CN216584451U - Cold boiled water direct drinking water supply treatment system - Google Patents
Cold boiled water direct drinking water supply treatment system Download PDFInfo
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- CN216584451U CN216584451U CN202123115646.9U CN202123115646U CN216584451U CN 216584451 U CN216584451 U CN 216584451U CN 202123115646 U CN202123115646 U CN 202123115646U CN 216584451 U CN216584451 U CN 216584451U
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Abstract
The utility model discloses a cold boiled water direct drinking water supply treatment system which comprises an original water tank, a self-sucking pump, a PP and carbon rod composite filter element, an RO membrane filter element, a pure water tank, a water sucking pump and a water outlet nozzle, wherein the pure water tank stores pure water prepared by filtering tap water by the PP and carbon rod composite filter element and the RO membrane filter element, and the water sucking pump pumps out the pure water stored in the pure water tank through the water outlet nozzle; a pipeline between the water pump and the water outlet nozzle is also provided with a heat pipe which quickly heats the pure water to a boiling state; a heat exchange module which is correspondingly pumped into the heat pipe and preheats the pure water in advance through convection circulation is arranged on a pipeline between the water suction pump and the pure water tank; namely, the rear end of the heat pipe is also connected with an adjusting valve for adjusting and controlling the mixing ratio of the boiling water and the cooled plain boiled water; through the heat pipe, the heat exchange module and the regulating valve, the heating efficiency is effectively improved, and the water outlet nozzle supplies pure boiled water with different temperatures.
Description
[ technical field ] A
The utility model relates to a water purification technology, in particular to a cold boiled water direct drinking water supply treatment system.
[ background of the utility model ]
Along with the improvement of the living standard of people, in daily life, purified water is often required, so that the water purifying equipment is more and more widely used, but the existing water purifying equipment only can provide drinking water with two temperatures of normal temperature water and boiled water, the boiled water is often provided as the heated boiled water which is directly supplied to the outside, the water temperature is high, the drinking cannot be directly carried out, and the water purifying equipment generally needs to be placed for a long time to be changed into cold boiled water for drinking; secondly, in the prior art, water is directly boiled to 40 ℃ without being boiled and then is kept warm for people to drink, and the unboiled water has the problems of bacteria breeding, residual chlorine and the like, so that the equipment for preparing purified drinking water is urgently needed, can regulate the temperature of the boiled water after being heated in advance, and can provide various boiled water with required temperature for users in time when the equipment is used by the users.
[ Utility model ] A method for manufacturing a semiconductor device
The utility model provides a cold boiled water direct drinking water supply treatment system which occupies small space, is convenient to use, is convenient for regulating the temperature of heated boiling water and is convenient for quickly supplying boiled water with different temperatures.
In order to achieve the purpose, the utility model provides the following technical scheme:
a cool boiled water direct drinking water supply treatment system comprises a raw water tank, a self-sucking pump, a PP and carbon rod composite filter element, an RO membrane filter element, a pure water tank, a water sucking pump and a water outlet nozzle, wherein the raw water tank, the self-sucking pump, the PP and carbon rod composite filter element, the RO membrane filter element, the pure water tank, the water sucking pump and the water outlet nozzle are connected through pipelines;
a tap water storage cavity for containing an external tap water supply source and a wastewater storage cavity for containing and collecting wastewater treated by the RO membrane filter element are separated in the raw water tank, and a flushing electromagnetic valve for controlling the on-off of the discharged wastewater and a one-way valve for one-way circulation of the wastewater in the pipeline are further arranged on the pipeline between the RO membrane filter element and the wastewater storage cavity in the raw water tank;
the tap water in the tap water storage cavity in the original water tank is pumped by a self-priming pump and then sequentially passes through the PP and carbon rod composite filter element, the RO membrane filter element, the pure water tank, the water suction pump and the water outlet nozzle through pipelines, the pure water tank stores pure water prepared by filtering tap water by the PP and carbon rod composite filter element and the RO membrane filter element, and the water suction pump pumps out the pure water stored in the pure water tank through the water outlet nozzle;
a pipeline between the water suction pump and the water outlet nozzle is also provided with a heat pipe which is connected with an external power supply and quickly heats the pure water to a boiling state;
a tee joint used for shunting and guiding out heated boiling water is further arranged on a pipeline between the instant heat pipe and the water outlet nozzle, a branch of the tee joint is connected with a boiling water return pipeline, and a corresponding pipeline between the water suction pump and the pure water tank is further provided with a heat exchange module which is communicated with the boiling water return pipeline and used for preheating pure water pumped into the instant heat pipe in advance through convection circulation;
the heat exchange module is connected with a cooling white boiled water pipeline which leads out cooled pure white boiled water and mixes the pure white boiled water with the boiled water led out from the other branch of the three-way joint;
and a regulating valve for regulating the mixing ratio of the boiling water and the cooling boiled water and supplying the boiled water with different temperatures to the water outlet nozzle is arranged at the mixing position of the cooling boiled water pipeline and the boiling water of the other branch of the three-way joint.
Furthermore, a water outlet NTC detector used for calibrating the temperature of outlet water is connected to a pipeline at the rear end of the water outlet nozzle, a first water inlet valve which is communicated with a waste water storage cavity of the original water tank and used for guiding flow and discharging boiled water which does not reach the temperature requirement set by a user into the waste water storage cavity is further arranged on a pipeline between the water outlet NTC detector and the water outlet nozzle, the first water inlet valve adopts a water inlet and outlet control structure, a water inlet of the first water inlet valve is communicated with the water outlet NTC detector through a pipeline, two water outlets of the first water inlet valve are respectively communicated with the waste water storage cavity of the original water tank and the water outlet nozzle through pipelines, and when the water outlet detector detects that the temperature of water in the pipeline reaches the set value set by the user, the first water inlet valve stops draining to the waste water storage cavity and is directly communicated with the water outlet nozzle for supplying water.
Furthermore, a water outlet NTC detector used for calibrating the temperature of outlet water is connected to a pipeline at the rear end of the water outlet nozzle, and a third water inlet valve which is communicated with a tap water storage cavity of the raw water tank, is used for guiding water and discharging boiled water which does not reach the temperature requirement set by the user into the tap water storage cavity is further arranged on the pipeline between the water outlet NTC detector and the water outlet nozzle;
the third water inlet valve adopts a water control structure with one inlet and two outlets, a water inlet of the third water inlet valve is communicated with the water outlet NTC detector through a pipeline, and two water outlets of the third water inlet valve are respectively communicated with a tap water storage cavity of the raw water tank and the water outlet nozzle through pipelines;
and when the water outlet NTC detector detects that the water temperature in the pipeline reaches a set value of a user, the third water inlet valve stops draining the tap water storage cavity and directly communicates with the water outlet nozzle to supply water.
Furthermore, a water outlet NTC detector used for calibrating the temperature of outlet water is connected to a pipeline at the rear end of the water outlet nozzle, and a fourth water inlet valve which is communicated with the pure water tank, is used for guiding water and discharging boiled water which does not reach the temperature requirement set by a user into the pure water tank is further arranged on the pipeline between the water outlet NTC detector and the water outlet nozzle;
the fourth water inlet valve adopts a water control structure with one inlet and two outlets, the water inlet of the fourth water inlet valve is communicated with the water outlet NTC detector through a pipeline, and the two water outlets of the fourth water inlet valve are respectively communicated with the pure water tank and the water outlet nozzle through pipelines;
and a second one-way valve for preventing water in the pure water tank from flowing backwards is further arranged on the pipeline between the fourth water inlet valve and the pure water tank, and when the water outlet NTC detector detects that the water temperature in the pipeline reaches a set value of a user, the fourth water inlet valve stops draining water to the pure water tank and is directly communicated with the water outlet nozzle to supply water.
Furthermore, a second water inlet valve which is communicated with a water inlet end of the water suction pump and used for avoiding the heat exchange module to directly lead out the normal-temperature pure water is further arranged on a pipeline between the pure water tank and the heat exchange module, the second water inlet valve adopts a one-inlet-two-outlet water control structure, a water inlet of the second water inlet valve is communicated with a water outlet of the pure water tank through a pipeline, and two water outlets of the second water inlet valve are communicated with the heat exchange module and the water suction pump through pipelines respectively.
Furthermore, the water inlet of the pure water tank is also provided with a post-carbon rod filter element for adjusting the pH value of the pure water filtered by the PP and carbon rod composite filter element and the RO membrane filter element to improve the taste of the pure water.
Furthermore, a pure water high liquid level detector and a pure water low liquid level detector which are used for detecting the level of pure water in the tank body are respectively arranged in the pure water tank.
Furthermore, the bottom lateral wall of running water storage chamber in the former water tank is provided with the former water low liquid level detector that is used for detecting that the running water is in the low liquid level and is provided with the water level detector that trades that is used for controlling the cavity to trade water on the bottom surface of running water storage chamber.
Furthermore, the heat exchange module is a plate heat exchanger or a coiled heat exchanger consisting of an inner pipe and an outer pipe which are concentrically arranged, the inner pipe of the coiled heat exchanger is a hot water pipe communicated with the boiling water return pipeline, and the outer pipe of the coiled heat exchanger is a cooling water pipe communicated with normal-temperature pure water supplied by the pure water tank.
Furthermore, a raw water TDS probe for measuring the cleanness degree of water quality is also arranged on a supply pipeline between the raw water tank and the self-priming pump; and a pure water TDS probe for measuring the cleanness degree of water is further arranged on the pure water supply pipeline between the RO membrane filter element and the pure water tank.
Furthermore, the pure water box is also internally provided with a UV-LED bacteriostatic lamp for inhibiting pure water in the box body or a rear carbon rod filter element from generating bacteria.
The utility model has the beneficial effects that:
according to the utility model, the boiling water is quickly boiled through the instant heating pipe, the boiling water and the normal-temperature pure water flowing into the instant heating pipe are subjected to convective heat exchange and temperature reduction through the heat exchange module, and finally the mixed water ratio of the boiling water and the cooled white boiled water is regulated and controlled through the regulating valve before the water outlet nozzle discharges water, so that the temperature is safely and physically reduced, the white boiled water with different temperatures is supplied to the water outlet nozzle at any time, particularly, the white boiled water capable of being instantly drunk is provided, and the requirements of users at any time are met.
Moreover, the problems that in the prior art, water is directly boiled to 40 ℃ for heat preservation, bacteria are easy to breed, chlorine is remained and the like are solved, the long process of recooling boiled water which is boiled naturally is shortened, the heating efficiency can be effectively improved, and convenience is brought to drinking. Meanwhile, a UV-LED antibacterial lamp system is arranged in the water storage tank, the sterilization rate can reach 99.99%, bacterial pollution in the water storage cavity is avoided, and the sterility of the discharged water is ensured.
Meanwhile, as the temperature calibration of the water outlet NTC detector needs a certain time, the temperature of the water just coming out can deviate from the temperature set by a client, and the water passes through the first water inlet valve with one inlet and two outlets, if the temperature of the water detected by the water outlet NTC detector does not reach the temperature set by a user, the water flowing out directly flows back to the waste water storage cavity of the original water tank through the control of the first water inlet valve, and the other end of the first water inlet valve is opened until the temperature of the water reaches the set value of the user, and the water is discharged through the water outlet nozzle; or the water inlet valve is communicated with a tap water storage cavity of the original water tank through a third water inlet valve, or the water inlet valve is communicated with the pure water tank through a fourth water inlet valve, and the backflow water is respectively stored in the tap water storage cavity of the original water tank or the pure water tank; the boiled water reaching the temperature required by the user can be accurately realized. Meanwhile, when warm water is just supplied to a user and the heat exchange module still has waste heat, the user needs to continuously use water at once and needs to use the water as normal-temperature water, the water is stopped from being supplied to the heat exchange module through the second water inlet valve and is directly communicated with the water suction pump, the heat pipe stops heating, the water outlet nozzle directly supplies the normal-temperature water, the water demand of the user is met, the water supply efficiency is effectively improved, and energy loss at the heat exchange module is prevented.
In addition, a rear carbon rod filter element for adjusting the pH value of pure water to improve the taste of the pure water is arranged at the water inlet of the pure water tank, the characteristic that a tank cover on the top side of the pure water tank is convenient to open is utilized, the water quality is ensured, meanwhile, the replacement of the rear carbon rod filter element is convenient, and the design defect that the carbon rod filter element in the existing water purifying equipment is inconvenient to replace or is forcibly replaced inconsistent with the service life of other filter elements is overcome.
[ description of the drawings ]
FIG. 1 is a schematic diagram of a system according to a first embodiment of the present invention;
FIG. 2 is a schematic diagram of a system according to a second embodiment of the present invention;
FIG. 3 is a schematic diagram of a system according to a third embodiment of the present invention;
FIG. 4 is a schematic diagram of a system according to a fourth embodiment of the present invention;
the utility model is further explained with reference to the drawings and the embodiments.
[ detailed description ] embodiments
The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the drawings in the embodiments of the present invention, and it is obvious that the described embodiments are only a part of the embodiments of the present invention, and not all of the embodiments. All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present invention. As used herein, the word "comprising" and similar words are intended to mean that the element or item listed before the word covers the element or item listed after the word and its equivalents, but does not exclude other elements or items.
It should be noted that the terms "first", "second", "third" and "fourth" are used for descriptive purposes only and are not to be construed as indicating or implying relative importance or implicitly indicating the number of technical features indicated. Thus, features defined as "first", "second", "third", "fourth" may explicitly or implicitly include one or more of the features. In the description of the present invention, "a plurality" means two or more unless specifically defined otherwise.
Example one
A cool boiled water direct drinking water supply processing system is shown in figure 1 and is used for rapidly providing pure boiled water which is directly drunk after temperature adjustment, and comprises an original water tank 1, a self-sucking pump 2, a PP and carbon rod composite filter element 3, an RO membrane filter element 4, a pure water tank 5, a water sucking pump 6 and a water outlet nozzle 7, wherein the original water tank 1, the self-sucking pump 2, the PP and carbon rod composite filter element 3, the RO membrane filter element 4, the pure water tank 5, the water sucking pump 6 and the water outlet nozzle 7 are connected through pipelines; the raw water tank 1 is divided into a tap water storage cavity 1a for containing a tap water source supplied from the outside and a wastewater storage cavity 1b for containing and collecting wastewater treated by the RO membrane filter element 4, the side wall of the bottom of the tap water storage cavity 1a in the raw water tank 1 is provided with a raw water low liquid level detector 8 for detecting that tap water is at a low liquid level, and the bottom surface of the tap water storage cavity 1a is provided with a water changing liquid level detector 9 for controlling water changing in the cavity; a flushing electromagnetic valve 10 for controlling the on-off of the discharged wastewater and a one-way valve 11 for the one-way circulation of the wastewater in the pipeline are also arranged on the pipeline between the RO membrane filter element 4 and the wastewater storage cavity 1b in the raw water tank 1; tap water in a tap water storage cavity 1a in an original water tank 1 is pumped by a self-priming pump 2 and then sequentially passes through a PP (polypropylene) and carbon rod composite filter element 3, an RO (reverse osmosis) membrane filter element 4, a pure water tank 5, a water suction pump 6 and a water outlet nozzle 7 through pipelines, the pure water tank 5 stores pure water prepared by filtering the tap water by the PP and carbon rod composite filter element 3 and the RO membrane filter element 4, and the pure water stored in the pure water tank 5 is pumped out by the water outlet nozzle 7 through the water suction pump 6. The water inlet of the pure water tank 5 is also provided with a post carbon rod filter element 12 for adjusting the pH value of the pure water filtered by the PP and carbon rod composite filter element 3 and the RO membrane filter element 4 to improve the taste of the pure water, and the pure water tank 5 is also internally provided with a pure water high liquid level detector 13 and a pure water low liquid level detector 14 which are used for detecting the level of the pure water in the tank body respectively.
As shown in fig. 1, an instantaneous pipe 15 connected to an external power supply for rapidly heating pure water to boiling is further disposed on the pipeline between the water pump 6 and the water outlet nozzle 7, a three-way joint 16 for diverting and guiding out heated boiling water is further disposed on the pipeline between the instantaneous pipe 15 and the water outlet nozzle 7, a branch of the three-way joint 16 is connected to a boiling water return pipeline 17, and a heat exchange module 18 communicated with the boiling water return pipeline 17 and used for preheating the pure water pumped into the instantaneous pipe 15 in advance through convection circulation is further disposed on the corresponding pipeline between the water pump 6 and the pure water tank 5; the heat exchange module 18 is connected with a cooling white boiled water pipeline 19 which leads out the cooled pure white boiled water and mixes with the boiled water led out from the other branch of the three-way joint 16, and a regulating valve 20 which regulates the mixing ratio of the boiled water and the cooling white boiled water and is used for supplying the white boiled water with different temperatures to the water outlet nozzle 7 is arranged at the mixing position of the cooling white boiled water pipeline 19 and the boiled water in the other branch of the three-way joint 16. The heat exchange module 18 is a plate heat exchanger or a coiled heat exchanger composed of concentrically arranged inner and outer pipes, the inner pipe of the coiled heat exchanger is a hot water pipe communicated with the boiling water return pipeline 17, and the outer pipe is a cooling water pipe communicated with normal temperature pure water supplied by the pure water tank 5.
As shown in fig. 1, a raw water TDS probe 21 for measuring the degree of water cleanness is further provided on the supply line between the raw water tank 1 and the self-priming pump 2, a pure water TDS probe 22 for measuring the degree of water cleanness is further provided on the pure water supply line between the RO membrane filter element 4 and the pure water tank 5, and a discharge NTC detector 23 for calibrating the temperature of the discharge water is further connected to the line at the rear end of the discharge nozzle 7.
When the device is used, pure water filtered by the PP and carbon rod composite filter element 3 and the RO membrane filter element 4 passes through the two-part pure water TDS probe 22 and the rear carbon rod filter element 12, and then is stored in the pure water box 5. When the water outlet nozzle 7 supplies water, the water pump 6 pumps out pure water in the pure water tank 5, the pure water passes through the normal-temperature water end of the heat exchange module 18 and then reaches the instant heating module to heat the pure water to boiling water, the heated pure water is divided into two paths, one path passes through the H end of the regulating valve 20, and the other path passes through the hot water end of the heat exchange module 18; hot water and normal-temperature water form convection in the heat exchange module 18, the hot water is rapidly cooled by utilizing the heat transfer principle, and the normal-temperature water is preheated, so that the heat loss is greatly reduced, and the water production efficiency is improved; then, the cooled pure water flows through the L end of the regulating valve 20, the regulating valve 20 regulates the water mixing ratio of the hot water entering the H end and the cooled plain boiled water of the L end corresponding to the heat exchange module 18, the water outlet NTC detector 23 detects and calibrates the water outlet temperature, and therefore the plain boiled water reaching the temperature required by the user flows out through the water outlet nozzle 7, and the user can hold the pure warm boiled water which can be drunk immediately.
In the working process of the whole machine, boiled water is rapidly cooled through the heat exchange module 18, the mixing ratio of the boiled water and the water after heat exchange is adjusted through the regulating valve 20, the temperature is safely and physically reduced, white boiled water with different temperatures is supplied to the water outlet nozzle 7 at any time, so that warm boiled water with the temperature required by a user is achieved, the user can drink clean warm boiled water at any time, and the operation is convenient and rapid.
Example two
As shown in fig. 2, the difference between this embodiment and the first embodiment is that a pipeline between the water outlet NTC detector 23 and the water outlet nozzle 7 is further provided with a first water inlet valve 24 which is communicated with the waste water storage cavity 1b of the original water tank 1 and is used for guiding and discharging boiled water which does not reach the temperature requirement set by the user into the waste water storage cavity 1b, the first water inlet valve 24 adopts a water control structure with one inlet and two outlets, the water inlet of the first water inlet valve 24 is communicated with the water outlet NTC detector 23 through the pipeline, and the two outlets of the first water inlet valve 24 are respectively communicated with the waste water storage cavity 1b of the original water tank 1 and the water outlet nozzle 7 through the pipeline; when the water outlet NTC detector 23 detects that the temperature of water in the pipe reaches a user set value, the first water inlet valve 24 stops discharging water to the waste water storage chamber 1b and directly communicates with the water outlet nozzle 7 to supply water.
The reason is that a certain time is needed for temperature calibration of the water outlet NTC detector 23, the temperature of the water just coming out can deviate from the temperature set by a client, the water passes through the first water inlet valve 24 with two inlets, and when the temperature of the water detected by the water outlet NTC detector 23 does not reach the temperature set by the user, the water flowing out is controlled by the first water inlet valve 24 to directly flow back to the waste water storage cavity 1b of the original water tank 1, until the temperature of the water reaches the set value of the user, the other end of the first water inlet valve 24 is opened, and the water is discharged through the water outlet nozzle 7, so that the boiled water reaching the temperature required by the user accurately is realized.
As shown in fig. 2, a second water inlet valve 25 is further disposed on the pipeline between the pure water tank 5 and the heat exchange module 18, the second water inlet valve 25 is communicated with the water inlet end of the water pump 6 and is used for avoiding the heat exchange module 18 from directly discharging the normal temperature pure water, the second water inlet valve 25 also adopts a one-inlet-two-outlet water control structure, the water inlet of the second water inlet valve 25 is communicated with the water outlet of the pure water tank 5 through the pipeline, and the two water outlets of the second water inlet valve 25 are respectively communicated with the heat exchange module 18 and the water pump 6 through the pipelines. Therefore, after warm boiled water is supplied to a user and the heat exchange module 18 has residual heat, when the user continuously uses water immediately and needs the water to be normal-temperature water, the water supply to the heat exchange module 18 is stopped through the second water inlet valve 25 and is directly communicated with the water suction pump 6, the heat pipe 15 is controlled to stop heating, the water outlet nozzle 7 directly supplies the normal-temperature water, the water use requirement of the user is met, the water supply efficiency is effectively improved, and the energy loss at the heat exchange module 18 is prevented.
EXAMPLE III
As shown in fig. 3, the difference between this embodiment and the first embodiment is that a water outlet NTC detector 23 for calibrating the temperature of the outlet water is further connected to a pipeline at the rear end of the water outlet nozzle 7, and a third water inlet valve 26, which is communicated with the tap water storage chamber 1a of the raw water tank 1 and is used for guiding the flow of the outlet water and discharging the boiled water that does not reach the temperature requirement set by the user into the tap water storage chamber 1a, is further arranged on the pipeline between the water outlet NTC detector 23 and the water outlet nozzle 7; the third water inlet valve 26 adopts a one-inlet-two-outlet water control structure, a water inlet of the third water inlet valve 26 is communicated with the water outlet NTC detector 23 through a pipeline, and two water outlets of the third water inlet valve 26 are respectively communicated with the tap water storage cavity 1a and the water outlet nozzle 7 of the raw water tank 1 through pipelines.
A first one-way valve 27 for preventing water flow in the tap water storage cavity 1a from flowing backwards is further arranged on a pipeline between the third water inlet valve 26 and the tap water storage cavity 1a of the original water tank 1, and when the water outlet NTC detector 23 detects that the water temperature in the pipeline reaches a user set value, the third water inlet valve 26 stops draining water to the tap water storage cavity 1a and directly communicates with the water outlet nozzle 7 to supply water; therefore, the water flowing back to the original water tank 1 can be reused, and the waste of water resources and the times of water changing of users are reduced.
Example four
As shown in fig. 4, the difference between this embodiment and the first embodiment is that a water outlet NTC detector 23 for calibrating the temperature of the outlet water is further connected to the pipeline at the rear end of the water outlet nozzle 7, and a fourth water inlet valve 28, which is communicated with the pure water tank 5 and is used for guiding the flow and discharging the boiled water which does not reach the temperature requirement set by the user into the pure water tank 5, is further arranged on the pipeline between the water outlet NTC detector 23 and the water outlet nozzle 7; the fourth water inlet valve 28 also adopts a water control structure with one inlet and two outlets, the water inlet of the fourth water inlet valve 28 is communicated with the water outlet NTC detector 23 through a pipeline, and the two water outlets of the fourth water inlet valve 28 are respectively communicated with the pure water tank 5 and the water outlet nozzle 7 through pipelines.
A second check valve 29 for preventing the reverse flow of the water in the pure water tank 5 is further provided on the pipe between the fourth inlet valve 28 and the pure water tank 5, and when the NTC detector 23 for water outlet detects that the temperature of the water in the pipe reaches the user set value, the fourth inlet valve 28 stops the discharge of the water to the pure water tank 5 and directly communicates with the outlet nozzle 7 for water supply. Thus, the water which flows back to the pure water tank 5 can be reused, and the waste of water resources and the times of water changing of users are reduced.
The above-mentioned embodiments are only preferred embodiments of the present invention, and should not be construed as limiting the scope of the utility model, and obvious modifications made to the shape, structure and principle of the present invention and other modifications without departing from the spirit of the present invention shall be covered by the protection scope of the present invention.
Claims (11)
1. A cool boiled water direct drinking water supply treatment system comprises a raw water tank, a self-sucking pump, a PP and carbon rod composite filter element, an RO membrane filter element, a pure water tank, a water sucking pump and a water outlet nozzle, wherein the raw water tank, the self-sucking pump, the PP and carbon rod composite filter element, the RO membrane filter element, the pure water tank, the water sucking pump and the water outlet nozzle are connected through pipelines; it is characterized in that the preparation method is characterized in that,
a tap water storage cavity for containing an external tap water supply source and a wastewater storage cavity for containing and collecting wastewater treated by the RO membrane filter element are separated in the raw water tank, and a flushing electromagnetic valve for controlling the on-off of the discharged wastewater and a one-way valve for one-way circulation of the wastewater in the pipeline are further arranged on the pipeline between the RO membrane filter element and the wastewater storage cavity in the raw water tank;
the tap water in the tap water storage cavity in the original water tank is pumped by a self-priming pump and then sequentially passes through the PP and carbon rod composite filter element, the RO membrane filter element, the pure water tank, the water suction pump and the water outlet nozzle through pipelines, the pure water tank stores pure water prepared by filtering tap water by the PP and carbon rod composite filter element and the RO membrane filter element, and the water suction pump pumps out the pure water stored in the pure water tank through the water outlet nozzle;
a pipeline between the water suction pump and the water outlet nozzle is also provided with a heat pipe which is connected with an external power supply and quickly heats the pure water to a boiling state;
a tee joint used for shunting and guiding out heated boiling water is further arranged on a pipeline between the instant heat pipe and the water outlet nozzle, a branch of the tee joint is connected with a boiling water return pipeline, and a corresponding pipeline between the water suction pump and the pure water tank is further provided with a heat exchange module which is communicated with the boiling water return pipeline and used for preheating pure water pumped into the instant heat pipe in advance through convection circulation;
the heat exchange module is connected with a cooling white boiled water pipeline which leads out cooled pure white boiled water and mixes the pure white boiled water with the boiled water led out from the other branch of the three-way joint;
and a regulating valve for regulating the mixing ratio of the boiling water and the cooling boiled water and supplying the boiled water with different temperatures to the water outlet nozzle is arranged at the mixing position of the cooling boiled water pipeline and the boiling water of the other branch of the three-way joint.
2. The cool boiled water direct drinking water supply processing system according to claim 1, a water outlet NTC detector for calibrating the temperature of the outlet water is also connected to the pipeline at the rear end of the water outlet nozzle, a first water inlet valve which is communicated with a waste water storage cavity of the raw water tank and is used for guiding and discharging boiled water which does not reach the temperature requirement set by a user into the waste water storage cavity is also arranged on a pipeline between the water outlet NTC detector and the water outlet nozzle, the first water inlet valve adopts a water control structure with one inlet and two outlets, the water inlet of the first water inlet valve is communicated with the water outlet NTC detector through a pipeline, the two water outlets of the first water inlet valve are respectively communicated with the waste water storage cavity of the raw water tank and the water outlet nozzle through pipelines, and when the water outlet NTC detector detects that the water temperature in the pipeline reaches a set value of a user, the first water inlet valve stops draining water to the waste water storage cavity and is directly communicated with the water outlet nozzle to supply water.
3. The system for treating cooled boiled water direct drinking water supply of claim 1, wherein a water outlet NTC detector for calibrating the temperature of the outlet water is further connected to a pipeline at the rear end of the water outlet nozzle, and a third water inlet valve which is communicated with a tap water storage chamber of the raw water tank, is used for guiding the flow and discharging the boiled water which does not reach the temperature requirement set by the user into the tap water storage chamber is further arranged on the pipeline between the water outlet NTC detector and the water outlet nozzle;
the third water inlet valve adopts a water control structure with one inlet and two outlets, a water inlet of the third water inlet valve is communicated with the water outlet NTC detector through a pipeline, and two water outlets of the third water inlet valve are respectively communicated with a tap water storage cavity of the raw water tank and the water outlet nozzle through pipelines;
and when the water outlet NTC detector detects that the water temperature in the pipeline reaches a set value of a user, the third water inlet valve stops draining the tap water storage cavity and directly communicates with the water outlet nozzle to supply water.
4. The system for processing cooled boiled water direct drinking water supply of claim 1, wherein a water outlet NTC detector for calibrating the temperature of the outlet water is further connected to the pipeline at the rear end of the water outlet nozzle, and a fourth water inlet valve which is communicated with the purified water tank, is used for guiding the flow and discharging boiled water which does not reach the temperature requirement set by the user into the purified water tank is further arranged on the pipeline between the water outlet NTC detector and the water outlet nozzle;
the fourth water inlet valve adopts a water control structure with one inlet and two outlets, the water inlet of the fourth water inlet valve is communicated with the water outlet NTC detector through a pipeline, and the two water outlets of the fourth water inlet valve are respectively communicated with the pure water tank and the water outlet nozzle through pipelines;
and a second one-way valve for preventing water in the pure water tank from flowing backwards is further arranged on the pipeline between the fourth water inlet valve and the pure water tank, and when the water outlet NTC detector detects that the water temperature in the pipeline reaches a user set value, the fourth water inlet valve stops draining water to the pure water tank and is directly communicated with the water outlet nozzle to supply water.
5. A cool boiled water direct drinking water supply processing system according to claim 1, wherein a second water inlet valve is further provided on the pipeline between the pure water tank and the heat exchange module, the second water inlet valve being communicated with the water inlet end of the water pump and being used for avoiding the heat exchange module to directly lead out the normal temperature pure water, the second water inlet valve adopts a water control structure with one inlet and two outlets, the water inlet of the second water inlet valve is communicated with the water outlet of the pure water tank through the pipeline, and the two water outlets of the second water inlet valve are respectively communicated with the heat exchange module and the water pump through the pipeline.
6. A cool boiled water direct drinking water supply processing system as claimed in claim 1, wherein the water inlet of the pure water tank is further provided with a post carbon rod filter element for adjusting the PH of the pure water filtered by the PP and carbon rod composite filter element and the RO membrane filter element to improve the taste of the pure water.
7. A cold boiled water direct drinking water supply processing system as claimed in claim 1 or 6, wherein the pure water tank is further provided therein with a pure water high level detector and a pure water low level detector for detecting the level of pure water in the tank, respectively.
8. The system for directly drinking and supplying cold boiled water as claimed in claim 1, wherein a raw water low level detector for detecting that the tap water is at a low level is arranged on the bottom side wall of the tap water storage chamber in the raw water tank, and a water changing level detector for controlling water changing in the cavity is arranged on the bottom surface of the tap water storage chamber.
9. A cool boiled water direct drinking water supply processing system as claimed in claim 1, wherein the heat exchange module is a plate heat exchanger or a coil heat exchanger composed of concentric inner and outer pipes, the inner pipe of the coil heat exchanger is a hot water pipe communicated with the boiled water return pipeline, and the outer pipe is a cooling water pipe communicated with normal temperature pure water supplied by the pure water tank.
10. The cool boiled water direct drinking water supply processing system as claimed in claim 1, wherein a raw water TDS probe for measuring the degree of water quality cleanness is further arranged on a supply pipe between the raw water tank and the self-priming pump; and a pure water TDS probe for measuring the cleanness degree of water is further arranged on the pure water supply pipeline between the RO membrane filter element and the pure water tank.
11. A cool boiled water direct drinking water supply processing system as claimed in claim 1, wherein the pure water tank is further provided with a UV-LED bacteriostatic lamp for inhibiting bacteria generation of pure water or a post carbon rod filter element in the tank.
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| CN202122605807 | 2021-10-27 | ||
| CN2021226058076 | 2021-10-27 |
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| CN216584451U true CN216584451U (en) | 2022-05-24 |
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Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN115182410A (en) * | 2022-06-27 | 2022-10-14 | 广东纯米电器科技有限公司 | Waterway structure and purifier |
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Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
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| CN115182410A (en) * | 2022-06-27 | 2022-10-14 | 广东纯米电器科技有限公司 | Waterway structure and purifier |
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