第三部分1203D和该第四部分1204D向下延伸；该第二通道102D自该定阀片12D′的该第一流体控制面120D的该第五部分1205D向下延伸；该第四通道104D自该定阀片12D′的该第一流体控制面120D的该第六部分1206D向下延伸；该第十二通道1012D自该定阀片12D′的该第一流体控制面120D的该第七部分1207D向下延伸；该第七通道107D自该第一流体控制面120D的该第八部分1208D向下延伸；该第六通道106D自该第一流体控制面120D的该第九部分1209D向下延伸；该第五通道105D自该第一流体控制面120D的该第十部分12010D向下延伸；该第三通道103D自该第一流体控制面120D的该第十一部分12011D向下延伸；该第九通道109D自该第二流体控制面130D的该第一区域1301D向上延伸；该第十一通道1011D′自该第二流体控制面130D的该中心区域1300D延伸至该第二流体控制面130D的该第九区域1309D；该第十通道1010D自该第二流体控制面130D的该第十区域13010D和该第十一区域13011D向上延伸。
可选地，该平面阀10D′的定阀片12D′的第一流体控制面120D和动阀片13D′的该第二流体控制面130D均为圆形，该第一通道101D、该第二通道102D、该第三通道103D、该第四通道104D、该第五通道105D、该第六通道106D、该第七通道107D、该第八通道108D和该第十二通道1012D均沿径向设于该定阀片12D′的该第一流体控制面120D，且该第九通道109D和该第十通道1010D均沿径向设于该动阀片13D′的该第二流体控制面130D。
优选地，该第一通道101D自该定阀片12D′的该第一流体控制面120D向下和向外延伸、该第二通道102D自该定阀片12D′的该第一流体控制面120D向下和向外延伸、该第三通道103D自该定阀片12D′的该第一流体控制面120D向下和向外延伸、该第四通道104D自该定阀片12D′的第一流体控制面120D向下和向外延伸、该第五通道105D自该定阀片12D′的第一流体控制面120D向下和向外延伸、该第六通道106D自该定阀片12D′的第一流体控制面120D向下和向外延伸、该第七通道107D自该定阀片12D′的第一流体控制面120D向下和向外延伸、该第八通道108D自该定阀片12D′的该第一流体控制面120D向下和向外延伸、该第十二通道1012D自该定阀片12D′的该第一流体控制面120D向下和向外延伸、该第十三通道1013D′自第一流体控制面120D向下和向外延伸。
如附图之图99至图102D所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D′的该阀体11D′具有一个内壁111D，其中该定阀片12D′适于该第一流体控制面120D朝上地设于该内腔110D，和该动阀片13D′适于该第二流体控制面130D朝下地设于该内腔110D，其中该内腔110D始终与该第九通道109D相连通。值得注意的是，该平面阀10D′的该定阀片12D′可以被可拆卸地设置在该阀体11D′的内壁111D，也可以与该平面阀10D′的该阀体11D′的该内壁111D相一体成型。本领域技术人员可以理解，当该定阀片12D′被可拆卸地设置在该阀体11D′内时，该定阀片12D′和该阀体11D′之间通过一个固定机构来保持该定阀片12D′和该阀体11D′之间的同步。例如，如附图之图99至图102D所示，该定阀片12D′具有一个自该定阀片12D′的边缘向外突出的制动件123D，该阀体11D′的该内壁111D具有一个制动槽1110D，其中该定阀片12D′的该制动件123D被设置能够与该阀体11D′的该内壁111D的该制动槽1110D相啮合，以确保该定阀片12D′和该阀体11D′之间相同步(或不会发生相对转动)和确保被设置在该定阀片12D′的各个通道与被设置在该阀体11D′的相应开口相连通。可以理解，当该定阀片12D′被可拆卸地设置在该阀体11D′内时，该定阀片12D′可被单独制造。换句话说，此时，该定阀片12D′可由耐磨材料制成，从而提高该定阀片12D′(或整个平面阀)的使用寿命。优选地，该定阀片12D′的该第一流体控制面120D经平滑处理以减小其粗糙程度。
如附图之图99至图102D所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D′进一步包括一个自该动阀片13D′向上延伸的驱动元件18D，其中该驱动元件18D被设置能够驱动该平面阀10D′的该动阀片13D′相对该定阀片12D′发生转动。
如附图之图99至图102D所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D′进一步包括一个密封元件17D，其中该密封元件17D被设置与该驱动元件18D相面对面，其中该密封元件17D形成一个第一密封面170D，该驱动元件18D形成一个第二密封面180D，其中该密封元件17D的该第一密封面170D被设置在该驱动元件18D的该第二密封面180D，从而使得当该驱动元件18D相对该密封元件17D转动，以驱动该动阀片13D′相对该定阀片12D′转动时，该驱动元件18D和该密封元件17D之间被密封和防止水的泄漏。此外，该密封元件17D被设置能够保持该驱动元件18D处于适当位置，从而保持该动阀片13D′处于一个预设位置。
如附图之图103A至图103D所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D′的该动阀片13D′的直径被设置稍小于该阀体11D′的内腔110D的直径，从而使得该平面阀10D′的该第九通道109D可通过该进水口1091D保持与该阀体11D′的该内腔110D相连通。
如附图之图103A至图113G所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D′的该控制装置16D被设置能够根据一个净化-软化控制指令，通过一个传动机构14D，如传动齿轮，驱动该驱动元件18D转动，以驱动该平面阀10D′的该动阀片13D′相对该定阀片12D′转动，从而形成一个分别与该平面阀10D′的该阀体11D′的该内腔110D和该第五开口1105D相连通的第一连通通道1001D和一个分别与该阀体11D′的该第二开口1102D和该第七开口1107D相连通的第二连通通道1002D，以允许原水自该阀体11D′的该内腔110D，经过该平面阀10D′形成的该第一连通通道1001D、该阀体11D′的该第五开口1105D、该净化装置20的该第一连通开口201流入该净化装置20，原水经过该净化装置20净化处理后得到的净水从该净化装置20的该第二连通开口202流出，净水可经该软化箱31的该第一导通开口301流入该软化箱31，并经软化处理后得到软化水，软化水从该软化箱31的该第二导通开口302流出，然后经该阀体11D′的该第七开口1107D、该平面阀10D′的该第二连通通道1002D，最后经该阀体11D′的该第二开口1102D流出和向用户供应软化水；根据一个软化滤芯(软化装置)反洗控制指令，通过该传动机构14D，如传动齿轮，驱动该驱动元件18D转动，以驱动该平面阀10D′的该动阀片13D′相对该定阀片12D′转动，从而形成一个分别与该平面阀10D′的该阀体11D′的该内腔110D和该第七开口1107D相连通的第三连通通道1003D和一个分别与该阀体11D′的该第六开口1106D和该平面阀10D′的该排污开口1108D′相连通的第四连通通道1004D′，以允许原水自该阀体11D′的该第一开口1101D流入到该阀体11D′的该内腔110D，然后通过该平面阀10D′形成的该第三连通通道1003D流入该第七开口1107D，再经该软化箱31的该第二导通开口302流入该软化箱31，和对该软化箱31中的软化材料(或水处理材料)，如软化树脂等，反向冲洗后，得到的污水或废水从该软化箱31的该第一导通开口301流出，然后流经该阀体11D′的该第六开口1106D流入该平面阀10D′的该第四连通通道1004D′，然后从该平面阀10D′的该排污开口1108D′流出；根据一个软化滤芯(软化装置)正洗控制指令，通过该传动机构14D，如传动齿轮，驱动该驱动元件18D转动，以驱动该平面阀10D′的该动阀片13D′相对该定阀片12D′转动，从而形成一个分别与该阀体11D′的该内腔110D和该第六开口1106D相连通的第五连通通道1005D和一个分别与该阀体11D′的该第七开口1107D和该平面阀10D′的该排污开口1108D′相连通的第六连通通道1006D′，以允许原水自该阀体11D′的该第一开口1101D流入到该阀体11D′的该内腔110D，然后通过该第五连通通道1005D流入该第六开口1106D，再进入该软化箱31的该第一导通开口301，对该软化箱31中的水处理材料或机构正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11D′的该第七开口1107D流入该第六连通通道1006D′，然后从该平面阀10D′的该排污开口1108D′流出；根据一个补水控制指令，通过该传动机构14D，如传动齿轮，驱动该驱动元件18D转动，以驱动该平面阀10D′的该动阀片13D′相对该定阀片12D′转动，从而形成一个分别与该阀体11D′的该内腔110D和该第四开口1104D相连通的第七连通通道1007D，以允许原水自该阀体11D′的该第一开口1101D流入到该阀体11D′的该内腔110D，然后通过该第七连通通道1007D流入该第四开口1104D，再流入该射流器32的该射入口322，向盐液箱33补水；根据一个净化装置正洗控制指令，通过该传动机构14D，如传动齿轮，驱动该驱动元件18D转动，以驱动该平面阀10D′的该动阀片13D′相对该定阀片12D′转动，从而形成一个分别与该阀体11D′的该内腔110D和该第五开口1105D相连通的第八连通通道1008D和一个分别 与该阀体11D′的该第六开口1106D和该平面阀10D′的该排污开口1108D′相连通的第九连通通道1009D′，以允许原水自该阀体11D′的该第一开口1101D流入到该阀体11D′的该内腔110D，然后通过该第八连通通道1008D流入该第五开口1105D，再进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11D′的该第六开口1106D流入该第九连通通道1009D′，然后从该平面阀10D′的该排污开口1108D′流出。
如附图之图103A至图113G所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D′的该控制装置16D进一步被设置能够根据一个净化装置反洗控制指令，通过该传动机构14D，如传动齿轮，驱动该驱动元件18D转动，以驱动该平面阀10D′的该动阀片13D′相对该定阀片12D′转动，从而形成一个分别与该阀体11D′的该第五开口1105D和该平面阀10D′的该排污开口1108D′相连通的第十连通通道10010D′和一个分别与该阀体11D′的该内腔110D和该第六开口1106D相连通的第十二连通通道10012D，以允许原水自该阀体11D′的该第一开口1101D流入到该阀体11D′的该内腔110D，然后通过该第十二连通通道10012D流入该第六开口1106D，再进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11D′的该第五开口1105D流入该第十连通通道10010D′，然后从该平面阀10D′的该排污开口1108D′流出。
如附图之图103A至图113G所示，依本发明第三较佳实施例的净化-软化水处理系统的该平面阀10D′的该控制装置16D进一步被设置能够根据一个软化滤芯再生控制指令，通过该传动机构14D，如传动齿轮，驱动该驱动元件18D转动，以驱动该平面阀10D′的该动阀片13D′相对该定阀片12D′转动，从而形成一个分别与该阀体11D′的该内腔110D和该第三开口1103D相连通的第十一连通通道10011D、一个分别与该阀体11D的该第六开口1106D和该第四开口1104D相连通的第十三连通通道10013D和一个分别与该阀体11D′的该第七开口1107D和该平面阀10D′的该排污开口1108D′相连通的第十四连通通道10014D′，以允许原水自该阀体11D′的该第一开口1101D流入到该阀体11D′的该内腔110D，然后通过该第十一连通通道10011D流入该第三开口1103D，再流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11D′的该第四开口1104D，然后通过该第十三连通通道10013D流入该第六开口1106D，进入该软化箱31的该第一导通开口301，顺流再生该软化箱31中的软化树脂后，从该第二导通开口302流出，然后流经该阀体11D′的该第七开口1107D流入该第十四连通通道10014D′，然后从该平面阀10D′的该排污开口1108D′流出。
值得注意的是，该控制指令，如净化-软化控制指令、软化装置反洗控制指令、软化装置正洗控制指令、补水控制指令、净化装置正洗控制指令、净化装置反洗控制指令、软化滤芯再生控制指令等控制指令，可以被预设在该控制装置16D的控制模块，也可以通过一个电子通讯网络接收自一个控制终端，或者由使用者通过一个输入界面输入。例如，当本发明净化-软化水处理系统被设置具有一个用于该平面阀10D′的输入界面，如触控板或控制按钮时，使用者可通过触控面板或相应的控制按钮向该控制装置16D的控制模块发送上述控制指令，以使该控制装置16D的控制模块控制该 控制装置16D的电机转动，从而通过该传动机构14D驱动该驱动元件18D转动。
如附图之图81和图82、图111A至图111G所示，依本发明第三较佳实施例的净化-软化水处理系统对原水的净化-软化处理被示例性地阐明，其中该净化装置20是一个净化滤芯，其中该净化装置20包括一个壳体21、一个被设置在该壳体21的连接头22和一个被设置在该壳体21内的过滤部23，其中该过滤部23可以是用于超滤过滤的超滤丝、滤网式过滤器或叠片式过滤器、PP棉或其它能够对原水进行过滤的水处理材料或过滤材料。示例性地，如附图之图111A至图111G所示，本发明净化-软化水处理系统的该软化装置30包括一个软化箱31，其中该软化箱31包括一个箱体311、一个集液单元312和一个水软化单元313，其中该箱体311具有一个软化腔3110、一个第一导通开口301和一个第二导通开口302，其中该集液单元312包括一个中心管3121，该水软化单元313适于容纳在该软化腔3110之内，其中该中心管3121适于与该第二导通开口302相连通，其中该中心管3121具有一个高端开口31211和一个低端开口31212，其中箱体311中的液体，如水，适于经该水软化单元313处理后，从该集液单元312的中心管3121的低端开口31212流入该中心管3121和自该中心管3121的高端开口31211流出；优选地，该箱体311中的水软化单元313包括水处理材料，如水软化树脂、具有软化性能的活性炭或其它类似软化材料或其组合。
相应地，如附图之图94A至图94F、图96A至图97G、图110A至图110F、图112A至图113G所示，依本发明第三较佳实施例，本发明进一步提供一种用于平面阀(或流体阀)的阀片组件，其中该阀片组件包括一个定阀片12D和一个动阀片13D，其中该定阀片12D具有一个第一流体控制面120D，该动阀片13D具有一个第二流体控制面130D，其中该动阀片13D的该第二流体控制面130D适于被设置在该定阀片12D的该第一流体控制面120D，且该动阀片13D被设置能够相对该定阀片12D转动，其中该平面阀具有一个第一通道101D，一个第二通道102D，一个第三通道103D，一个第四通道104D、一个第五通道105D、一个第六通道106D、一个第七通道107D、一个第八通道108D、一个第九通道109D、一个第十通道1010D、一个第十一通道1011D和一个第十二通道1012D，其中该第一通道101D、该第二通道102D、该第三通道103D、该第四通道104D、该第五通道105D、该第六通道106D、该第七通道107D、该第八通道108D和该第十二通道1012D分别设于该定阀片12D并分别自该定阀片12D的该第一流体控制面120D延伸；该第九通道109D、该第十通道1010D和该第十一通道1011D分别设于该动阀片13D并分别自该动阀片13D的该第二流体控制面130D延伸。
参考本发明附图之图117至图133G，依本发明第四较佳实施例的净化-软化水处理系统得以阐明，其适用于对原水或待处理水进行净化-软化处理，其中该净化-软化水处理系统包括一个流体阀10E、一个净化装置20E和一个软化装置30E，其中该流体阀10E包括一个阀体11E和一个阀芯1E，其中该阀体11E形成一个内腔110E、一个第一开口1101E、一个第二开口1102E、一个第三开口1103E、一个第四开口1104E、一个第五开口1105E、一个第六开口1106E和一个第七开口1107E，其中该阀芯1E被设置在该内腔110E，其中依本发明第四较佳实施例的该净化-软化水处理系统具有一个第一工作状态、一个第二工作状态、一个第三工作状态、一个第四工作状态和一个第五工作状态，其中当该净化-软化水处理系统处在该第一工作状态时，该流体阀10E形成一个分别与该阀体11E的该第一开口1101E和该第五开口1105E相连通的第一连通通道1001E和一个分别与该阀体11E的该第二开 口1102E和该第七开口1107E相连通的第二连通通道1002E，当该净化-软化水处理系统处在该第二工作状态时，该流体阀10E形成一个分别与该阀体11E的该第一开口1101E和该第七开口1107E相连通的第三连通通道1003E和一个分别与该阀体11E的该第六开口1106E和一个排污开口(或第八开口)1108E相连通的第四连通通道1004E，当该净化-软化水处理系统处在该第三工作状态时，该流体阀10E形成一个分别与该阀体11E的该第一开口1101E和该第六开口1106E相连通的第五连通通道1005E和一个分别与该阀体1E1的该第七开口1107E和该排污开口1108E相连通的第六连通通道1006E，当该净化-软化水处理系统处在该第四工作状态时，该流体阀10E形成一个分别与该阀体11E的该第一开口1101E和该第四开口1104E相连通的第七连通通道1007E，当该净化-软化水处理系统处在该第五工作状态时，该流体阀10E形成一个分别与该阀体11E的该第一开口1101E和该第五开口1105E相连通的第八连通通道1008E和一个分别与该阀体11E的该第六开口1106E和该排污开口1108E相连通的第九连通通道1009E。优选地，依本发明第四较佳实施例的净化-软化水处理系统进一步具有一个第六工作状态和一个第七工作状态，其中当该净化-软化水处理系统处在该第六工作状态时，该流体阀10E形成一个分别与该阀体11E的该第五开口1105E和该排污开口1108E相连通的第十连通通道10010E；当该净化-软化水处理系统处在该第七工作状态时，该流体阀10E形成一个分别与该阀体11E的该第一开口1101E和该第三开口1103E相连通的第十一连通通道10011E。更优选地，当该净化-软化水处理系统处在该第六工作状态时，该流体阀10E进一步形成一个分别与该阀体11E的该第一开口1101E和该第六开口1106E相连通的第十二连通通道10012E，当该净化-软化水处理系统处在该第七工作状态时，该流体阀10E形成一个分别与该阀体11E的该第六开口1106E和该第四开口1104E相连通的第十三连通通道10013E和一个分别与该阀体11E的该第七开口1107E和该平面阀10E的该排污开口1108E相连通的第十四连通通道10014E。
如附图之图117至图133G所示，依本发明第四较佳实施例的净化-软化水处理系统的流体阀10E是一个平面阀，其中该平面阀10E进一步包括一个动阀片13E和一个定阀片12E，该定阀片12E具有一个第一流体控制面120E，该动阀片13E具有一个第二流体控制面130E，其中该动阀片13E和该定阀片12E均被设置在该内腔110E，其中该动阀片13E的该第二流体控制面130E被设置在该定阀片12E的该第一流体控制面120E，且该动阀片13E被设置能够相对该定阀片12E转动，其中该净化装置20具有一个第一连通开口201和一个第二连通开口202，其中该软化装置30包括至少一个软化箱31，其中该软化箱31具有一个第一导通开口301和一个第二导通开口302，其中该阀体11E的该内腔110E与该第一开口1101E相连通，该净化装置20的该第一连通开口201与该阀体11E的该第五开口1105E相连通，该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301均与该阀体11E的该第六开口1106E相连通，该软化箱31的该第二导通开口302与该阀体11E的该第七开口1107E相连通。因此，当该流体阀10E是一个平面阀时，该流体阀10E的该阀芯1E包括该动阀片13E和该定阀片12E。
如附图之图117至图133G所示，依本发明第四较佳实施例的净化-软化水处理系统的该软化装置30进一步包括一个射流器32和一个盐液箱33，其中该射流器32具有一个适于与该阀体11E的该第三开口1103E相连通的射出口321和一个适于与该阀体11E的该第四开口1104E相连通的射入口322， 其中该盐液箱33适于与该射流器32相连通，从而使来自该盐液箱33的盐液能够通过该射流器32和该第四开口1104E，和经该平面阀10E流向该软化装置30的该软化箱31，从而使该软化箱31内的软化树脂得到再生。相应地，当本发明净化-软化水处理系统处于一个软化滤芯吸盐再生工作状态时，原水或待处理水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过一个第十一连通通道10011E流入该第三开口1103E，再流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11E的该第四开口1104E，然后通过一个第十三连通通道10013E流入该第六开口1106E，进入该软化箱31的该第一导通开口301，顺流再生该软化箱31中的水处理材料或机构，如软化树脂后，从该第二导通开口302流出，然后流经该阀体11E的该第七开口1107E流入一个第十四连通通道10014E，然后从该平面阀10E的一个排污开口(或第八开口)1108E流出。可以理解，尽管本发明仅示例性地描述通过射流器32向软化箱31提供盐液方式，然而，盐液也可以通过其它方式或机构经过该平面阀10E的该第四开口1104E被提供给该软化箱31。因此，通过射流器32向软化箱31提供盐液的方式并不应成为本发明的限制。
本领域技术人员能够理解，本发明净化-软化水处理系统的该平面阀10E进一步具有一个被设置在该阀体11E的连接机构，如连接螺纹、卡接接头等，以便于该平面阀10E与该净化-软化水处理系统的其它结构部件，如净化装置20、软化装置30等相连接，以引导水分别流向净化装置20、软化装置30的软化箱31和该平面阀10E形成的各个连通通道。
如附图之图117至图133G所示，依本发明第四较佳实施例的该净化-软化水处理系统具有一个第一工作状态、一个第二工作状态、一个第三工作状态、一个第四工作状态和一个第五工作状态，其中当该净化-软化水处理系统处在该第一工作状态时，该平面阀10E的该动阀片13E和该定阀片12E形成一个分别与该阀体11E的该内腔110E(或该第一开口1101E)和该第五开口1105E相连通的第一连通通道1001E和一个分别与该阀体11E的该第二开口1102E和该第七开口1107E相连通的第二连通通道1002E，当该净化-软化水处理系统处在该第二工作状态时，该平面阀10E的该动阀片13E和该定阀片12E形成一个分别与该阀体11E的该内腔110E(或该第一开口1101E)和该第七开口1107E相连通的第三连通通道1003E和一个分别与该阀体11E的该第六开口1106E和该平面阀10E的该排污开口1108E相连通的第四连通通道1004E，当该净化-软化水处理系统处在该第三工作状态时，该平面阀10E的该动阀片13E和该定阀片12E形成一个分别与该阀体11E的该内腔110E(或该第一开口1101E)和该第六开口1106E相连通的第五连通通道1005E和一个分别与该阀体11E的该第七开口1107E和该平面阀10E的该排污开口1108E相连通的第六连通通道1006E，当该净化-软化水处理系统处在该第四工作状态时，该平面阀10E的该动阀片13E和该定阀片12E形成一个分别与该阀体11E的该内腔110E(或该第一开口1101E)和该第四开口1104E相连通的第七连通通道1007E，当该净化-软化水处理系统处在该第五工作状态时，该平面阀10E的该动阀片13E和该定阀片12E形成一个分别与该阀体11E的该内腔110E(或该第一开口1101E)和该第五开口1105E相连通的第八连通通道1008E和一个分别与该阀体11E的该第六开口1106E和该平面阀10E的该排污开口1108E相连通的第九连通通道1009E。
如附图之图117至图133G所示，当依本发明第四较佳实施例的净化-软化水处理系统处在该第一工作状态时，该平面阀10E形成的该第一连通通道1001E分别与该阀体11E的该内腔110E(或该第一开口1101E)和该第五开口1105E相连通，该第二连通通道1002E分别与该阀体11E的该第二开口1102E和该第七开口1107E相连通，从而允许原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该平面阀10E形成的该第一连通通道1001E、该阀体11E的该第五开口1105E、该净化装置20的该第一连通开口201流入该净化装置20，原水经过该净化装置20净化处理后得到的净水从该净化装置20的该第二连通开口202流出，净水可经该软化箱31的该第一导通开口301流入该软化箱31，并经软化处理后得到软化水，软化水从该软化箱31的该第二导通开口302流出，然后经该阀体11E的该第七开口1107E、该平面阀10E的该第二连通通道1002E，最后经该阀体11E的该第二开口1102E流出和向用户供应软化水。优选地，该净化装置20的该第二连通开口202与一个供水出口401(或供水通路400)相连通，从而向使用者提供净水。因此，当该净化-软化水处理系统处在该第一工作状态时，本发明净化-软化水处理系统可同时向使用者提供净水和软化水。相应地，该净化-软化水处理系统的该第一工作状态对应于该净化-软化水处理系统的净化-软化工作状态。因此，当该净化-软化水处理系统处在该第一工作状态时，该阀体11E的该第一开口1101E(或该阀体11E的该内腔110E)、该阀体11E的该第五开口1105E、该净化装置20的该第一连通开口201、该净化装置20的该第二连通开口202、该软化装置30的该软化箱31的该第一导通开口301、该软化装置30的该软化箱31的该第二导通开口302、该阀体11E的该第七开口1107E和该阀体11E的该第二开口1102E被依次连通，从而形成一个将该净化装置20和该软化装置30串联在一起的水流通路，以使原水能够自该净化装置20流向该软化装置30和使原水依次被净化和软化处理。
如附图之图117至图133G所示，当依本发明第四较佳实施例的净化-软化水处理系统处在该第二工作状态时，该平面阀10E形成的该第三连通通道1003E分别与该阀体11E的该内腔110E(或该第一开口1101E)和该第七开口1107E相连通，该第四连通通道1004E分别与该阀体11E的该第六开口1106E和该平面阀10E的该排污开口1108E相连通，从而允许原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该平面阀10E形成的该第三连通通道1003E流入该第七开口1107E，再经该软化箱31的该第二导通开口302流入该软化箱31，和对该软化箱31中的软化材料(或水处理材料)，如软化树脂等，反向冲洗后，得到的污水或废水从该软化箱31的该第一导通开口301流出，然后流经该阀体11E的该第六开口1106E流入该平面阀10E的该第四连通通道1004E，然后从该平面阀10E的该排污开口1108E流出。换句话说，当该净化-软化水处理系统处在该第二工作状态时，本发明净化-软化水处理系统可控制对软化滤芯，如软化箱31进行反向冲洗。相应地，该净化-软化水处理系统的该第二工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)反洗工作状态。
如附图之图117至图133G所示，当依本发明第四较佳实施例的净化-软化水处理系统处在该第三工作状态时，该平面阀10E形成的该第五连通通道1005E分别与该阀体11E的该内腔110E(或该第一开口1101E)和该第六开口1106E相连通，该第六连通通道1006E分别与该阀体11E的该第七开口1107E和该平面阀10E的该排污开口1108E相连通，从而允许原水自该阀体11E的该第一开口1101E 流入到该阀体11E的该内腔110E，然后通过该第五连通通道1005E流入该第六开口1106E，再进入该软化箱31的该第一导通开口301，对该软化箱31中的水处理材料或机构正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11E的该第七开口1107E流入该第六连通通道1006E，然后从该平面阀10E的该排污开口1108E流出。换句话说，当该净化-软化水处理系统处在该第三工作状态时，本发明净化-软化水处理系统可控制对软化滤芯，如软化箱31进行正向冲洗。相应地，该净化-软化水处理系统的该第三工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)正洗工作状态。
如附图之图117至图133G所示，当依本发明第四较佳实施例的净化-软化水处理系统处在该第四工作状态时，该平面阀10E形成的该第七连通通道1007E分别与该阀体11E的该内腔110E(或该第一开口1101E)和该第四开口1104E相连通，从而允许原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该第七连通通道1007E流入该第四开口1104E，再流入该射流器32的该射入口322，向盐液箱33补水。换句话说，当该净化-软化水处理系统处在该第四工作状态时，本发明净化-软化水处理系统可控制向盐液箱33补水。相应地，该净化-软化水处理系统的该第四工作状态对应于该净化-软化水处理系统的盐液箱补水工作状态。
如附图之图117至图133G所示，当依本发明第四较佳实施例的净化-软化水处理系统处在该第五工作状态时，该平面阀10E形成的该第八连通通道1008E分别与该阀体11E的该内腔110E(或该第一开口1101E)和该第五开口1105E相连通，该第九连通通道1009E分别与该阀体11E的该第六开口1106E和该平面阀10E的该排污开口1108E相连通，从而允许原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该第八连通通道1008E流入该第五开口1105E，再进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11E的该第六开口1106E流入该第九连通通道1009E，然后从该平面阀10E的该排污开口1108E流出。换句话说，当该净化-软化水处理系统处在该第五工作状态时，本发明净化-软化水处理系统可控制对净化装置20进行正向冲洗。相应地，该净化-软化水处理系统的该第五工作状态对应于该净化-软化水处理系统的净化装置正洗工作状态。
如附图之图117至图133G所示，依本发明第四较佳实施例的净化-软化水处理系统进一步具有一个第六工作状态和一个第七工作状态，其中当该净化-软化水处理系统处在该第六工作状态时，该平面阀10E的该动阀片13E和该定阀片12E形成一个分别与该阀体11E的该第五开口1105E和该平面阀10E的该排污开口1108E相连通的第十连通通道10010E；当该净化-软化水处理系统处在该第七工作状态时，该平面阀10E的该动阀片13E和该定阀片12E形成一个分别与该阀体11E的该内腔110E(或该第一开口1101E)和该第三开口1103E相连通的第十一连通通道10011E。优选地，当该净化-软化水处理系统处在该第六工作状态时，该平面阀10E的该动阀片13E和该定阀片12E进一步形成一个分别与该阀体11E的该内腔110E(或该第一开口1101E)和该第六开口1106E相连通的第十二连通通道10012E，当该净化-软化水处理系统处在该第七工作状态时，该平面阀10E的该动阀片13E和该定阀片12E形成一个分别与该阀体11E的该第六开口1106E和该第四开口1104E相连通的第十三连通通道10013E和一个分别与该阀体11E的该第七开口1107E和该平面阀10E的该排污开口1108E相连通 的第十四连通通道10014E。
如附图之图117至图133G所示，当依本发明第四较佳实施例的净化-软化水处理系统处在该第六工作状态时，该平面阀10E形成的该第十连通通道10010E分别与该阀体11E的该第五开口1105E和该平面阀10E的该排污开口1108E相连通，该第十二连通通道10012E分别与该阀体11E的该内腔110E(或该第一开口1101E)和该第六开口1106E相连通，从而允许原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该第十二连通通道10012E流入该第六开口1106E，再进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11E的该第五开口1105E流入该第十连通通道10010E，然后从该平面阀10E的该排污开口1108E流出；当依本发明第四较佳实施例的净化-软化水处理系统处在该第七工作状态时，该平面阀10E形成的该第十一连通通道10011E分别与该阀体11E的该内腔110E(或该第一开口1101E)和该第三开口1103E相连通，该第十三连通通道10013E分别与该阀体11E的该第六开口1106E和该第四开口1104E相连通，该第十四连通通道10014E分别与该阀体11E的该第七开口1107E和该平面阀10E的该排污开口1108E相连通，从而允许原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该第十一连通通道10011E流入该第三开口1103E，再流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11E的该第四开口1104E，然后通过该第十三连通通道10013E流入该第六开口1106E，进入该软化箱31的该第一导通开口301，顺流再生该软化箱31中的软化树脂后，从该第二导通开口302流出，然后流经该阀体11E的该第七开口1107E流入该第十四连通通道10014E，然后从该平面阀10E的该排污开口1108E流出。相应地，该净化-软化水处理系统的该第六工作状态对应于该净化-软化水处理系统的净化装置反洗工作状态，该净化-软化水处理系统的该第七工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)再生工作状态。
如附图之图122E和图133A至图133G所示，进一步地，当依本发明第四较佳实施例的净化-软化水处理系统处在该第二工作状态、该第三工作状态、该第四工作状态、该第五工作状态、该第六工作状态和该第七工作状态时，该平面阀10E的该动阀片13E和该定阀片12E形成一个分别与该阀体11E的该第二开口1102E和该内腔110E相连通的第十五连通通道10015E，从而使得当该净化-软化水处理系统处在该第二工作状态、该第三工作状态、该第四工作状态、该第五工作状态、该第六工作状态和该第七工作状态时，允许原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该第十五连通通道10015E流入该阀体11E的该第二开口1102E，和在该第二工作状态、该第三工作状态、该第四工作状态、该第五工作状态、该第六工作状态和该第七工作状态向使用者提供原水。
相应地，如附图之图123A至图133G所示，依本发明第四较佳实施例的净化-软化水处理系统的该流体阀(或平面阀)10E具有一个第一工作位、一个第二工作位、一个第三工作位、一个第四工作位、一个第五工作位、一个第六工作位和一个第七工作位，其中当该流体阀(或平面阀)10E处在该第一工作位时，该流体阀10E的该阀芯1E形成该第一连通通道1001E和该第二连通通道1002E，当该流体阀(或平面阀)10处在该第二工作位时，该流体阀10E的该阀芯1E形成该第三连通通道 1003E和该第四连通通道1004E，当该流体阀(或平面阀)10E处在该第三工作位时，该流体阀10E的该阀芯1E形成该第五连通通道1005E和该第六连通通道1006E，当该流体阀(或平面阀)10E处在该第四工作位时，该流体阀10E的该阀芯1E形成该第七连通通道1007E，当该流体阀(或平面阀)10E处在该第五工作位时，该流体阀10E的该阀芯1E形成该第八连通通道1008E和该第九连通通道1009E；当该流体阀(或平面阀)10E处在该第六工作位时，该流体阀10E的该阀芯1E形成该第十连通通道10010E；当该流体阀(或平面阀)10E处在该第七工作位时，该流体阀10E的该阀芯1E形成该第十一连通通道10011E。更优选地，当该流体阀(或平面阀)10E处在该第六工作位时，该流体阀10E的该阀芯1E进一步形成该第十二连通通道10012E，当该流体阀(或平面阀)10E处在该第七工作位时，该流体阀10E的该阀芯1E进一步形成该第十三连通通道10013E和该第十四连通通道10014E。进一步地，当依本发明第四较佳实施例的净化-软化水处理系统的该流体阀(或平面阀)10E处在该第二工作位、该第三工作位、该第四工作位、该第五工作位、该第六工作位和该第七工作位时，该流体阀10E的该阀芯1E形成该第十五连通通道10015E。
如附图之图117和图118、图131A至图131G所示，依本发明第四较佳实施例的净化-软化水处理系统进一步具有一个供水单元40，其中该供水单元40形成一个供水通路400，其中该供水通路400被设置与该净化装置20的该第二连通开口202相连通，以向使用者提供净水。如附图之图131A至图131G所示，该供水单元40包括一个供水管道(或供水管)41和一个流体阀42，其中该流体阀42被设置在该供水管道41，以控制向使用者提供净水。可以理解，该供水管道41形成该供水出口401。优选地，该流体阀42是一个电动球阀或电动平面阀，以便于使用者通过一个控制装置16E自动控制净水的提供。因此，该净化装置20的该第二连通开口202分别与该平面阀10E的该第六开口1106E、该软化箱31的该第一导通开口301和该供水通路400(或该供水出口401)相连通。此外，该平面阀10E的该第六开口1106E进一步与该软化箱31的该第一导通开口301相连通。
如附图之图130A至图133G所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E具有一个第一通道101E，一个第二通道102E，一个第三通道103E，一个第四通道104E、一个第五通道105E、一个第六通道106E、一个第七通道107E、一个第八通道108E、一个第九通道109E、一个第十通道1010E、一个第十一通道1011E和一个第十二通道1012E，其中该第一通道101E、该第二通道102E、该第三通道103E、该第四通道104E、该第五通道105E、该第六通道106E、该第七通道107E、该第八通道108E和该第十二通道1012E分别设于该定阀片12E并分别自该定阀片12E的该第一流体控制面120E延伸；该第九通道109E、该第十通道1010E和该第十一通道1011E分别设于该动阀片13E并分别自该动阀片13E的该第二流体控制面130E延伸，该第一通道101E和该第二通道102E分别与该第五开口1105E相连通，该第三通道103E和该第四通道104E分别与该第七开口1107E相连通，该第五通道105E与该第二开口1102E相连通，该第六通道106E与该第三开口1103E相连通，该第七通道107E与该第四开口1104E相连通，该第八通道108E和该第十二通道1012E分别与该第六开口1106E相连通，该第九通道109E与该阀体11E的该内腔110E相连通，该第十一通道1011E与该排污开口1108E相连通。优选地，该排污开口1108E被设置在该平面阀10E的该阀体11E，且该排污开口1108E通过一个排污通道150E与该第十一通道1011E相连通。因此，可选地，该平面阀10E的该排 污开口1108E形成在该动阀片13E，且该平面阀10E的该排污开口1108E分别与该第十一通道1011E和该排污通道150E相连通。可以理解，本发明该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301与该阀体11E的该第六开口1106E的连通可通过多种方式实现。如附图之图122A所示，该阀体11E的该第六开口1106E可通过一个分别与该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301相连通的连通管路(或三通管路)实现该净化装置20的该第二连通开口202、该软化箱31的该第一导通开口301和该阀体11的该第六开口1106之间的连通。可选地，该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301与该阀体11的该第六开口1106的连通也可通过被设置在该阀体11E的连通通路实现，其中该连通通路可被设置分别与该净化装置20的该第二连通开口202和该阀体11E的该第六开口1106E相连通，和分别与该软化箱31的该第一导通开口301和该阀体11E的该第六开口1106E相连通。因此，该阀体11E的该第八通道108E(或该第十二通道1012E)、该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301通过该阀体11E的该第六开口1106E形成一个三通结构。此外，为了确保该阀体11E的该内腔110E中的水进入该第九通道109E，该第九通道109E被设置可通过一个始终与外部空间相连通的进水口1091E保持始终与该阀体11E的该内腔110E相连通。
值得注意的是，该平面阀10E的该第一通道101E和该第二通道102E分别与该第五开口1105E的连通，可以是分别地和独自地与该第五开口1105E相连通，也可以通过一个流体通道相连通；该平面阀10E的该第三通道103E和该第四通道104E分别与该第七开口1107E的连通，可以是分别地和独自地与该第七开口1107E相连通，也可以通过一个流体通道相连通。例如，如附图之图119至图133G所示，该平面阀10E的该第一通道101E和该第二通道102E通过一个第一流体通道1211E相连通，该第二通道102E被设置直接与该第五开口1105E相连通，从而使该第一通道101E通过该第一流体通道1211E和该第二通道102E，也与该第五开口1105E相连通；该平面阀10E的该第三通道103E和该第四通道104E分别单独地与该第七开口1107E相连通。可选地，如附图之图134A和图134B所示，该第一通道101E被设置直接与该第五开口1105E相连通，该第二通道102E通过该第一流体通道1211E和该第一通道101E，也与该第五开口1105E相连通。或者可选地，该平面阀10E的该第一通道101E和该第二通道102E可分别地和独自地与该第五开口1105E相连通；或者可选地，如附图之图134C所示，该平面阀10E的该第三通道103E和该第四通道104E通过一个第二流体通道1212E相连通，该第三通道103E被设置直接与该第七开口1107E相连通，从而使该第四通道104E通过该第二流体通道1212E和该第三通道103E，也与该第七开口1107E相连通；或者可选地，如附图之图134D所示，该平面阀10E的该第三通道103E和该第四通道104E通过一个第二流体通道1212E相连通，该第四通道104E被设置直接与该第七开口1107E相连通，从而使该第三通道103E通过该第二流体通道1212E和该第四通道104E，也与该第七开口1107E相连通。可以理解，进一步地，该第一流体通道1211E和该第二流体通道1212E可被设置在该定阀片12E的该第一流体控制面120E，也可被设置在该阀体11E或该定阀片12E的内部。可以理解，该平面阀10E的该第一通道101E和该第二通道102E与该第五开口1105E的连通，和该平面阀10E的该第三通道103E和该第四通道104E与该第七开口1107E的连通，也可以是通过其它方式的连通。同样地，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E 的该第八通道108E和该第十二通道1012E分别与该第六开口1106E的连通，可以是分别地和独自地与该第六开口1106E相连通，也可以通过一个流体通道相连通。
如附图之图133A至图133G所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E的该动阀片13E能够相对定阀片12E转动从而使得该平面阀10E具有一个第一工作位，一个第二工作位，一个第三工作位，一个第四工作位和一个第五工作位，其中当平面阀10E处于该第一工作位时，该平面阀10E的该第九通道109E与该第一通道101E相连通，该第十通道1010E分别与该第三通道103E和该第五通道105E相连通；当该平面阀10E处于该第二工作位时，该平面阀10E的该第九通道109E与该第四通道104E相连通，该第十一通道1011E与该第八通道108E相连通，该第五通道105E与该阀体11E的该内腔110E相连通；当该平面阀10E处于该第三工作位时，该平面阀10E的该第九通道109E与该第八通道108E相连通，该平面阀10E的该第十一通道1011E与该第三通道103E相连通，该第五通道105E与该阀体11E的该内腔110E相连通；当该平面阀10E处于该第四工作位时，该平面阀10E的该第九通道109E与该第七通道107E相连通，该第五通道105E与该阀体11E的该内腔110E相连通；当该平面阀10E处于该第五工作位时，该平面阀10E的该第九通道109E与该第二通道102E相连通，该平面阀10E的该第十一通道1011E与该第八通道108E相连通，该第五通道105E与该阀体11E的该内腔110E相连通。
如附图之图133A至图133G所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E进一步具有一个第六工作位和一个第七工作位，其中当该平面阀10E处于该第六工作位时，该平面阀10E的该第十一通道1011E与该第一通道101E相连通，该第五通道105E与该阀体11E的该内腔110E相连通；当平面阀10E处于该第七工作位时，该平面阀10E的该第九通道109E与该第六通道106E相连通，该第五通道105E与该阀体11E的该内腔110E相连通。
可以理解，当该平面阀10E处于该第一工作位时，依本发明第四较佳实施例的净化-软化水处理系统被控制处在该净化-软化工作状态，该平面阀10E的该第九通道109E与该第一通道101E相连通，从而形成该第一连通通道1001E，该第十通道1010E分别与该第三通道103E和该第五通道105E相连通，从而形成该第二连通通道1002E；当该平面阀10E处于该第二工作位时，依本发明第四较佳实施例的净化-软化水处理系统被控制处在该软化滤芯(软化装置)反洗工作状态，该平面阀10E的该第九通道109E与该第四通道104E相连通，从而形成该第三连通通道1003E，该第十一通道1011E与该第八通道108E相连通，从而形成该第四连通通道1004E；当该平面阀10E处于该第三工作位时，依本发明第四较佳实施例的净化-软化水处理系统被控制处在该软化滤芯(软化装置)正洗工作状态，该平面阀10E的该第九通道109E与该第八通道108E相连通，从而形成该第五连通通道1005E，该平面阀10E的该第十一通道1011E与该第三通道103E相连通，从而形成该第六连通通道1006E；当该平面阀10E处于该第四工作位时，依本发明第四较佳实施例的净化-软化水处理系统被控制处在该盐液箱补水工作状态，该平面阀10E的该第九通道109E与该第七通道107E相连通，从而形成该第七连通通道1007E；该平面阀10E处于该第五工作位时，依本发明第四较佳实施例的净化-软化水处理系统被控制处在该净化装置正洗工作状态时，该平面阀10E的该第九通道109E与该第二通道102E相连通，从而形成该第八连通通道1008E，该平面阀10E的该第十一通道1011E与该第八通道108E 相连通，从而形成该第九连通通道1009E。进一步地，当该平面阀10E处于该第六工作位时，依本发明第四较佳实施例的净化-软化水处理系统被控制处在该净化装置反洗工作状态，该平面阀10E的该第十一通道1011E与该第一通道101E相连通，从而形成该第十连通通道10010E；当该平面阀10E处于该第七工作位时，依本发明第四较佳实施例的净化-软化水处理系统被控制处在该软化滤芯再生工作状态，该平面阀10E的该第九通道109E与该第六通道106E相连通，从而形成该第十一连通通道10011E。更进一步地，当该平面阀10E处于该第六工作位时，该第九通道109E与该第八通道108E相连通，从而形成该第十二连通通道10012E，当该平面阀10E处于该第七工作位时，该第十通道1010E分别与该第七通道107E和该第十二通道1012E相连通，从而形成该第十三连通通道10013E，该第十一通道1011E与该第四通道104E相连通，从而形成该第十四连通通道10014E。可以理解，该第十一通道1011E可以是一个被设置在该动阀片13E的通孔，其中该第十一通道1011E自该动阀片13E的该第二流体控制面130E向上延伸至其相对的另一面，从而在相应的工作位将污水或废水向上排出至该排污通道150E。可以理解，当该平面阀10E处于该第一工作位时，该平面阀10E的该第十通道1010E分别与该第三通道103E和该第五通道105E相连通，且该平面阀10E的该动阀片13E将该第五通道105E与该阀体11E的该内腔110E相隔开，以防止该阀体11E的该内腔110E内的原水进入该第五通道105E。
如附图之图122E、图131A至图133G所示，进一步地，当依本发明第四较佳实施例的净化-软化水处理系统处在该第二工作位、该第三工作位、该第四工作位、该第五工作位、该第六工作位和该第七工作位时，该平面阀10E的该定阀片12E的该第五通道105E与该阀体11E的该内腔110E相连通，从而形成该第十五连通通道10015E。相应地，当依本发明第四较佳实施例的净化-软化水处理系统处在该第二工作位、该第三工作位、该第四工作位、该第五工作位、该第六工作位和该第七工作位时，原水被允许自该阀体11E的该第一开口1101E流入该阀体11E的该内腔110E，并进一步自该阀体11E的该内腔110E通过该定阀片12E的该第五通道105E流向该阀体11E的该第二开口1102E。
如附图之图123A至图133G所示，相应地，当该平面阀10E处于第一工作位时，该水处理机处于净化-软化工作状态，原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该动阀片13E的该第九通道109E流入该定阀片12E的该第一通道101E，然后通过该阀体11E的该第五开口1105E进入该净化装置20的该第一连通开口201，经过该净化装置20的水处理材料或机构处理后，从该净化装置20的该第二连通开口202流出，然后流入该软化箱31的该第一导通开口301，经过该软化箱31内的软化树脂处理后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11E的该第七开口1107E进入该定阀片12E的该第三通道103E，经过该动阀片13E的该第十通道1010E导流进入该定阀片12E的该第五通道105E，然后经过该阀体11E的该第二开口1102E向用户供应处理后水；当该平面阀10E处于第二工作位时，该水处理机处于该软化滤芯(软化装置)反洗工作状态，原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该动阀片13E的该第九通道109E流入该定阀片12E的该第四通道104E，然后通过该阀体11E的该第七开口1107E进入该软化箱31的该第二导通开口302，对该软化箱31中的软化树脂反向冲洗后，从该软化箱31的该第一导通开口301流出，然后流经该阀体11E的该第六开口1106E，再流经该定阀片12E的 该第八通道108E和该动阀片13E的该第十一通道1011E，再从该平面阀10E的该排污开口1108E流出，同时原水还能够通过该定阀片12E的该第五通道105E流向该阀体11E的该第二开口1102E；当该平面阀10E处于第三工作位时，该水处理机处于该软化滤芯(软化装置)正洗工作状态，原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该动阀片13E的该第九通道109E流入该定阀片12E的该第八通道108E，然后通过该阀体11E的该第六开口1106E进入该软化箱31的该第一导通开口301，对该软化箱31中的软化树脂正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11E的该第七开口1107E，再流经该定阀片12E的该第三通道103E和该动阀片13E的该第十一通道1011E，再从该平面阀10E的该排污开口1108E流出，同时原水还能够通过该定阀片12E的该第五通道105E流向该阀体11E的该第二开口1102E；当该平面阀10E处于第四工作位时，该水处理机处于该盐液箱补水工作状态，原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该动阀片13E的该第九通道109E流入该定阀片12E的该第七通道107E，然后流经该阀体11E的该第四开口1104E流入该射流器32的该射入口322，向盐液箱33补水，同时原水还能够通过该定阀片12E的该第五通道105E流向该阀体11E的该第二开口1102E；当该平面阀10E处于第五工作位时，该水处理机处于该净化装置正洗工作状态，原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该动阀片13E的该第九通道109E流入该定阀片12E的该第二通道102E，然后通过该阀体11E的该第五开口1105E进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11E的该第六开口1106E，进入该定阀片12E的该第八通道108E，再流经该动阀片13E的该第十一通道1011E从该平面阀10E的该排污开口1108E流出，同时原水还能够通过该定阀片12E的该第五通道105E流向该阀体11E的该第二开口1102E。进一步地，当该平面阀10E处于第六工作位时，该水处理机处于净化装置反洗工作状态，原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该动阀片13E的该第九通道109E流入该定阀片12E的该第八通道108E，然后通过该阀体11E的该第六开口1106E进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11E的该第五开口1105E，进入该定阀片12E的该第一通道101E，再流经该动阀片13E的该第十一通道1011E从该平面阀10E的该排污开口1108E流出，同时原水还能够通过该定阀片12E的该第五通道105E流向该阀体11E的该第二开口1102E；当该平面阀10E处于第七工作位时，该水处理机处于该软化滤芯再生工作状态，原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该动阀片13E的该第九通道109E流入该定阀片12E的该第六通道106E，然后通过该阀体11E的该第三开口1103E流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11E的该第四开口1104E，然后进入该定阀片12E的该第七通道107E，再经过动阀片13E的该第十通道1010E导流进入该定阀片12E的该第十二通道1012E，然后流经该阀体11E的该第六开口1106E进入该软化箱31的该第一导通开口301，顺流再生该软化箱31中的如软化树脂后，从该第二导通开口302流出，然后流经该阀体11E的该第七开口1107E进入该定阀片12E的该第四通道104E，再通过该动阀片13E的该第十一通道1011E，从该平面 阀10E的该排污开口1108E流出，同时原水还能够通过该定阀片12E的该第五通道105E流向该阀体11E的该第二开口1102E。
如附图之图133A至图133G所示，优选地，当平面阀10E处于第一工作位时，该平面阀10E的该第二通道102E、该第四通道104E、该第八通道108E和该第十二通道1012E被该动阀片13E封闭；当平面阀10E处于第二工作位时，该平面阀10E的该第一通道101E、该第三通道103E和该第十二通道1012E被该动阀片13E封闭；当平面阀10E处于第三工作位时，该平面阀10E的该第二通道102E、该第四通道104E和该第十二通道1012E被该动阀片13E封闭；当平面阀10E处于第四工作位时，该平面阀10E的该第六通道106E被该动阀片13E封闭；当平面阀10E处于第五工作位时，该平面阀10E的该第一通道101E、该第三通道103E、该第四通道104E和该第十二通道1012E被该动阀片13E封闭；当平面阀10E处于第六工作位时，该平面阀10E的该第二通道102E、该第三通道103E、该第四通道104E和该第十二通道1012E被该动阀片13E封闭；当平面阀10E处于第七工作位时，该平面阀10E的该第一通道101E、该第二通道102E、该第三通道103E和该第八通道108E被该动阀片13E封闭。
如附图之图133A至图133G所示，更优选地，当平面阀10E处于第二工作位时，该平面阀10E的该第六通道106E和该第七通道107E分别被该动阀片13E封闭；当平面阀10E处于第三工作位时，该平面阀10E的该第六通道106E和该第七通道107E分别被该动阀片13E封闭，该第十通道1010E分别与该第一通道101E和该第八通道108E相连通；当平面阀10E处于第四工作位时，该平面阀10E的该第一通道101E和该第三通道103E分别被该动阀片13E封闭；当平面阀10E处于第五工作位时，该平面阀10E的该第六通道106E和该第七通道107E分别被该动阀片13E封闭；当平面阀10E处于第六工作位时，该平面阀10E的该第六通道106E和该第七通道107E分别被该动阀片13E封闭，该平面阀10E的该第十通道1010E与该第八通道108E相连通。
如附图之图133A至图133G所示，最优选地，当平面阀10E处于第一工作位时，该平面阀10E的该第六通道106E和该第七通道107E分别被该动阀片13E封闭，该第十一通道1011E被该定阀片12E封闭；当平面阀10E处于第二工作位时，该平面阀10E的该第十通道1010E分别与该第二通道102E和该第八通道108E相连通；当平面阀10E处于第四工作位时，该平面阀10E的该第十通道1010E分别与该第四通道104E和该第十二通道1012E相连通，该第十一通道1011E与该第二通道102E相连通，该第八通道108E被该动阀片13E封闭；当平面阀10E处于第五工作位时，该平面阀10E的该第十通道1010E与该第八通道108E相连通。
值得注意的是该平面阀10E的该第一通道101E、该第二通道102E、该第三通道103E、该第四通道104E、该第五通道105E、该第六通道106E、该第七通道107E、该第八通道108E和该第十二通道1012E分别相隔开地设于该定阀片12E的该第一流体控制面120E；该第九通道109E、该第十通道1010E和该第十一通道1011E分别相隔开地设于该动阀片13E的该第二流体控制面130E。换句话说，该平面阀10E的该第一通道101E、该第二通道102E、该第三通道103E、该第四通道104E、该第五通道105E、该第六通道106E、该第七通道107E、该第八通道108E和该第十二通道1012E分别形成一个被设置在该定阀片12E的该第一流体控制面120E的通道开口，该第九通道109E、该第十通道1010E和该第十一通道1011E分别形成一个被设置在该动阀片13E的该第二流体控制面130E的通道 开口，当该平面阀10E的该动阀片13E被面(该第二流体控制面130E)对面(该第一流体控制面120E)设置，且该动阀片13E相对该定阀片12E转动时，被设置在该动阀片13E的通道和被设置在该定阀片12E的通道通过相应的通道开口选择性地相连通，从而形成相应的连通通道和控制流体(如水流)的流动方向。
可以理解，该平面阀10E的该第一通道101E、该第二通道102E、该第三通道103E、该第四通道104E、该第五通道105E、该第六通道106E、该第七通道107E、该第八通道108E、该第九通道109E、该第十通道1010E、该第十一通道1011E和该第十二通道1012E可具有任何能够实现本文中相互连通关系的延伸路径(或方向)；该平面阀10E的该第一通道101E、该第二通道102E、该第三通道103E、该第四通道104E、该第五通道105E、该第六通道106E、该第七通道107E、该第八通道108E和该第十二通道1012E分别形成在该定阀片12E的该第一流体控制面120E的通道开口，和该第九通道109E、该第十通道1010E和该第十一通道1011E分别形成在该动阀片13的该第二流体控制面130E的通道开口，可具有任何能够实现本文中相互连通关系的形状。例如，该第八通道108E形成在该定阀片12E的该第一流体控制面120E的通道开口可被设置具有一个规则形状，也可被设置为具有一个不规则形状。因此，该平面阀10E的该第一通道101E、该第二通道102E、该第三通道103E、该第四通道104E、该第五通道105E、该第六通道106E、该第七通道107E、该第八通道108E、该第九通道109E、该第十通道1010E、该第十一通道1011E和该第十二通道1012E的延伸路径(或方向)和其通道开口的形状不应成为对本发明的限制。
如附图之图132A至图132D所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E的该第一通道101E、该第八通道108E、该第二通道102E、该第四通道104E、该第十二通道1012E、该第七通道107E、该第六通道106E、该第五通道105E和该第三通道103E以此顺序顺时针地排布在该定阀片12E；该平面阀10E的该第十一通道1011E、该第十通道1010E和该第九通道109E以此顺序顺时针地排布在该动阀片13E。可选地，该平面阀10E的该第一通道101E、该第八通道108E、该第二通道102E、该第四通道104E、该第十二通道1012E、该第七通道107E、该第六通道106E、该第五通道105E和该第三通道103E以此顺序逆时针地排布在该定阀片12E；该平面阀10E的该第十一通道1011E、该第十通道1010E和该第九通道109E以此顺序逆时针地排布在该动阀片13E。
如附图之图132A至图132D所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E的该定阀片12E具有一个第一中心部121E、一个自该第一中心部121E向外延伸的第一延伸部122E和一个自该第一延伸部122E向外延伸的第一边缘部123E，该动阀片13E具有一个第二中心部131E、一个自该第二中心部131E向外延伸的第二延伸部132E和一个自该第二延伸部132E向外延伸的第二边缘部133E，其中该定阀片12E的该第一流体控制面120E具有一个图中点划线所示的中心部分1200E，其中该中心部分1200E被设于该定阀片12E的该第一中心部121E，且该第一流体控制面120E的中心部分1200E之外的部分被顺时针等分为点划线所示的一个第一部分1201E、一个第二部分1202E、一个第三部分1203E、一个第四部分1204E、一个第五部分1205E、一个第六部分1206E、一个第七部分1207E、一个第八部分1208E、一个第九部分1209E、一个第十部分12010E和一个第十一部分12011E；该平面阀10E的动阀片13E的该第二流体控制面130E具有一个图中点划线所示的中 心区域1300E，其中该中心区域1300E设于该动阀片13E的该第二中心部131E，且该第二流体控制面130E的该中心区域1300E之外的部分被顺时针等分为点划线所示的一个第一区域1301E、一个第二区域1302E、一个第三区域1303E、一个第四区域1304E、一个第五区域1305E、一个第六区域1306E、一个第七区域1307E、一个第八区域1308E、一个第九区域1309E、一个第十区域13010E和一个第十一区域13011E；其中该第一通道101E自该第一流体控制面120E的该第一部分1201E向下延伸；该第八通道108E自该定阀片12E的该第一流体控制面120E的该第二部分1202E、该第三部分1203E和该第四部分1204E向下延伸；该第二通道102E自该定阀片12E的该第一流体控制面120E的该第五部分1205E向下延伸；该第四通道104E自该定阀片12E的该第一流体控制面120E的该第六部分1206E向下延伸；该第十二通道1012E自该定阀片12E的该第一流体控制面120E的该第七部分1207E向下延伸；该第七通道107E自该第一流体控制面120E的该第八部分1208E向下延伸；该第六通道106E自该第一流体控制面120E的该第九部分1209E向下延伸；该第五通道105E自该第一流体控制面120E的该第十部分12010E向下延伸；该第三通道103E自该第一流体控制面120E的该第十一部分12011E向下延伸；该第九通道109E自该第二流体控制面130E的该第一区域1301E向上延伸；该第十一通道1011E自该第二流体控制面130E的该第九区域1309E向上延伸；该第十通道1010E自该第二流体控制面130E的该第十区域13010E和该第十一区域13011E向上延伸。
可以理解，当该动阀片13E的该第二流体控制面130E被设置在该定阀片12E的该第一流体控制面120E时，该动阀片13E的该第二流体控制面130E的该第二中心部131E正对该定阀片12E的该第一流体控制面120E的该第一中心部121E，该动阀片13E的该第二流体控制面130E的该第二延伸部132E正对该定阀片12E的该第一流体控制面120E的该第一延伸部122E，该动阀片13E的该第二流体控制面130E的该第二边缘部133E正对该定阀片12E的该第一流体控制面120E的该第一边缘部123E。
可选地，该平面阀10E的定阀片12E的第一流体控制面120E和动阀片13E的该第二流体控制面130E均为圆形，该第一通道101E、该第二通道102E、该第三通道103E、该第四通道104E、该第五通道105E、该第六通道106E、该第七通道107E、该第八通道108E和该第十二通道1012E均沿径向设于该定阀片12E的该第一流体控制面120E，且该第九通道109E和该第十通道1010E均沿径向设于该动阀片13E的该第二流体控制面130E。
如附图之图132A至图132D所示，优选地，该平面阀10E的该第一通道101E、该第二通道102E、该第三通道103E、该第四通道104E、该第六通道106E、该第七通道107E、该第八通道108E和该第十二通道1012E分别被设置在该定阀片12E的该第一流体控制面120E的该第一延伸部122E，该第五通道105E被设置在该第一流体控制面120E的该第一边缘部123E并自该第一边缘部123E向内延伸。更优选地，该第五通道105E被设置在该第一流体控制面120E的该第一边缘部123E并自该第一边缘部123E向内延伸至该第一流体控制面120E的该第一延伸部122E。
如附图之图132A至图132D所示，优选地，该平面阀10E的该第九通道109E和该第十一通道1011E分别被设置在该动阀片13E的该第二流体控制面130E的该第二延伸部132E，该第十通道1010E被设置在该动阀片13E的该第二流体控制面130E的该第二边缘部133E并自该第二边缘部133E向内延伸至该第二延伸部132E。
如附图之图119至图122E所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E的该阀体11E具有一个内壁111E，其中该定阀片12E适于该第一流体控制面120E朝上地设于该内腔110E，和该动阀片13E适于该第二流体控制面130E朝下地设于该内腔110E，其中该内腔110E始终与该第九通道109E相连通。值得注意的是，该平面阀10E的该定阀片12E可以被可拆卸地设置在该阀体11E的内壁111E，也可以与该平面阀10E的该阀体11E的该内壁111E相一体成型。本领域技术人员可以理解，当该定阀片12E被可拆卸地设置在该阀体11E内时，该定阀片12E和该阀体11E之间通过一个固定机构来保持该定阀片12E和该阀体11E之间的同步。例如，如附图之图119至图122E所示，该定阀片12E具有一个自该定阀片12E的边缘向外突出的制动件123E，该阀体11E的该内壁111E具有一个制动槽1110E，其中该定阀片12E的该制动件123E被设置能够与该阀体11E的该内壁111E的该制动槽1110E相啮合，以确保该定阀片12E和该阀体11E之间相同步(或不会发生相对转动)和确保被设置在该定阀片12E的各个通道与被设置在该阀体11E的相应开口相连通。可以理解，当该定阀片12E被可拆卸地设置在该阀体11E内时，该定阀片12E可被单独制造。换句话说，此时，该定阀片12E可由耐磨材料制成，从而提高该定阀片12E(或整个平面阀)的使用寿命。优选地，该定阀片12E的该第一流体控制面120E经平滑处理以减小其粗糙程度。
如附图之图119至图122E所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E进一步包括一个导流元件15E，其中该导流元件15E形成该排污通道150E，其中该导流元件15E被设置自该动阀片13E向上延伸且该导流元件15E的该排污通道150E分别与该平面阀的该排污开口1108E和该第十一通道1011E相连通(该排污开口1108E被设置在该平面阀10E的该阀体11E)，或者该排污通道150E直接与该排污开口1108E相连通(该排污开口1108E被设置在该平面阀10E的该动阀片13E，并与该第十一通道1011E相连通)，以使污水或废水可自其流出。
如附图之图119至图122E所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E进一步包括一个自该动阀片13E向上延伸的驱动元件18E，其中该驱动元件18E被设置能够驱动该平面阀10E的该动阀片13E相对该定阀片12E发生转动。优选地，该驱动元件18E与该导流元件15E相一体成型。可选地，该驱动元件18E与该导流元件15E为两个独立的机构。
如附图之图119至图122E所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E进一步包括一个密封元件17E，其中该密封元件17E被设置与该驱动元件18E相面对面，其中该密封元件17E形成一个第一密封面170E，该驱动元件18E形成一个第二密封面180E，其中该密封元件17E的该第一密封面170E被设置在该驱动元件18E的该第二密封面180E，从而使得当该驱动元件18E相对该密封元件17E转动，以驱动该动阀片13E相对该定阀片12E转动时，该驱动元件18E和该密封元件17E之间被密封和防止水的泄漏。此外，该密封元件17E被设置能够保持该驱动元件18E处于适当位置，从而保持该动阀片13E处于一个预设位置。
如附图之图123A至图123D所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E的该动阀片13E的直径被设置稍小于该阀体11E的内腔110E的直径，从而使得该平面阀10E的该第九通道109E可通过该进水口1091E保持与该阀体11E的该内腔110E相连通。
如附图之图123A至图133G所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀 10E的该控制装置16E被设置能够根据一个净化-软化控制指令，通过一个传动机构14E，如传动齿轮，驱动该驱动元件18E转动，以驱动该平面阀10E的该动阀片13E相对该定阀片12E转动，从而形成一个分别与该平面阀10E的该阀体11E的该内腔110E和该第五开口1105E相连通的第一连通通道1001E和一个分别与该阀体11E的该第二开口1102E和该第七开口1107E相连通的第二连通通道1002E，以允许原水自该阀体11E的该内腔110E，经过该平面阀10E形成的该第一连通通道1001E、该阀体11E的该第五开口1105E、该净化装置20的该第一连通开口201流入该净化装置20，原水经过该净化装置20净化处理后得到的净水从该净化装置20的该第二连通开口202流出，净水可经该软化箱31的该第一导通开口301流入该软化箱31，并经软化处理后得到软化水，软化水从该软化箱31的该第二导通开口302流出，然后经该阀体11E的该第七开口1107E、该平面阀10E的该第二连通通道1002E，最后经该阀体11E的该第二开口1102E流出和向用户供应软化水；根据一个软化滤芯(软化装置)反洗控制指令，通过该传动机构14E，如传动齿轮，驱动该驱动元件18E转动，以驱动该平面阀10E的该动阀片13E相对该定阀片12E转动，从而形成一个分别与该平面阀10E的该阀体11E的该内腔110E和该第七开口1107E相连通的第三连通通道1003E和一个分别与该阀体11E的该第六开口1106E和该平面阀10E的该排污开口1108E相连通的第四连通通道1004E，以允许原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该平面阀10E形成的该第三连通通道1003E流入该第七开口1107E，再经该软化箱31的该第二导通开口302流入该软化箱31，和对该软化箱31中的软化材料(或水处理材料)，如软化树脂等，反向冲洗后，得到的污水或废水从该软化箱31的该第一导通开口301流出，然后流经该阀体11E的该第六开口1106E流入该平面阀10E的该第四连通通道1004E，然后从该平面阀10E的该排污开口1108E流出，同时，还形成一个分别与该阀体11E的该第二开口1102E和该内腔110E相连通的第十五连通通道10015E，以允许原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该第十五连通通道10015E流入该阀体11E的该第二开口1102E，向使用者提供原水；根据一个软化滤芯(软化装置)正洗控制指令，通过该传动机构14E，如传动齿轮，驱动该驱动元件18E转动，以驱动该平面阀10E的该动阀片13E相对该定阀片12E转动，从而形成一个分别与该阀体11E的该内腔110E和该第六开口1106E相连通的第五连通通道1005E和一个分别与该阀体11E的该第七开口1107E和该平面阀10E的该排污开口1108E相连通的第六连通通道1006E，以允许原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该第五连通通道1005E流入该第六开口1106E，再进入该软化箱31的该第一导通开口301，对该软化箱31中的水处理材料或机构正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11E的该第七开口1107E流入该第六连通通道1006E，然后从该平面阀10E的该排污开口1108E流出，同时，还形成一个分别与该阀体11E的该第二开口1102E和该内腔110E相连通的第十五连通通道10015E，以允许原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该第十五连通通道10015E流入该阀体11E的该第二开口1102E，向使用者提供原水；根据一个补水控制指令，通过该传动机构14E，如传动齿轮，驱动该驱动元件18E转动，以驱动该平面阀10E的该动阀片13E相对该定阀片12E转动，从而形成一个分别与该阀体11E的该内腔110E和该第四开口1104E相连通的第七连通通道1007E，以允许原水自该阀体11E的该第一开口1101E流入到该 阀体11E的该内腔110E，然后通过该第七连通通道1007E流入该第四开口1104E，再流入该射流器32的该射入口322，向盐液箱33补水，同时，还形成一个分别与该阀体11E的该第二开口1102E和该内腔110E相连通的第十五连通通道10015E，以允许原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该第十五连通通道10015E流入该阀体11E的该第二开口1102E，向使用者提供原水；根据一个净化装置正洗控制指令，通过该传动机构14E，如传动齿轮，驱动该驱动元件18E转动，以驱动该平面阀10E的该动阀片13E相对该定阀片12E转动，从而形成一个分别与该阀体11E的该内腔110E和该第五开口1105E相连通的第八连通通道1008E和一个分别与该阀体11E的该第六开口1106E和该平面阀10E的该排污开口1108E相连通的第九连通通道1009E，以允许原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该第八连通通道1008E流入该第五开口1105E，再进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11E的该第六开口1106E流入该第九连通通道1009E，然后从该平面阀10E的该排污开口1108E流出，同时，还形成一个分别与该阀体11E的该第二开口1102E和该内腔110E相连通的第十五连通通道10015E，以允许原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该第十五连通通道10015E流入该阀体11E的该第二开口1102E，向使用者提供原水。
如附图之图123A至图133G所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E的该控制装置16E进一步被设置能够根据一个净化装置反洗控制指令，通过该传动机构14E，如传动齿轮，驱动该驱动元件18E转动，以驱动该平面阀10E的该动阀片13E相对该定阀片12E转动，从而形成一个分别与该阀体11E的该第五开口1105E和该平面阀10E的该排污开口1108E相连通的第十连通通道10010E和一个分别与该阀体11E的该内腔110E和该第六开口1106E相连通的第十二连通通道10012E，以允许原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该第十二连通通道10012E流入该第六开口1106E，再进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11E的该第五开口1105E流入该第十连通通道10010E，然后从该平面阀10E的该排污开口1108E流出，同时，还形成一个分别与该阀体11E的该第二开口1102E和该内腔110E相连通的第十五连通通道10015E，以允许原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该第十五连通通道10015E流入该阀体11E的该第二开口1102E，向使用者提供原水。
如附图之图123A至图133G所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E的该控制装置16E进一步被设置能够根据一个软化滤芯再生控制指令，通过该传动机构14E，如传动齿轮，驱动该驱动元件18E转动，以驱动该平面阀10E的该动阀片13E相对该定阀片12E转动，从而形成一个分别与该阀体11E的该内腔110E和该第三开口1103E相连通的第十一连通通道10011E、一个分别与该阀体11E的该第六开口1106E和该第四开口1104E相连通的第十三连通通道10013E和一个分别与该阀体11E的该第七开口1107E和该平面阀10E的该排污开口1108E相连通的第十四连通通道10014E，以允许原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该第十一连通通道10011E流入该第三开口1103E，再流入该射流器32的该射出口321，经过该射 流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11E的该第四开口1104E，然后通过该第十三连通通道10013E流入该第六开口1106E，进入该软化箱31的该第一导通开口301，顺流再生该软化箱31中的软化树脂后，从该第二导通开口302流出，然后流经该阀体11E的该第七开口1107E流入该第十四连通通道10014E，然后从该平面阀10E的该排污开口1108E流出，同时，还形成一个分别与该阀体11E的该第二开口1102E和该内腔110E相连通的第十五连通通道10015E，以允许原水自该阀体11E的该第一开口1101E流入到该阀体11E的该内腔110E，然后通过该第十五连通通道10015E流入该阀体11E的该第二开口1102E，向使用者提供原水。
值得注意的是，该控制指令，如净化-软化控制指令、软化装置反洗控制指令、软化装置正洗控制指令、补水控制指令、净化装置正洗控制指令、净化装置反洗控制指令、软化滤芯再生控制指令等控制指令，可以被预设在该控制装置16E的控制模块，也可以通过一个电子通讯网络接收自一个控制终端，或者由使用者通过一个输入界面输入。例如，当本发明净化-软化水处理系统被设置具有一个用于该平面阀10E的输入界面，如触控板或控制按钮时，使用者可通过触控面板或相应的控制按钮向该控制装置16E的控制模块发送上述控制指令，以使该控制装置16E的控制模块控制该控制装置16E的电机转动，从而通过该传动机构14E驱动该驱动元件18E转动。
附图之图117和图118、图135至图149G显示的是依本发明第四较佳实施例的净化-软化水处理系统的该平面阀(流体阀)10E的一种可选实施，其适用于控制净化-软化水处理系统对原水或待处理水进行净化-软化处理，其中该平面阀10E′包括一个阀体11E′和一个阀芯1E′，其中该阀芯1E′包括一个动阀片13E′和一个定阀片12E′，其中该阀体11E′形成一个内腔110E、一个第一开口1101E、一个第二开口1102E、一个第三开口1103E、一个第四开口1104E、一个第五开口1105E、一个第六开口1106E、一个第七开口1107E和一个排污开口(或第八开口)1108′，该定阀片12E′具有一个第一流体控制面120E，该动阀片13E′具有一个第二流体控制面130E，其中该动阀片13E′和该定阀片12E′均被设置在该内腔110E，其中该动阀片13E′的该第二流体控制面130E被设置在该定阀片12E′的该第一流体控制面120E，且该动阀片13E′被设置能够相对该定阀片12E′转动，其中该净化-软化水处理系统的净化装置20具有一个第一连通开口201和一个第二连通开口202，该净化-软化水处理系统的软化装置30包括至少一个软化箱31，其中该软化箱31具有一个第一导通开口301和一个第二导通开口302，其中该平面阀10E′的该阀体11E′的该内腔110E与该第一开口1101E相连通，该净化装置20的该第一连通开口201与该阀体11E′的该第五开口1105E相连通，该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301均与该阀体11E′的该第六开口1106E相连通，该软化箱31的该第二导通开口302与该阀体11E′的该第七开口1107E相连通。
如附图之图117和图118、图135至图149G所示，依本发明第四较佳实施例的净化-软化水处理系统的该软化装置30进一步包括一个射流器32和一个盐液箱33，其中该射流器32具有一个适于与该阀体11E′的该第三开口1103E相连通的射出口321和一个适于与该阀体11E′的该第四开口1104E相连通的射入口322，其中该盐液箱33适于与该射流器32相连通，从而使来自该盐液箱33的盐液能够通过该射流器32和该第四开口1104E，和经该平面阀10E′流向该软化装置30的该软化箱31，从而使该软化箱31内的软化树脂得到再生。相应地，当本发明净化-软化水处理系统处于一个软化滤芯吸盐再 生工作状态时，原水或待处理水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过一个第十一连通通道10011E流入该第三开口1103E，再流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11E′的该第四开口1104E，然后通过一个第十三连通通道10013E流入该第六开口1106E，进入该软化箱31的该第一导通开口301，顺流再生该软化箱31中的水处理材料或机构，如软化树脂后，从该第二导通开口302流出，然后流经该阀体11E′的该第七开口1107E流入一个第十四连通通道10014E′，然后从该平面阀10E′的该排污开口1108E′流出。可以理解，尽管本发明仅示例性地描述通过射流器32向软化箱31提供盐液方式，然而，盐液也可以通过其它方式或机构经过该平面阀10E′的该第四开口1104E被提供给该软化箱31。因此，通过射流器32向软化箱31提供盐液的方式并不应成为本发明的限制。
本领域技术人员能够理解，本发明净化-软化水处理系统的该平面阀10E′进一步具有一个被设置在该阀体11E的连接机构，如连接螺纹、卡接接头等，以便于该平面阀10E′与该净化-软化水处理系统的其它结构部件，如净化装置20、软化装置30等相连接，以引导水分别流向净化装置20、软化装置30的软化箱31和该平面阀10E′形成的各个连通通道。
如附图之图135至图149G所示，依本发明第四较佳实施例的该净化-软化水处理系统具有一个第一工作状态、一个第二工作状态、一个第三工作状态、一个第四工作状态和一个第五工作状态，其中当该净化-软化水处理系统处在该第一工作状态时，该平面阀10E′的该动阀片13E′和该定阀片12E′形成一个分别与该阀体11E′的该内腔110E(或该第一开口1101E)和该第五开口1105E相连通的第一连通通道1001E和一个分别与该阀体11E′的该第二开口1102E和该第七开口1107E相连通的第二连通通道1002E，当该净化-软化水处理系统处在该第二工作状态时，该平面阀10E′的该动阀片13E′和该定阀片12E′形成一个分别与该阀体11E′的该内腔110E(或该第一开口1101E)和该第七开口1107E相连通的第三连通通道1003E和一个分别与该阀体11E′的该第六开口1106E和该平面阀10E′的该排污开口1108E′相连通的第四连通通道1004E′，当该净化-软化水处理系统处在该第三工作状态时，该平面阀10E′的该动阀片13E′和该定阀片12E′形成一个分别与该阀体11E′的该内腔110E(或该第一开口1101E)和该第六开口1106E相连通的第五连通通道1005E和一个分别与该阀体11E′的该第七开口1107E和该平面阀10E′的该排污开口1108E′相连通的第六连通通道1006E′，当该净化-软化水处理系统处在该第四工作状态时，该平面阀10E′的该动阀片13E′和该定阀片12E′形成一个分别与该阀体11E′的该内腔110E(或该第一开口1101E)和该第四开口1104E相连通的第七连通通道1007E，当该净化-软化水处理系统处在该第五工作状态时，该平面阀10E′的该动阀片13E′和该定阀片12E′形成一个分别与该阀体11E′的该内腔110E(或该第一开口1101E)和该第五开口1105E相连通的第八连通通道1008E和一个分别与该阀体11E′的该第六开口1106E和该平面阀10E′的该排污开口1108E′相连通的第九连通通道1009E′。
如附图之图135至图149G所示，当依本发明第四较佳实施例的净化-软化水处理系统处在该第一工作状态时，该平面阀10E′形成的该第一连通通道1001E分别与该阀体11E′的该内腔110E(或该第一开口1101E)和该第五开口1105E相连通，该第二连通通道1002E分别与该阀体11E′的该第二开 口1102E和该第七开口1107E相连通，从而允许原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该平面阀10E′形成的该第一连通通道1001E、该阀体11E′的该第五开口1105E、该净化装置20的该第一连通开口201流入该净化装置20，原水经过该净化装置20净化处理后得到的净水从该净化装置20的该第二连通开口202流出，净水可经该软化箱31的该第一导通开口301流入该软化箱31，并经软化处理后得到软化水，软化水从该软化箱31的该第二导通开口302流出，然后经该阀体11E′的该第七开口1107E、该平面阀10E′的该第二连通通道1002E，最后经该阀体11E′的该第二开口1102E流出和向用户供应软化水。优选地，该净化装置20的该第二连通开口202与一个供水出口401(或供水通路400)相连通，从而向使用者提供净水。因此，当该净化-软化水处理系统处在该第一工作状态时，本发明净化-软化水处理系统可同时向使用者提供净水和软化水。相应地，该净化-软化水处理系统的该第一工作状态对应于该净化-软化水处理系统的净化-软化工作状态。因此，当该净化-软化水处理系统处在该第一工作状态时，该阀体11E′的该第一开口1101E(或该阀体11E′的该内腔110E)、该阀体11E′的该第五开口1105E、该净化装置20的该第一连通开口201、该净化装置20的该第二连通开口202、该软化装置30的该软化箱31的该第一导通开口301、该软化装置30的该软化箱31的该第二导通开口302、该阀体11E′的该第七开口1107E和该阀体11E′的该第二开口1102E被依次连通，从而形成一个将该净化装置20和该软化装置30串联在一起的水流通路，以使原水能够自该净化装置20流向该软化装置30和使原水依次被净化和软化处理。
如附图之图135至图149G所示，当依本发明第四较佳实施例的净化-软化水处理系统处在该第二工作状态时，该平面阀10E′形成的该第三连通通道1003E分别与该阀体11E′的该内腔110E(或该第一开口1101E)和该第七开口1107E相连通，该第四连通通道1004E′分别与该阀体11E′的该第六开口1106E和该平面阀10E′的该排污开口1108E′相连通，从而允许原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该平面阀10E′形成的该第三连通通道1003E流入该第七开口1107E，再经该软化箱31的该第二导通开口302流入该软化箱31，和对该软化箱31中的软化材料(或水处理材料)，如软化树脂等，反向冲洗后，得到的污水或废水从该软化箱31的该第一导通开口301流出，然后流经该阀体11E′的该第六开口1106E流入该平面阀10E′的该第四连通通道1004E′，然后从该平面阀10E′的该排污开口1108E′流出。换句话说，当该净化-软化水处理系统处在该第二工作状态时，本发明净化-软化水处理系统可控制对软化滤芯，如软化箱31进行反向冲洗。相应地，该净化-软化水处理系统的该第二工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)反洗工作状态。
如附图之图135至图149G所示，当依本发明第四较佳实施例的净化-软化水处理系统处在该第三工作状态时，该平面阀10E′形成的该第五连通通道1005E分别与该阀体11E′的该内腔110E(或该第一开口1101E)和该第六开口1106E相连通，该第六连通通道1006E′分别与该阀体11E′的该第七开口1107E和该平面阀10E′的该排污开口1108E′相连通，从而允许原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该第五连通通道1005E流入该第六开口1106E，再进入该软化箱31的该第一导通开口301，对该软化箱31中的水处理材料或机构正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11E′的该第七开口1107E流入该第六连通通道 1006E′，然后从该平面阀10E′的该排污开口1108E′流出。换句话说，当该净化-软化水处理系统处在该第三工作状态时，本发明净化-软化水处理系统可控制对软化滤芯，如软化箱31进行正向冲洗。相应地，该净化-软化水处理系统的该第三工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)正洗工作状态。
如附图之图135至图149G所示，当依本发明第四较佳实施例的净化-软化水处理系统处在该第四工作状态时，该平面阀10E′形成的该第七连通通道1007E分别与该阀体11E′的该内腔110E(或该第一开口1101E)和该第四开口1104E相连通，从而允许原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该第七连通通道1007E流入该第四开口1104E，再流入该射流器32的该射入口322，向盐液箱33补水。换句话说，当该净化-软化水处理系统处在该第四工作状态时，本发明净化-软化水处理系统可控制向盐液箱33补水。相应地，该净化-软化水处理系统的该第四工作状态对应于该净化-软化水处理系统的盐液箱补水工作状态。
如附图之图135至图149G所示，当依本发明第四较佳实施例的净化-软化水处理系统处在该第五工作状态时，该平面阀10E′形成的该第八连通通道1008E分别与该阀体11E′的该内腔110E(或该第一开口1101E)和该第五开口1105E相连通，该第九连通通道1009E′分别与该阀体11E′的该第六开口1106E和该平面阀10E′的该排污开口1108E′相连通，从而允许原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该第八连通通道1008E流入该第五开口1105E，再进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11E′的该第六开口1106E流入该第九连通通道1009E′，然后从该平面阀10E′的该排污开口1108E′流出。换句话说，当该净化-软化水处理系统处在该第五工作状态时，本发明净化-软化水处理系统可控制对净化装置20进行正向冲洗。相应地，该净化-软化水处理系统的该第五工作状态对应于该净化-软化水处理系统的净化装置正洗工作状态。
如附图之图135至图149G所示，依本发明第四较佳实施例的净化-软化水处理系统进一步具有一个第六工作状态和一个第七工作状态，其中当该净化-软化水处理系统处在该第六工作状态时，该平面阀10E′的该动阀片13E′和该定阀片12E′形成一个分别与该阀体11E′的该第五开口1105E和该平面阀10E′的该排污开口1108E′相连通的第十连通通道10010E′；当该净化-软化水处理系统处在该第七工作状态时，该平面阀10E′的该动阀片13E′和该定阀片12E′形成一个分别与该阀体11E′的该内腔110E(或该第一开口1101E)和该第三开口1103E相连通的第十一连通通道10011E。优选地，当该净化-软化水处理系统处在该第六工作状态时，该平面阀10E′的该动阀片13E′和该定阀片12E′进一步形成一个分别与该阀体11E′的该内腔110E(或该第一开口1101E)和该第六开口1106E相连通的第十二连通通道10012E，当该净化-软化水处理系统处在该第七工作状态时，该平面阀10E′的该动阀片13E′和该定阀片12E′形成一个分别与该阀体11E′的该第六开口1106E和该第四开口1104E相连通的第十三连通通道10013E和一个分别与该阀体11E′的该第七开口1107E和该平面阀10E′的该排污开口1108E′相连通的第十四连通通道10014E′。
如附图之图135至图149G所示，当依本发明第四较佳实施例的净化-软化水处理系统处在该第 六工作状态时，该平面阀10E′形成的该第十连通通道10010E′分别与该阀体11E′的该第五开口1105E和该平面阀10E′的该排污开口1108E′相连通，该第十二连通通道10012E分别与该阀体11E′的该内腔110E(或该第一开口1101E)和该第六开口1106E相连通，从而允许原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该第十二连通通道10012E流入该第六开口1106E，再进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11E′的该第五开口1105E流入该第十连通通道10010E′，然后从该平面阀10E′的该排污开口1108E′流出；当依本发明第四较佳实施例的净化-软化水处理系统处在该第七工作状态时，该平面阀10E′形成的该第十一连通通道10011E分别与该阀体11E′的该内腔110E(或该第一开口1101E)和该第三开口1103E相连通，该第十三连通通道10013E分别与该阀体11E′的该第六开口1106E和该第四开口1104E相连通，该第十四连通通道10014E′分别与该阀体11E′的该第七开口1107E和该平面阀10E′的该排污开口1108E′相连通，从而允许原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该第十一连通通道10011E流入该第三开口1103E，再流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11E′的该第四开口1104E，然后通过该第十三连通通道10013E流入该第六开口1106E，进入该软化箱31的该第一导通开口301，顺流再生该软化箱31中的软化树脂后，从该第二导通开口302流出，然后流经该阀体11E′的该第七开口1107E流入该第十四连通通道10014E′，然后从该平面阀10E′的该排污开口1108E′流出。相应地，该净化-软化水处理系统的该第六工作状态对应于该净化-软化水处理系统的净化装置反洗工作状态，该净化-软化水处理系统的该第七工作状态对应于该净化-软化水处理系统的软化滤芯(软化装置)再生工作状态。
如附图之图138E、图147A至图149G所示，进一步地，当依本发明第四较佳实施例的净化-软化水处理系统处在该第二工作状态、该第三工作状态、该第四工作状态、该第五工作状态、该第六工作状态和该第七工作状态时，该平面阀10E′的该动阀片13E′和该定阀片12E′形成一个分别与该阀体11E′的该第二开口1102E和该内腔110E相连通的第十五连通通道10015E，从而使得当该净化-软化水处理系统处在该第二工作状态、该第三工作状态、该第四工作状态、该第五工作状态、该第六工作状态和该第七工作状态时，允许原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该第十五连通通道10015E流入该阀体11E′的该第二开口1102E，和在该第二工作状态、该第三工作状态、该第四工作状态、该第五工作状态、该第六工作状态和该第七工作状态向使用者提供原水。
如附图之图117和图118、图147A至图147G所示，依本发明第四较佳实施例的净化-软化水处理系统进一步具有一个供水单元40，其中该供水单元40形成一个供水通路400，其中该供水通路400被设置与该净化装置20的该第二连通开口202相连通，以向使用者提供净水。如附图之图147A至图147G所示，该供水单元40包括一个供水管道(或供水管)41和一个流体阀42，其中该流体阀42被设置在该供水管道41，以控制向使用者提供净水。可以理解，该供水管道41形成该供水出口401。优选地，该流体阀42是一个电动球阀或电动平面阀，以便于使用者通过一个控制装置16E自动控制 净水的提供。因此，该净化装置20的该第二连通开口202分别与该平面阀10E′的该第六开口1106E、该软化箱31的该第一导通开口301和该供水通路400(或该供水出口401)相连通。此外，该平面阀10E′的该第六开口1106E进一步与该软化箱31的该第一导通开口301相连通。
如附图之图146A至图149G所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E′具有一个第一通道101E，一个第二通道102E，一个第三通道103E，一个第四通道104E、一个第五通道105E、一个第六通道106E、一个第七通道107E、一个第八通道108E、一个第九通道109E、一个第十通道1010E、一个第十一通道1011E′、一个第十二通道1012E和一个第十三通道1013E′，其中该第一通道101E、该第二通道102E、该第三通道103E、该第四通道104E、该第五通道105E、该第六通道106E、该第七通道107E、该第八通道108E、该第十二通道1012E和该第十三通道1013E′分别设于该定阀片12E′并分别自该定阀片12E′的该第一流体控制面120E延伸；该第九通道109E、该第十通道1010E和该第十一通道1011E′分别设于该动阀片13E′并分别自该动阀片13E′的该第二流体控制面130E延伸，其中该第一通道101E和该第二通道102E分别与该第五开口1105E相连通，该第三通道103E和该第四通道104E分别与该第七开口1107E相连通，该第五通道105E与该第二开口1102E相连通，该第六通道106E与该第三开口1103E相连通，该第七通道107E与该第四开口1104E相连通，该第八通道108E和该第十二通道1012E分别与该第六开口1106E相连通，该第九通道109E与该阀体11E′的该内腔110E相连通，该第十一通道1011E′与该第十三通道1013E′相连通，该第十三通道1013E′与该排污开口1108E′相连通。可以理解，本发明该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301与该阀体11E′的该第六开口1106E的连通可通过多种方式实现。如附图之图138A所示，该阀体11E′的该第六开口1106E可通过一个分别与该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301相连通的连通管路(或三通管路)实现该净化装置20的该第二连通开口202、该软化箱31的该第一导通开口301和该阀体11′的该第六开口1106之间的连通。可选地，该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301与该阀体11E′的该第六开口1106E的连通也可通过被设置在该阀体11′的连通通路实现，其中该连通通路可被设置分别与该净化装置20的该第二连通开口202和该阀体11E的该第六开口1106E相连通，和分别与该软化箱31的该第一导通开口301和该阀体11E′的该第六开口1106E相连通。因此，该阀体11E′的该第八通道108E(或该第十二通道1012E)、该净化装置20的该第二连通开口202和该软化箱31的该第一导通开口301通过该阀体11E′的该第六开口1106E形成一个三通结构。此外，为了确保该阀体11E′的该内腔110E中的水进入该平面阀10E′的该第九通道109E，该第九通道109E被设置可通过一个始终与外部空间相连通的进水口1091E保持始终与该阀体11E′的该内腔110E相连通。
值得注意的是，该平面阀10E′的该第一通道101E和该第二通道102E分别与该第五开口1105E的连通，可以是分别地和独自地与该第五开口1105E相连通，也可以通过一个流体通道相连通；该平面阀10E′的该第三通道103E和该第四通道104E分别与该第七开口1107E的连通，可以是分别地和独自地与该第七开口1107E相连通，也可以通过一个流体通道相连通。例如，如附图之图135至图149G所示，该平面阀10E′的该第一通道101E和该第二通道102E通过一个第一流体通道1211E相连通，该第二通道102E被设置直接与该第五开口1105E相连通，从而使该第一通道101E通过该第一流体通道 1211E和该第二通道102E，也与该第五开口1105E相连通；该平面阀10E′的该第三通道103E和该第四通道104E分别单独地与该第七开口1107E相连通。可选地，如附图之图150A和图150B所示，该第一通道101E被设置直接与该第五开口1105E相连通，该第二通道102E通过该第一流体通道1211E和该第一通道101E，也与该第五开口1105E相连通。或者可选地，该平面阀10E′的该第一通道101E和该第二通道102E可分别地和独自地与该第五开口1105E相连通；或者可选地，如附图之图151所示，该平面阀10E′的该第三通道103E和该第四通道104E通过一个第二流体通道1212E相连通，该第三通道103E被设置直接与该第七开口1107E相连通，从而使该第四通道104E通过该第二流体通道1212E和该第三通道103E，也与该第七开口1107E相连通；或者可选地，如附图之图152所示，该平面阀10E′的该第三通道103E和该第四通道104E通过一个第二流体通道1212E相连通，该第四通道104E被设置直接与该第七开口1107E相连通，从而使该第三通道103E通过该第二流体通道1212E和该第四通道104E，也与该第七开口1107E相连通。可以理解，进一步地，该第一流体通道1211E和该第二流体通道1212E可被设置在该定阀片12E′的该第一流体控制面120E，也可被设置在该阀体11E′或该定阀片12E′的内部。可以理解，该平面阀10E′的该第一通道101E和该第二通道102E与该第五开口1105E的连通，和该平面阀10E的该第三通道103E和该第四通道104E与该第七开口1107E的连通，也可以是通过其它方式的连通。同样地，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E′的该第八通道108E和该第十二通道1012E分别与该第六开口1106E的连通，可以是分别地和独自地与该第六开口1106E相连通，也可以通过一个流体通道相连通。
如附图之图146A至图149G所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E′的该动阀片13E′能够相对定阀片12E′转动从而使得该平面阀10E′具有一个第一工作位，一个第二工作位，一个第三工作位，一个第四工作位和一个第五工作位，其中当该平面阀10E′处于该第一工作位时，该平面阀10E′的该第九通道109E与该第一通道101E相连通，该第十通道1010E分别与该第三通道103E和该第五通道105E相连通；当该平面阀10E′处于该第二工作位时，该平面阀10E′的该第九通道109E与该第四通道104E相连通，该第十一通道1011E′分别与该第八通道108E和该第十三通道1013E′相连通，该第五通道105E与该阀体11E′的该内腔110E相连通；当该平面阀10E′处于该第三工作位时，该平面阀10E′的该第九通道109E与该第八通道108E相连通，该平面阀10E′的该第十一通道1011E′分别与该第三通道103E和该第十三通道1013E′相连通，该第五通道105E与该阀体11E′的该内腔110E相连通；当该平面阀10E′处于该第四工作位时，该平面阀10E′的该第九通道109E与该第七通道107E相连通，该第五通道105E与该阀体11E′的该内腔110E相连通；当该平面阀10E′处于该第五工作位时，该平面阀10E′的该第九通道109E与该第二通道102E相连通，该平面阀10E′的该第十一通道1011E′分别与该第八通道108E和该第十三通道1013E′相连通，该第五通道105E与该阀体11E′的该内腔110E相连通。
如附图之图146A至图149G所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E′进一步具有一个第六工作位和一个第七工作位，其中当该平面阀10E′处于该第六工作位时，该平面阀10E′的该第十一通道1011E′分别与该第一通道101E和该第十三通道1013E′相连通，该第五通道105E与该阀体11E′的该内腔110E相连通；当平面阀10E′处于该第七工作位时，该平面阀10E′的该 第九通道109E与该第六通道106E相连通，该第五通道105E与该阀体11E′的该内腔110E相连通。
可以理解，当该平面阀10E′处于该第一工作位时，依本发明第四较佳实施例的净化-软化水处理系统被控制处在该净化-软化工作状态，该平面阀10E′的该第九通道109E与该第一通道101E相连通，从而形成该第一连通通道1001E，该第十通道1010E分别与该第三通道103E和该第五通道105E相连通，从而形成该第二连通通道1002E；当该平面阀10E′处于该第二工作位时，依本发明第四较佳实施例的净化-软化水处理系统被控制处在该软化滤芯(软化装置)反洗工作状态，该平面阀10E′的该第九通道109E与该第四通道104E相连通，从而形成该第三连通通道1003E，该第十一通道1011E′分别与该第八通道108E和该第十三通道1013E′相连通，从而形成该第四连通通道1004E′；当该平面阀10E′处于该第三工作位时，依本发明第四较佳实施例的净化-软化水处理系统被控制处在该软化滤芯(软化装置)正洗工作状态，该平面阀10E′的该第九通道109E与该第八通道108E相连通，从而形成该第五连通通道1005E，该平面阀10E′的该第十一通道1011E′分别与该第三通道103E和该第十三通道1013E′相连通，从而形成该第六连通通道1006E′；当该平面阀10E′处于该第四工作位时，依本发明第四较佳实施例的净化-软化水处理系统被控制处在该盐液箱补水工作状态，该平面阀10E′的该第九通道109E与该第七通道107E相连通，从而形成该第七连通通道1007E；该平面阀10E′处于该第五工作位时，依本发明第四较佳实施例的净化-软化水处理系统被控制处在该净化装置正洗工作状态时，该平面阀10E′的该第九通道109E与该第二通道102E相连通，从而形成该第八连通通道1008E，该平面阀10E′的该第十一通道1011E′分别与该第八通道108E和该第十三通道1013E′相连通，从而形成该第九连通通道1009E′。进一步地，当该平面阀10E′处于该第六工作位时，依本发明第四较佳实施例的净化-软化水处理系统被控制处在该净化装置反洗工作状态，该平面阀10E′的该第十一通道1011E′分别与该第一通道101E和该第十三通道1013E′相连通，从而形成该第十连通通道10010E′；当该平面阀10E′处于该第七工作位时，依本发明第四较佳实施例的净化-软化水处理系统被控制处在该软化滤芯再生工作状态，该平面阀10E′的该第九通道109E与该第六通道106E相连通，从而形成该第十一连通通道10011E。更进一步地，当该平面阀10E′处于该第六工作位时，该第九通道109E与该第八通道108E相连通，从而形成该第十二连通通道10012E；当该平面阀10E′处于该第七工作位时，该第十通道1010E分别与该第七通道107E和该第十二通道1012E相连通，从而形成该第十三连通通道10013E，该第十一通道1011E′分别与该第四通道104E和该第十三通道1013E′相连通，从而形成该第十四连通通道10014E′。优选地，该第十一通道1011E′是一个被设置在该动阀片13E′的该第二流体控制面130E的导通盲孔或导通槽，以在相应的工作位连通该定阀片12E′的不同通道，例如，在第二工作位连通(或导通)该第八通道108E和该第十三通道1013E′。可以理解，当该平面阀10E′处于该第一工作位时，该平面阀10E′的该第十通道1010E分别与该第三通道103E和该第五通道105E相连通，且该平面阀10E′的该动阀片13E′将该第五通道105E与该阀体11E的该内腔110E相隔开，以防止该阀体11E′的该内腔110E内的原水进入该第五通道105E。
如附图之图138E、图147A至图149G所示，进一步地，当依本发明第四较佳实施例的净化-软化水处理系统处在该第二工作位、该第三工作位、该第四工作位、该第五工作位、该第六工作位和该第七工作位时，该平面阀10E′的该定阀片12E′的该第五通道105E与该阀体11E′的该内腔110E相连通， 从而形成该第十五连通通道10015E。相应地，当依本发明第四较佳实施例的净化-软化水处理系统处在该第二工作位、该第三工作位、该第四工作位、该第五工作位、该第六工作位和该第七工作位时，原水被允许自该阀体11E′的该第一开口1101E流入该阀体11E′的该内腔110E，并进一步自该阀体11E′的该内腔110E通过该定阀片12E′的该第五通道105E流向该阀体11E′的该第二开口1102E。
如附图之图147A至图149G所示，相应地，当该平面阀10E′处于第一工作位时，该水处理机处于净化-软化工作状态，原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该动阀片13E′的该第九通道109E流入该定阀片12E′的该第一通道101E，然后通过该阀体11E′的该第五开口1105E进入该净化装置20的该第一连通开口201，经过该净化装置20的水处理材料或机构处理后，从该净化装置20的该第二连通开口202流出，然后流入该软化箱31的该第一导通开口301，经过该软化箱31内的软化树脂处理后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11E′的该第七开口1107E进入该定阀片12E′的该第三通道103E，经过该动阀片13E′的该第十通道1010E导流进入该定阀片12E′的该第五通道105E，然后经过该阀体11E′的该第二开口1102E向用户供应处理后水；当该平面阀10E′处于第二工作位时，该水处理机处于该软化滤芯(软化装置)反洗工作状态，原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该动阀片13E′的该第九通道109E流入该定阀片12E′的该第四通道104E，然后通过该阀体11E′的该第七开口1107E进入该软化箱31的该第二导通开口302，对该软化箱31中的软化树脂反向冲洗后，从该软化箱31的该第一导通开口301流出，然后流经该阀体11E′的该第六开口1106E，再流经该定阀片12E′的该第八通道108E和该动阀片13E′的该第十一通道1011E′和该第十三通道1013E′，然后，从该平面阀10E′的该排污开口1108E′流出，同时原水还能够通过该定阀片12E′的该第五通道105E流向该阀体11E′的该第二开口1102E；当该平面阀10E′处于第三工作位时，该水处理机处于该软化滤芯(软化装置)正洗工作状态，原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该动阀片13E′的该第九通道109E流入该定阀片12E′的该第八通道108E，然后通过该阀体11E′的该第六开口1106E进入该软化箱31的该第一导通开口301，对该软化箱31中的软化树脂正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11E′的该第七开口1107E，再流经该定阀片12E′的该第三通道103E和该动阀片13E′的该第十一通道1011E′和该第十三通道1013E′，然后，从该平面阀10E′的该排污开口1108E′流出，同时原水还能够通过该定阀片12E′的该第五通道105E流向该阀体11E′的该第二开口1102E；当该平面阀10E′处于第四工作位时，该水处理机处于该盐液箱补水工作状态，原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该动阀片13E′的该第九通道109E流入该定阀片12E′的该第七通道107E，然后流经该阀体11E′的该第四开口1104E流入该射流器32的该射入口322，向盐液箱33补水，同时原水还能够通过该定阀片12E′的该第五通道105E流向该阀体11E′的该第二开口1102E；当该平面阀10E′处于第五工作位时，该水处理机处于该净化装置正洗工作状态，原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该动阀片13E′的该第九通道109E流入该定阀片12E′的该第二通道102E，然后通过该阀体11E′的该第五开口1105E进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11E′ 的该第六开口1106E，进入该定阀片12E′的该第八通道108E，再流经该动阀片13E′的该第十一通道1011E′和该第十三通道1013E′，然后，从该平面阀10E′的该排污开口1108E′流出，同时原水还能够通过该定阀片12E′的该第五通道105E流向该阀体11E′的该第二开口1102E。进一步地，当该平面阀10E′处于第六工作位时，该水处理机处于净化装置反洗工作状态，原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该动阀片13E′的该第九通道109E流入该定阀片12E′的该第八通道108E，然后通过该阀体11E′的该第六开口1106E进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11E′的该第五开口1105E，进入该定阀片12E′的该第一通道101E，再流经该动阀片13E′的该第十一通道1011E′和该第十三通道1013E′，然后，从该平面阀10E′的该排污开口1108E′流出，同时原水还能够通过该定阀片12E′的该第五通道105E流向该阀体11E′的该第二开口1102E；当该平面阀10E′处于第七工作位时，该水处理机处于该软化滤芯再生工作状态，原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该动阀片13E′的该第九通道109E流入该定阀片12E′的该第六通道106E，然后通过该阀体11E′的该第三开口1103E流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11E′的该第四开口1104E，然后进入该定阀片12E′的该第七通道107E，再经过动阀片13E′的该第十通道1010E导流进入该定阀片12E′的该第十二通道1012E，然后流经该阀体11E′的该第六开口1106E进入该软化箱31的该第一导通开口301，顺流再生该软化箱31中的如软化树脂后，从该第二导通开口302流出，然后流经该阀体11E′的该第七开口1107E进入该定阀片12E′的该第四通道104E，再通过该动阀片13E′的该第十一通道1011E′和该第十三通道1013E′，然后，从该平面阀10E′的该排污开口1108E′流出，同时原水还能够通过该定阀片12E′的该第五通道105E流向该阀体11E′的该第二开口1102E。
如附图之图149A至图149G所示，优选地，当平面阀10E′处于第一工作位时，该平面阀10E′的该第二通道102E、该第四通道104E、该第八通道108E和该第十二通道1012E被该动阀片13E′封闭；当平面阀10E′处于第二工作位时，该平面阀10E′的该第一通道101E、该第三通道103E和该第十二通道1012E被该动阀片13E′封闭；当平面阀10E′处于第三工作位时，该平面阀10E′的该第二通道102E、该第四通道104E和该第十二通道1012E被该动阀片13E′封闭；当平面阀10E′处于第四工作位时，该平面阀10E′的该第六通道106E被该动阀片13E′封闭；当平面阀10E′处于第五工作位时，该平面阀10E′的该第一通道101E、该第三通道103E、该第四通道104E和该第十二通道1012E被该动阀片13E′封闭；当平面阀10E′处于第六工作位时，该平面阀10E′的该第二通道102E、该第三通道103E、该第四通道104E和该第十二通道1012E被该动阀片13E′封闭；当平面阀10E′处于第七工作位时，该平面阀10E′的该第一通道101E、该第二通道102E、该第三通道103E和该第八通道108E被该动阀片13E′封闭。
如附图之图149A至图149G所示，更优选地，当平面阀10E′处于第二工作位时，该平面阀10E′的该第六通道106E和该第七通道107E分别被该动阀片13E′封闭；当平面阀10E′处于第三工作位时，该平面阀10E′的该第六通道106E和该第七通道107E分别被该动阀片13E′封闭，该第十通道1010E分别与该第一通道101E和该第八通道108E相连通；当平面阀10E′处于第四工作位时，该平面阀10E′ 的该第一通道101E和该第三通道103E分别被该动阀片13E′封闭；当平面阀10E′处于第五工作位时，该平面阀10E′的该第六通道106E和该第七通道107E分别被该动阀片13E′封闭；当平面阀10E′处于第六工作位时，该平面阀10E′的该第六通道106E和该第七通道107E分别被该动阀片13E′封闭，该平面阀10E′的该第十通道1010E与该第八通道108E相连通。
如附图之图149A至图149G所示，最优选地，当平面阀10E′处于第一工作位时，该平面阀10E′的该第六通道106E和该第七通道107E分别被该动阀片13E′封闭，该第十一通道1011E′与该第十三通道1013E′相连通；当平面阀10E′处于第二工作位时，该平面阀10E′的该第十通道1010E分别与该第二通道102E和该第八通道108E相连通；当平面阀10E′处于第四工作位时，该平面阀10E′的该第十通道1010E分别与该第四通道104E和该第十二通道1012E相连通，该第十一通道1011E′分别与该第二通道102E和该第十三通道1013E′相连通，该第八通道108E被该动阀片13E′封闭；当平面阀10E′处于第五工作位时，该平面阀10E′的该第十通道1010E与该第八通道108E相连通。
如附图之图94A至图149G所示，优选地，本文中的通道被封闭，指的是相应通道形成在该平面阀10E的该定阀片12E(或定阀片12E′)的第一流体控制面120E和该动阀片13E(或动阀片13E′)的该第二流体控制面130E的通道开口在该平面阀10E的具体工作位(或水处理系统的工作状态)，被该动阀片13E和该定阀片12E的实体部分盖住，从而导致相应通道之间无法通过通道开口相连通。例如，当该平面阀10E处于第一工作位时，该动阀片13E的实体部分正对该平面阀10E的该第六通道106E和该第七通道107E形成在该定阀片12E的第一流体控制面120E的通道开口，从而使该平面阀10E的该第六通道106E和该第七通道107E被该动阀片13E封闭(或阻塞)。相应地，本文中被设置在该动阀片13E的通道与被设置在定阀片12E的通道之间的相连通，指的是在该平面阀10E的具体工作位(或水处理系统的工作状态)，被设置在该动阀片13E的通道形成在该动阀片13E的该第二流体控制面130E的通道开口与被设置在该定阀片12E的通道形成该定阀片12E的第一流体控制面120E的通道开口选择性地部分或正好对齐和形成允许水流通过的水流通路。例如，当该平面阀10E处于第一工作位时，该平面阀10E的该第九通道109E的通道开口与该第一通道101E的通道开口相对齐，从而使两者相连通和形成该第一连通通道1001E。
值得注意的是该平面阀10E′的该第一通道101E、该第二通道102E、该第三通道103E、该第四通道104E、该第五通道105E、该第六通道106E、该第七通道107E、该第八通道108E、该第十二通道1012E和该第十三通道1013E′分别相隔开地设于该定阀片12E′的该第一流体控制面120E；该第九通道109E、该第十通道1010E和该第十一通道1011E′分别相隔开地设于该动阀片13E′的该第二流体控制面130E。换句话说，该平面阀10′的该第一通道101E、该第二通道102E、该第三通道103E、该第四通道104E、该第五通道105E、该第六通道106E、该第七通道107E、该第八通道108E、该第十二通道1012E和该第十三通道1013E′分别形成一个被设置在该定阀片12E′的该第一流体控制面120E的通道开口，该第九通道109E、该第十通道1010E和该第十一通道1011E′分别形成一个被设置在该动阀片13E′的该第二流体控制面130E的通道开口，当该平面阀10E的该动阀片13E′被面(该第二流体控制面130E)对面(该第一流体控制面120E)设置，且该动阀片13E′相对该定阀片12E′转动时，被设置在该动阀片13E′的通道和被设置在该定阀片12E′的通道通过相应的通道开口选择性地相连 通，从而形成相应的连通通道和控制流体(如水流)的流动方向。可以理解，该平面阀10E′的该第一通道101E、该第二通道102E、该第三通道103E、该第四通道104E、该第五通道105E、该第六通道106E、该第七通道107E、该第八通道108E、该第九通道109E、该第十通道1010E、该第十一通道1011E′、该第十二通道1012E和该第十三通道1013E′可具有任何能够实现本文中相互连通关系的延伸路径(或方向)；该平面阀10E′的该第一通道101E、该第二通道102E、该第三通道103E、该第四通道104E、该第五通道105E、该第六通道106E、该第七通道107E、该第八通道108E、该第十二通道1012E和该第十三通道1013E′分别形成在该定阀片12E′的该第一流体控制面120E的通道开口，和该第九通道109E、该第十通道1010E和该第十一通道1011E′分别形成在该动阀片13E′的该第二流体控制面130E的通道开口，可具有任何能够实现本文中相互连通关系的形状。因此，该平面阀10E的该第一通道101E、该第二通道102E、该第三通道103E、该第四通道104E、该第五通道105E、该第六通道106E、该第七通道107E、该第八通道108E、该第十二通道1012E、该第十三通道1013E′、该第九通道109E、该第十通道1010E和该第十一通道1011E′的延伸路径(或方向)和其通道开口的形状不应成为对本发明的限制。
如附图之图148A至图148D所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E′的该第一通道101E、该第八通道108E、该第二通道102E、该第四通道104E、该第十二通道1012E、该第七通道107E、该第六通道106E、该第五通道105E和该第三通道103E以此顺序顺时针地排布在该定阀片12E′；该平面阀10E′的该第十一通道1011E′、该第十通道1010E和该第九通道109E以此顺序顺时针地排布在该动阀片13E′。可选地，该平面阀10E′的该第一通道101E、该第八通道108E、该第二通道102E、该第四通道104E、该第十二通道1012E、该第七通道107E、该第六通道106E、该第五通道105E和该第三通道103E以此顺序逆时针地排布在该定阀片12E′；该平面阀10E′的该第十一通道1011E′、该第十通道1010E和该第九通道109E以此顺序逆时针地排布在该动阀片13E′。
如附图之图148A至图148D所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E′的该定阀片12E′具有一个第一中心部121E、一个自该第一中心部121E向外延伸的第一延伸部122E和一个自该第一延伸部122E向外延伸的第一边缘部123E，该动阀片13E′具有一个第二中心部131E、一个自该第二中心部131E向外延伸的第二延伸部132E和一个自该第二延伸部132E向外延伸的第二边缘部133E，其中该定阀片12E′的该第一流体控制面120E具有一个图中点划线所示的中心部分1200E，其中该中心部分1200E被设于该定阀片12E′的该第一中心部121E，且该第一流体控制面120E的中心部分1200E之外的部分被顺时针等分为点划线所示的一个第一部分1201E、一个第二部分1202E、一个第三部分1203E、一个第四部分1204E、一个第五部分1205E、一个第六部分1206E、一个第七部分1207E、一个第八部分1208E、一个第九部分1209E、一个第十部分12010E和一个第十一部分12011E；该平面阀10E′的动阀片13E′的该第二流体控制面130E具有一个图中点划线所示的中心区域1300E，其中该中心区域1300E设于该动阀片13E′的该第二中心部131E，且该第二流体控制面130E的该中心区域1300E之外的部分被顺时针等分为点划线所示的一个第一区域1301E、一个第二区域1302E、一个第三区域1303E、一个第四区域1304E、一个第五区域1305E、一个第六区域1306E、一个第七区域1307E、一个第八区域1308E、一个第九区域1309E、一个第十区域13010E和一个第十 一区域13011E；其中该第十三通道1013E′自第一流体控制面120E的该中心部分1200E向下延伸；该第一通道101E自第一流体控制面120E的该第一部分1201E向下延伸；该第八通道108E自该定阀片12E′的该第一流体控制面120E的该第二部分1202E、该第三部分1203E和该第四部分1204E向下延伸；该第二通道102E自该定阀片12E′的该第一流体控制面120E的该第五部分1205E向下延伸；该第四通道104E自该定阀片12E′的该第一流体控制面120E的该第六部分1206E向下延伸；该第十二通道1012E自该定阀片12E′的该第一流体控制面120E的该第七部分1207E向下延伸；该第七通道107E自该第一流体控制面120E的该第八部分1208E向下延伸；该第六通道106E自该第一流体控制面120E的该第九部分1209E向下延伸；该第五通道105E自该第一流体控制面120E的该第十部分12010E向下延伸；该第三通道103E自该第一流体控制面120E的该第十一部分12011E向下延伸；该第九通道109E自该第二流体控制面130E的该第一区域1301E向上延伸；该第十一通道1011E′自该第二流体控制面130E的该中心区域1300E延伸至该第二流体控制面130E的该第九区域1309E；该第十通道1010E自该第二流体控制面130E的该第十区域13010E和该第十一区域13011E向上延伸。
可以理解，当该动阀片13E′的该第二流体控制面130E被设置在该定阀片12E′的该第一流体控制面120E时，该动阀片13E′的该第二流体控制面130E的该第二中心部131E正对该定阀片12E′的该第一流体控制面120E的该第一中心部121E，该动阀片13E′的该第二流体控制面130E的该第二延伸部132E正对该定阀片12E′的该第一流体控制面120E的该第一延伸部122E，该动阀片13E′的该第二流体控制面130E的该第二边缘部133E正对该定阀片12E′的该第一流体控制面120E的该第一边缘部123E。
可选地，该平面阀10E′的定阀片12E′的第一流体控制面120E和动阀片13E′的该第二流体控制面130E均为圆形，该第一通道101E、该第二通道102E、该第三通道103E、该第四通道104E、该第五通道105E、该第六通道106E、该第七通道107E、该第八通道108E和该第十二通道1012E均沿径向设于该定阀片12E′的该第一流体控制面120E，且该第九通道109E和该第十通道1010E均沿径向设于该动阀片13E′的该第二流体控制面130E。
如附图之图148A至图148D所示，优选地，该平面阀10E′的该第一通道101E、该第二通道102E、该第三通道103E、该第四通道104E、该第六通道106E、该第七通道107E、该第八通道108E和该第十二通道1012E分别被设置在该定阀片12E′的该第一流体控制面120E的该第一延伸部122E，该第五通道105E被设置在该第一流体控制面120E的该第一边缘部123E并自该第一边缘部123E向内延伸。更优选地，该第五通道105E被设置在该第一流体控制面120E的该第一边缘部123E并自该第一边缘部123E向内延伸至该第一流体控制面120E的该第一延伸部122E。
如附图之图148A至图148D所示，优选地，该平面阀10E′的该第九通道109E被设置在该动阀片13E′的该第二流体控制面130E的该第二延伸部132E，该第十一通道1011E自该动阀片13E′的该第二流体控制面130E的该中心区域1300E延伸至该第二流体控制面130E的该第二延伸部132E，该第十通道1010E被设置在该动阀片13E′的该第二流体控制面130E的该第二边缘部133E并自该第二边缘部133E向内延伸至该第二延伸部132E。
如附图之图135至图138E所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E′的该阀体11E′具有一个内壁111E，其中该定阀片12E′适于该第一流体控制面120E朝上地设于该 内腔110E，和该动阀片13E′适于该第二流体控制面130E朝下地设于该内腔110E，其中该内腔110E始终与该第九通道109E相连通。值得注意的是，该平面阀10E′的该定阀片12E′可以被可拆卸地设置在该阀体11E′的内壁111E，也可以与该平面阀10E′的该阀体11E′的该内壁111E相一体成型。本领域技术人员可以理解，当该定阀片12E′被可拆卸地设置在该阀体11E′内时，该定阀片12E′和该阀体11E′之间通过一个固定机构来保持该定阀片12E′和该阀体11E′之间的同步。例如，如附图之图135至图138E所示，该定阀片12E′具有一个自该定阀片12E′的边缘向外突出的制动件123E，该阀体11E′的该内壁111E具有一个制动槽1110E，其中该定阀片12E′的该制动件123E被设置能够与该阀体11E′的该内壁111E的该制动槽1110E相啮合，以确保该定阀片12E′和该阀体11E′之间相同步(或不会发生相对转动)和确保被设置在该定阀片12E′的各个通道与被设置在该阀体11E′的相应开口相连通。可以理解，当该定阀片12E′被可拆卸地设置在该阀体11E′内时，该定阀片12E′可被单独制造。换句话说，此时，该定阀片12E′可由耐磨材料制成，从而提高该定阀片12E′(或整个平面阀)的使用寿命。优选地，该定阀片12E′的该第一流体控制面120E经平滑处理以减小其粗糙程度。
如附图之图135至图138E所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E′进一步包括一个自该动阀片13E′向上延伸的驱动元件18E，其中该驱动元件18E被设置能够驱动该平面阀10E′的该动阀片13E′相对该定阀片12E′发生转动。
如附图之图135至图138E所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E′进一步包括一个密封元件17E，其中该密封元件17E被设置与该驱动元件18E相面对面，其中该密封元件17E形成一个第一密封面170E，该驱动元件18E形成一个第二密封面180E，其中该密封元件17E的该第一密封面170E被设置在该驱动元件18E的该第二密封面180E，从而使得当该驱动元件18E相对该密封元件17E转动，以驱动该动阀片13E′相对该定阀片12E′转动时，该驱动元件18E和该密封元件17E之间被密封和防止水的泄漏。此外，该密封元件17E被设置能够保持该驱动元件18E处于适当位置，从而保持该动阀片13E′处于一个预设位置。
如附图之图139A至图139D所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E′的该动阀片13E′的直径被设置稍小于该阀体11E′的内腔110E的直径，从而使得该平面阀10E′的该第九通道109E可通过该进水口1091E保持与该阀体11E′的该内腔110E相连通。
如附图之图139A至图149G所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E′的该控制装置16E被设置能够根据一个净化-软化控制指令，通过一个传动机构14E，如传动齿轮，驱动该驱动元件18E转动，以驱动该平面阀10E′的该动阀片13E′相对该定阀片12E′转动，从而形成一个分别与该平面阀10E′的该阀体11E′的该内腔110E和该第五开口1105E相连通的第一连通通道1001E和一个分别与该阀体11E′的该第二开口1102E和该第七开口1107E相连通的第二连通通道1002E，以允许原水自该阀体11E′的该内腔110E，经过该平面阀10E′形成的该第一连通通道1001E、该阀体11E′的该第五开口1105E、该净化装置20的该第一连通开口201流入该净化装置20，原水经过该净化装置20净化处理后得到的净水从该净化装置20的该第二连通开口202流出，净水可经该软化箱31的该第一导通开口301流入该软化箱31，并经软化处理后得到软化水，软化水从该软化箱31的该第二导通开口302流出，然后经该阀体11E′的该第七开口1107E、该平面阀10E′的该第二连通通道 1002E，最后经该阀体11E′的该第二开口1102E流出和向用户供应软化水；根据一个软化滤芯(软化装置)反洗控制指令，通过该传动机构14E，如传动齿轮，驱动该驱动元件18E转动，以驱动该平面阀10E′的该动阀片13E′相对该定阀片12E′转动，从而形成一个分别与该平面阀10E′的该阀体11E′的该内腔110E和该第七开口1107E相连通的第三连通通道1003E和一个分别与该阀体11E′的该第六开口1106E和该平面阀10E′的该排污开口1108E′相连通的第四连通通道1004E′，以允许原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该平面阀10E′形成的该第三连通通道1003E流入该第七开口1107E，再经该软化箱31的该第二导通开口302流入该软化箱31，和对该软化箱31中的软化材料(或水处理材料)，如软化树脂等，反向冲洗后，得到的污水或废水从该软化箱31的该第一导通开口301流出，然后流经该阀体11E′的该第六开口1106E流入该平面阀10E′的该第四连通通道1004E′，然后从该平面阀10E′的该排污开口1108E′流出，同时，还形成一个分别与该阀体11E′的该第二开口1102E和该内腔110E相连通的第十五连通通道10015E，以允许原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该第十五连通通道10015E流入该阀体11E′的该第二开口1102E，向使用者提供原水；根据一个软化滤芯(软化装置)正洗控制指令，通过该传动机构14E，如传动齿轮，驱动该驱动元件18E转动，以驱动该平面阀10E′的该动阀片13E′相对该定阀片12E′转动，从而形成一个分别与该阀体11E′的该内腔110E和该第六开口1106E相连通的第五连通通道1005E和一个分别与该阀体11E′的该第七开口1107E和该平面阀10E′的该排污开口1108E′相连通的第六连通通道1006E′，以允许原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该第五连通通道1005E流入该第六开口1106E，再进入该软化箱31的该第一导通开口301，对该软化箱31中的水处理材料或机构正向冲洗后，从该软化箱31的该第二导通开口302流出，然后流经该阀体11E′的该第七开口1107E流入该第六连通通道1006E′，然后从该平面阀10E′的该排污开口1108E′流出，同时，还形成一个分别与该阀体11E′的该第二开口1102E和该内腔110E相连通的第十五连通通道10015E，以允许原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该第十五连通通道10015E流入该阀体11E′的该第二开口1102E，向使用者提供原水；根据一个补水控制指令，通过该传动机构14E，如传动齿轮，驱动该驱动元件18E转动，以驱动该平面阀10E′的该动阀片13E′相对该定阀片12E′转动，从而形成一个分别与该阀体11E′的该内腔110E和该第四开口1104E相连通的第七连通通道1007E，以允许原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该第七连通通道1007E流入该第四开口1104E，再流入该射流器32的该射入口322，向盐液箱33补水，同时，还形成一个分别与该阀体11E′的该第二开口1102E和该内腔110E相连通的第十五连通通道10015E，以允许原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该第十五连通通道10015E流入该阀体11E′的该第二开口1102E，向使用者提供原水；根据一个净化装置正洗控制指令，通过该传动机构14E，如传动齿轮，驱动该驱动元件18E转动，以驱动该平面阀10E′的该动阀片13E′相对该定阀片12E′转动，从而形成一个分别与该阀体11E′的该内腔110E和该第五开口1105E相连通的第八连通通道1008E和一个分别与该阀体11E′的该第六开口1106E和该平面阀10E′的该排污开口1108E′相连通的第九连通通道1009E′，以允许原水自该阀体11E′的该第一开口1101E流入到该 阀体11E′的该内腔110E，然后通过该第八连通通道1008E流入该第五开口1105E，再进入该净化装置20的该第一连通开口201，对该净化装置20中的水处理材料或机构正向冲洗后，从该净化装置20的该第二连通开口202流出，然后流经该阀体11E′的该第六开口1106E流入该第九连通通道1009E′，然后从该平面阀10E′的该排污开口1108E′流出，同时，还形成一个分别与该阀体11E′的该第二开口1102E和该内腔110E相连通的第十五连通通道10015E，以允许原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该第十五连通通道10015E流入该阀体11E′的该第二开口1102E，向使用者提供原水。
如附图之图139A至图149G所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E′的该控制装置16E进一步被设置能够根据一个净化装置反洗控制指令，通过该传动机构14E，如传动齿轮，驱动该驱动元件18E转动，以驱动该平面阀10E′的该动阀片13E′相对该定阀片12E′转动，从而形成一个分别与该阀体11E′的该第五开口1105E和该平面阀10E′的该排污开口1108E′相连通的第十连通通道10010E′和一个分别与该阀体11E′的该内腔110E和该第六开口1106E相连通的第十二连通通道10012E，以允许原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该第十二连通通道10012E流入该第六开口1106E，再进入该净化装置20的该第二连通开口202，对该净化装置20中的水处理材料或机构反向冲洗后，从该净化装置20的该第一连通开口201流出，然后流经该阀体11E′的该第五开口1105E流入该第十连通通道10010E′，然后从该平面阀10E′的该排污开口1108E′流出，同时，还形成一个分别与该阀体11E′的该第二开口1102E和该内腔110E相连通的第十五连通通道10015E，以允许原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该第十五连通通道10015E流入该阀体11E′的该第二开口1102E，向使用者提供原水。
如附图之图139A至图149G所示，依本发明第四较佳实施例的净化-软化水处理系统的该平面阀10E′的该控制装置16E进一步被设置能够根据一个软化滤芯再生控制指令，通过该传动机构14E，如传动齿轮，驱动该驱动元件18E转动，以驱动该平面阀10E′的该动阀片13E′相对该定阀片12E′转动，从而形成一个分别与该阀体11E′的该内腔110E和该第三开口1103E相连通的第十一连通通道10011E、一个分别与该阀体11E的该第六开口1106E和该第四开口1104E相连通的第十三连通通道10013E和一个分别与该阀体11E′的该第七开口1107E和该平面阀10E′的该排污开口1108E′相连通的第十四连通通道10014E′，以允许原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该第十一连通通道10011E流入该第三开口1103E，再流入该射流器32的该射出口321，经过该射流器32射流，混合来自该盐液箱33的液体后经该射流器32的该射入口322流入该阀体11E′的该第四开口1104E，然后通过该第十三连通通道10013E流入该第六开口1106E，进入该软化箱31的该第一导通开口301，顺流再生该软化箱31中的软化树脂后，从该第二导通开口302流出，然后流经该阀体11E′的该第七开口1107E流入该第十四连通通道10014E′，然后从该平面阀10E′的该排污开口1108E′流出，同时，还形成一个分别与该阀体11E′的该第二开口1102E和该内腔110E相连通的第十五连通通道10015E，以允许原水自该阀体11E′的该第一开口1101E流入到该阀体11E′的该内腔110E，然后通过该第十五连通通道10015E流入该阀体11E′的该第二开口1102E，向使用者提供原水。
值得注意的是，该控制指令，如净化-软化控制指令、软化装置反洗控制指令、软化装置正洗控制指令、补水控制指令、净化装置正洗控制指令、净化装置反洗控制指令、软化滤芯再生控制指令等控制指令，可以被预设在该控制装置16E的控制模块，也可以通过一个电子通讯网络接收自一个控制终端，或者由使用者通过一个输入界面输入。例如，当本发明净化-软化水处理系统被设置具有一个用于该平面阀10E′的输入界面，如触控板或控制按钮时，使用者可通过触控面板或相应的控制按钮向该控制装置16E的控制模块发送上述控制指令，以使该控制装置16E的控制模块控制该控制装置16E的电机转动，从而通过该传动机构14E驱动该驱动元件18E转动。
如附图之图117和图118、图147A至图147G所示，依本发明第四较佳实施例的净化-软化水处理系统对原水的净化-软化处理被示例性地阐明，其中该净化装置20是一个净化滤芯，其中该净化装置20包括一个壳体21、一个被设置在该壳体21的连接头22和一个被设置在该壳体21内的过滤部23，其中该过滤部23可以是用于超滤过滤的超滤丝、滤网式过滤器或叠片式过滤器、PP棉或其它能够对原水进行过滤的水处理材料或过滤材料。示例性地，如附图之图147A至图147G所示，本发明净化-软化水处理系统的该软化装置30包括一个软化箱31，其中该软化箱31包括一个箱体311、一个集液单元312和一个水软化单元313，其中该箱体311具有一个软化腔3110、一个第一导通开口301和一个第二导通开口302，其中该集液单元312包括一个中心管3121，该水软化单元313适于容纳在该软化腔3110之内，其中该中心管3121适于与该第二导通开口302相连通，其中该中心管3121具有一个高端开口31211和一个低端开口31212，其中箱体311中的液体，如水，适于经该水软化单元313处理后，从该集液单元312的中心管3121的低端开口31212流入该中心管3121和自该中心管3121的高端开口31211流出；优选地，该箱体311中的水软化单元313包括水处理材料，如水软化树脂、具有软化性能的活性炭或其它类似软化材料或其组合。
相应地，如附图之图130A至图130F、图132A至图133G、图146A至图146F、图148A至图149G所示，依本发明第四较佳实施例，本发明进一步提供一种用于平面阀(或流体阀)的阀片组件，其中该阀片组件包括一个定阀片12E和一个动阀片13E，其中该定阀片12E具有一个第一流体控制面120E，该动阀片13E具有一个第二流体控制面130E，其中该动阀片13E的该第二流体控制面130E适于被设置在该定阀片12E的该第一流体控制面120E，且该动阀片13E被设置能够相对该定阀片12E转动，其中该平面阀具有一个第一通道101E，一个第二通道102E，一个第三通道103E，一个第四通道104E、一个第五通道105E、一个第六通道106E、一个第七通道107E、一个第八通道108E、一个第九通道109E、一个第十通道1010E、一个第十一通道1011E和一个第十二通道1012E，其中该第一通道101E、该第二通道102E、该第三通道103E、该第四通道104E、该第五通道105E、该第六通道106E、该第七通道107E、该第八通道108E和该第十二通道1012E分别设于该定阀片12E并分别自该定阀片12E的该第一流体控制面120E延伸；该第九通道109E、该第十通道1010E和该第十一通道1011E分别设于该动阀片13E并分别自该动阀片13E的该第二流体控制面130E延伸。
如说明书附图之图153和图154所示，根据本文上述内容，本发明进一步提供一种用于水处理系统，如净化-软化水处理系统的水路控制方法，其中该水处理系统具有一个软化装置和一个净化装置，该净化装置具有一个第一连通开口和一个第二连通开口，该软化装置具有一个第一导通开口 和一个第二导通开口，其特征在于，包括以下步骤：
(A)在该水处理系统的净化-软化工作状态，形成一个依次连通该净化装置的该第一连通开口、该净化装置的该第二连通开口、该软化装置的该第一导通开口、该软化装置的该第二导通开口的净化-软化水路，从而使原水能够自该净化装置流向该软化装置和使原水依次被净化和软化处理；
(B)在该水处理系统的软化装置反洗工作状态，形成一个依次连通该软化装置的该第二导通开口和该软化装置的该第一导通开口的软化装置反洗水路，从而使原水能够自该软化装置的该第二导通开口流向该软化装置的该第一导通开口和使该软化装置被反向冲洗；和
(C)在该水处理系统的净化装置反洗工作状态，形成一个依次连通该净化装置的该第二连通开口和该净化装置的该第一连通开口的净化装置反洗水路，从而使原水能够自该净化装置的该第二连通开口流向该净化装置的该第一连通开口和使该净化装置被反向冲洗。
如说明书附图之图153和图154所示，本发明用于水处理系统的水路控制方法进一步包括以下步骤：
(D1)在该水处理系统的软化树脂再生工作状态，形成一个依次连通该软化装置的该第二导通开口和该软化装置的该第一导通开口的软化树脂再生水路，从而使盐液能够自该软化装置的该第二导通开口流向该软化装置的该第一导通开口和使该软化装置内的软化树脂再生；和
(E)在该水处理系统的软化装置正洗工作状态，形成一个依次连通该软化装置的该第一导通开口和该软化装置的该第二导通开口的软化装置正洗水路，从而使原水能够自该软化装置的该第一导通开口流向该软化装置的该第二导通开口和使该软化装置被正向冲洗。
如说明书附图之图153和图154所示，本发明用于水处理系统的水路控制方法进一步包括以下步骤：
(D2)在该水处理系统的软化树脂再生工作状态，形成一个依次连通该软化装置的该第一导通开口和该软化装置的该第二导通开口的软化树脂再生水路，从而使盐液能够自该软化装置的该第一导通开口流向该软化装置的该第二导通开口和使该软化装置内的软化树脂再生；和
(E)在该水处理系统的软化装置正洗工作状态，形成一个依次连通该软化装置的该第一导通开口和该软化装置的该第二导通开口的软化装置正洗水路，从而使原水能够自该软化装置的该第一导通开口流向该软化装置的该第二导通开口和使该软化装置被正向冲洗。
如说明书附图之图153和图154所示，本发明用于水处理系统的水路控制方法进一步包括以下步骤：
(F)在该水处理系统的净化装置正洗工作状态，形成一个依次连通该净化装置的该第一连通开口和该净化装置的该第二连通开口的净化装置正洗水路，从而使原水能够自该净化装置的该第一连通开口流向该净化装置的该第二连通开口和使该净化装置被正向冲洗。
如说明书附图之图153和图154所示，本发明用于水处理系统的水路控制方法进一步包括以下步骤：
(G)在该水处理系统的补水工作状态，形成一个与该水处理系统的盐液箱相连通的补水水路。
根据本文内容可知，优选地，上述该净化-软化水路、该净化装置反洗水路、该软化装置反洗水路、该软化树脂再生水路、该软化装置正洗水路、该净化装置正洗水路和该补水水路均通过该水处理系统的单个流体阀控制形成。
值得注意的是，本发明水处理系统的该净化装置20可以是任何具有两个连通开口，如该第一连通开口201和该第二连通开口202的水过滤或净化机构，如前置过滤器、超滤过滤器、活性炭过滤器等。因此，本文中提到的水处理材料或机构可根据实际应用，被设置为滤网、活性炭、超滤丝、PP棉，甚至也可能被设置为RO膜。可以理解，本发明平面阀(或控制阀)尤其适用于无需提供净水的水处理系统，如本发明中的净化装置(或净水装置)为一个前置过滤器时，原水经前置过滤器处理后，流向软化装置(软水机)，而不再流向供水通路或净水管道。此时，本发明水处理系统仅提供软化水，而水处理系统也不再需要设置用于提供净水的供水通路和用于控制净水供应的流体阀(如电动球阀)。
可以理解，本文中的第一、第二、第三、第四、第五、第六、第七、第八、第九、第十、第十一、第十二、第十三、第十四和/或第十五仅用于描述本发明，对本发明不同部件(或元件)的命名和使本发明的不同部件、元件和结构之间产生区分。除非特别指出，否则其本身不具有次序或数目多少的含义。
特别指出的是，在不脱离本发明精神的情况下，对本发明水处理系统或平面阀进行简单结构改变得到的修改、变形和/或替换，也应视为在本发明的保护范围之内。例如：改变本发明平面阀的第一通道、第二通道，第三通道，第四通道、第五通道、第六通道、第七通道、第八通道、第九通道、第十通道、第十一通道、第十二通道和/或第十三通道被设置在第一流体控制面和/或第二流体控制面的位置，和/或改变第一通道、第二通道，第三通道，第四通道、第五通道、第六通道、第七通道、第八通道、第九通道、第十通道、第十一通道、第十二通道和/或第十三通道在第一流体控制面和/或第二流体控制面形成的通道开口的形状等，这些修改、变形和/或替换均应视为在本发明的保护范围之内。
本领域技术人员会明白附图中所示的和以上所描述的本发明实施例仅是对本发明的示例而不是限制。由此可以看到本发明目的可被充分有效完成。用于解释本发明功能和结构原理的该实施例已被充分说明和描述，且本发明不受基于这些实施例原理基础上的改变的限制。因此，本发明包括涵盖在附属权利要求书要求范围和精神之内的所有修改。

Claims (22)

  1. 一种净化-软化水处理系统，其特征在于，包括：
    一个平面阀，其中该平面阀包括一个阀体、一个动阀片和一个定阀片，其中该阀体形成一个内腔、一个第一开口、一个第二开口、一个第三开口、一个第四开口、一个第五开口、一个第六开口和一个第七开口，其中该定阀片具有一个第一流体控制面，该动阀片具有一个第二流体控制面，其中该动阀片和该定阀片均被设置在该内腔，其中该动阀片的该第二流体控制面被设置在该定阀片的该第一流体控制面，且该动阀片被设置能够相对该定阀片转动；
    一个净化装置，其中该净化装置具有一个第一连通开口和一个第二连通开口；和
    一个软化装置，其中该软化装置包括一个软化箱，其中该软化箱具有一个第一导通开口和一个第二导通开口，其中该净化装置的该第一连通开口与该阀体的该第五开口相连通，该净化装置的该第二连通开口和该软化箱的该第一导通开口均与该阀体的该第六开口相连通，该软化箱的该第二导通开口与该阀体的该第七开口相连通。
  2. 根据权利要求1所述的净化-软化水处理系统，其特征在于，具有一个第一工作状态，其中当该净化-软化水处理系统处在该第一工作状态时，该平面阀的该动阀片和该定阀片形成一个分别与该阀体的该第一开口和该第五开口相连通的第一连通通道和一个分别与该阀体的该第二开口和该第七开口相连通的第二连通通道。
  3. 根据权利要求2所述的净化-软化水处理系统，其特征在于，具有一个第二工作状态，其中当该净化-软化水处理系统处在该第二工作状态时，该平面阀的该动阀片和该定阀片形成一个分别与该阀体的该第一开口和该第七开口相连通的第三连通通道和一个分别与该阀体的该第六开口和一个排污开口相连通的第四连通通道。
  4. 根据权利要求3所述的净化-软化水处理系统，其特征在于，具有一个第三工作状态和一个第四工作状态，其中当该净化-软化水处理系统处在该第三工作状态时，该平面阀的该动阀片和该定阀片形成一个分别与该阀体的该第一开口和该第六开口相连通的第五连通通道和一个分别与该阀体的该第七开口和该排污开口相连通的第六连通通道，当该净化-软化水处理系统处在该第四工作状态时，该平面阀的该动阀片和该定阀片形成一个分别与该阀体的该第一开口和该第四开口相连通的第七连通通道。
  5. 根据权利要求4所述的净化-软化水处理系统，其特征在于，进一步具有一个第五工作状态，其中当该净化-软化水处理系统处在该第五工作状态时，该平面阀的该动阀片和该定阀片形成一个分别与该阀体的该第一开口和该第五开口相连通的第八连通通道和一个分别与该阀体的该第六开口和该排污开口相连通的第九连通通道。
  6. 根据权利要求5所述的净化-软化水处理系统，其特征在于，进一步具有一个第六工作状态和一个第七工作状态，其中当该净化-软化水处理系统处在该第六工作状态时，该平面阀的该动阀片和该定阀片形成一个分别与该阀体的该第五开口和该排污开口相连通的第十连通通道和一个分别与该阀体的该第一开口和该第六开口相连通的第十二连通通道；当该净化-软化水处理系统处在 该第七工作状态时，该平面阀的该动阀片和该定阀片形成一个分别与该阀体的该第一开口和该第三开口相连通的第十一连通通道、一个分别与该阀体的该第七开口和该第四开口相连通的第十三连通通道和一个分别与该阀体的该第六开口和该排污开口相连通的第十四连通通道。
  7. 根据权利要求5所述的净化-软化水处理系统，其特征在于，进一步具有一个第六工作状态和一个第七工作状态，其中当该净化-软化水处理系统处在该第六工作状态时，该平面阀的该动阀片和该定阀片形成一个分别与该阀体的该第五开口和该排污开口相连通的第十连通通道和一个分别与该阀体的该第一开口和该第六开口相连通的第十二连通通道；当该净化-软化水处理系统处在该第七工作状态时，该平面阀的该动阀片和该定阀片形成一个分别与该阀体的该第一开口和该第三开口相连通的第十一连通通道、一个分别与该阀体的该第六开口和该第四开口相连通的第十三连通通道和一个分别与该阀体的该第七开口和该排污开口相连通的第十四连通通道。
  8. 根据权利要求1所述的净化-软化水处理系统，其特征在于，该平面阀具有一个第一通道、一个第二通道、一个第三通道、一个第四通道、一个第五通道、一个第六通道、一个第七通道、一个第八通道、一个第九通道、一个第十通道和一个第十一通道，其中该第一通道、该第二通道、该第三通道、该第四通道、该第五通道、该第六通道、该第七通道和该第八通道分别设于该定阀片并分别自该定阀片的该第一流体控制面延伸；该第九通道、该第十通道和该第十一通道分别设于该动阀片并分别自该动阀片的该第二流体控制面延伸，其中该第一通道和该第二通道分别与该第五开口相连通，该第三通道和该第四通道分别与该第七开口相连通，该第五通道与该第二开口相连通，该第六通道与该第三开口相连通，该第七通道与该第四开口相连通，该第八通道与该第六开口相连通，该第九通道与该阀体的该内腔相连通，该阀体的该第一开口与该阀体的该内腔相连通，该第十一通道与一个排污开口相连通，其中该平面阀具有一个第一工作位，其中当平面阀处于该第一工作位时，该平面阀的该第九通道与该第一通道相连通，从而形成一个分别与该阀体的该内腔和该第五开口相连通的第一连通通道，该第十通道分别与该第三通道和该第五通道相连通，从而形成一个分别与该阀体的该第二开口和该第七开口相连通的第二连通通道。
  9. 根据权利要求8所述的净化-软化水处理系统，其特征在于，该平面阀具有一个第二工作位，其中当平面阀处于该第二工作位时，该平面阀的该第九通道与该第四通道相连通，从而形成一个分别与该阀体的该内腔和该第七开口相连通的第三连通通道，该第十一通道与该第八通道相连通，从而形成一个分别与该阀体的该第六开口和该排污开口相连通的第四连通通道。
  10. 根据权利要求9所述的净化-软化水处理系统，其特征在于，该平面阀具有一个第三工作位和一个第四工作位，其中当平面阀处于该第三工作位时，该平面阀的该第九通道与该第八通道相连通，从而形成一个分别与该阀体的该内腔和该第六开口相连通的第五连通通道，该平面阀的该第十一通道与该第三通道相连通，从而形成一个分别与该阀体的该第七开口和该排污开口相连通的第六连通通道；当该平面阀处于该第四工作位时，该平面阀的该第九通道与该第七通道相连通，从而形成一个分别与该阀体的该内腔和该第四开口相连通的第七连通通道。
  11. 根据权利要求10所述的净化-软化水处理系统，其特征在于，该平面阀具有一个第五工作位，当该平面阀处于该第五工作位时，该平面阀的该第九通道与该第二通道相连通，从而形成一个分别与该阀体的该内腔和该第五开口相连通的第八连通通道，该平面阀的该第十一通道与该第八通 道相连通，从而形成一个分别与该阀体的该第六开口和该排污开口相连通的第九连通通道。
  12. 根据权利要求11所述的净化-软化水处理系统，其特征在于，该平面阀具有一个第六工作位和一个第七工作位，当该平面阀处于该第六工作位时，该平面阀的该第十一通道与该第一通道相连通，从而形成一个分别与该阀体的该第五开口和该排污开口相连通的第十连通通道，该第八通道与该第九通道相连通，从而形成一个分别与该阀体的该内腔和该第六开口相连通的第十二连通通道；当平面阀处于该第七工作位时，该平面阀的该第九通道与该第六通道相连通，从而形成一个分别与该阀体的该内腔和该第三开口相连通的第十一连通通道，该第十通道分别与该第四通道和该第七通道相连通，从而形成一个分别与该阀体的该第七开口和该第四开口相连通的第十三连通通道，该第十一通道与该第八通道相连通，从而形成一个分别与该阀体的该第六开口和该排污开口相连通的第十四连通通道。
  13. 根据权利要求8、9、10、11或12所述的的净化-软化水处理系统，其特征在于，该平面阀进一步具有一个第十二通道，该第十二通道设于该定阀片并自该定阀片的该第一流体控制面延伸，该第十一通道与该第十二通道相连通，该第十二通道与该排污开口相连通。
  14. 根据权利要求8、9、10、11或12所述的的净化-软化水处理系统，其特征在于，该平面阀的该第一通道、该第八通道、该第二通道、该第四通道、该第七通道、该第六通道、该第三通道和该第五通道以此顺序顺时针地排布在该定阀片；该平面阀的该第十一通道、该第十通道和该第九通道以此顺序顺时针地排布在该动阀片。
  15. 根据权利要求1所述的净化-软化水处理系统，其特征在于，该平面阀具有一个第一通道、一个第二通道、一个第三通道、一个第四通道、一个第五通道、一个第六通道、一个第七通道、一个第八通道、一个第九通道、一个第十通道、一个第十一通道和一个第十二通道，其中该第一通道、该第二通道、该第三通道、该第四通道、该第五通道、该第六通道、该第七通道、该第八通道和该第十二通道分别设于该定阀片并分别自该定阀片的该第一流体控制面延伸；该第九通道、该第十通道和该第十一通道分别设于该动阀片并分别自该动阀片的该第二流体控制面延伸，其中该第一通道和该第二通道分别与该第五开口相连通，该第三通道和该第四通道分别与该第七开口相连通，该第五通道与该第二开口相连通，该第六通道与该第三开口相连通，该第七通道与该第四开口相连通，该第八通道和该第十二通道分别与该第六开口相连通，该第九通道与该阀体的该内腔相连通，该阀体的该第一开口与该阀体的该内腔相连通，该第十一通道与一个排污开口相连通，其中该平面阀具有一个第一工作位，其中当平面阀处于该第一工作位时，该平面阀的该第九通道与该第一通道相连通，从而形成一个分别与该阀体的该内腔和该第五开口相连通的第一连通通道，该第十通道分别与该第三通道和该第五通道相连通，从而形成一个分别与该阀体的该第二开口和该第七开口相连通的第二连通通道。
  16. 根据权利要求15所述的净化-软化水处理系统，其特征在于，该平面阀具有一个第二工作位，其中当平面阀处于该第二工作位时，该平面阀的该第九通道与该第四通道相连通，从而形成一个分别与该阀体的该内腔和该第七开口相连通的第三连通通道，该第十一通道与该第八通道相连通，从而形成一个分别与该阀体的该第六开口和该排污开口相连通的第四连通通道。
  17. 根据权利要求16所述的净化-软化水处理系统，其特征在于，该平面阀具有一个第三工作 位和一个第四工作位，其中当平面阀处于该第三工作位时，该平面阀的该第九通道与该第八通道相连通，从而形成一个分别与该阀体的该内腔和该第六开口相连通的第五连通通道，该平面阀的该第十一通道与该第三通道相连通，从而形成一个分别与该阀体的该第七开口和该排污开口相连通的第六连通通道；当该平面阀处于该第四工作位时，该平面阀的该第九通道与该第七通道相连通，从而形成一个分别与该阀体的该内腔和该第四开口相连通的第七连通通道。
  18. 根据权利要求17所述的净化-软化水处理系统，其特征在于，该平面阀具有一个第五工作位，当该平面阀处于该第五工作位时，该平面阀的该第九通道与该第二通道相连通，从而形成一个分别与该阀体的该内腔和该第五开口相连通的第八连通通道，该平面阀的该第十一通道与该第八通道相连通，从而形成一个分别与该阀体的该第六开口和该排污开口相连通的第九连通通道。
  19. 根据权利要求18所述的净化-软化水处理系统，其特征在于，该平面阀具有一个第六工作位和一个第七工作位，当该平面阀处于该第六工作位时，该平面阀的该第十一通道与该第一通道相连通，从而形成一个分别与该阀体的该第五开口和该排污开口相连通的第十连通通道，该第八通道与该第九通道相连通，从而形成一个分别与该阀体的该内腔和该第六开口相连通的第十二连通通道；当平面阀处于该第七工作位时，该平面阀的该第九通道与该第六通道相连通，从而形成一个分别与该阀体的该内腔和该第三开口相连通的第十一连通通道，该第十通道分别与该第十二通道和该第七通道相连通，从而形成一个分别与该阀体的该第六开口和该第四开口相连通的第十三连通通道，该第十一通道与该第四通道相连通，从而形成一个分别与该阀体的该第七开口和该排污开口相连通的第十四连通通道。
  20. 根据权利要求15、16、17、18或19所述的的净化-软化水处理系统，其特征在于，该平面阀进一步具有一个第十三通道，该第十三通道设于该定阀片并自该定阀片的该第一流体控制面延伸，该第十一通道与该第十三通道相连通，该第十三通道与该排污开口相连通。
  21. 根据权利要求15、16、17、18或19所述的的净化-软化水处理系统，其特征在于，该平面阀的该第一通道、该第八通道、该第二通道、该第四通道、该第十二通道、该第七通道、该第六通道、该第五通道和该第三通道以此顺序顺时针地排布在该定阀片；该平面阀的该第十一通道、该第十通道和该第九通道以此顺序顺时针地排布在该动阀片。
  22. 根据权利要求6或7所述的的净化-软化水处理系统，其特征在于，当该净化-软化水处理系统处在该第二工作状态、该第三工作状态、该第四工作状态、该第五工作状态、该第六工作状态和该第七工作状态时，该阀体的该第一开口与该阀体的该内腔相连通，该平面阀的该动阀片和该定阀片形成一个分别与该阀体的该第二开口和该内腔相连通的第十五连通通道。
PCT/CN2019/089012 2018-05-30 2019-05-29 净化-软化水处理系统、水处理方法及其平面阀 WO2019228397A1 (zh)

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