CN113860581A

CN113860581A - Water treatment apparatus, control method of water treatment apparatus, and computer storage medium

Info

Publication number: CN113860581A
Application number: CN202010614258.6A
Authority: CN
Inventors: 宋瑞伦; 王明
Original assignee: Wuhu Midea Kitchen and Bath Appliances Manufacturing Co Ltd
Current assignee: Wuhu Midea Kitchen and Bath Appliances Manufacturing Co Ltd
Priority date: 2020-06-30
Filing date: 2020-06-30
Publication date: 2021-12-31

Abstract

The invention provides a water treatment device, a control method of the water treatment device and a computer storage medium, wherein the water treatment device comprises: the water inlet pipeline is provided with a water path adjusting component; a water outlet pipeline; the hot water component is respectively connected with the water inlet pipeline and the water outlet pipeline; a purification assembly disposed in the water inlet line, the purification assembly configured to purify fluid within the water inlet line; the first end of the bypass pipeline is connected with a water inlet pipeline positioned between the hot water component and the purification component, and the second end of the bypass pipeline is connected with a water outlet pipeline; first water quality testing spare sets up in the inlet line, is located the side of intaking of purification subassembly, and first water quality testing spare is configured to acquire first water quality testing value. According to the invention, the waterway adjusting component and the first water quality detecting piece are arranged on the water inlet pipeline, so that the water inlet pipeline can be controlled to change the conduction state according to the water quality data of the water source, and the service life of the purifying component is prolonged under the condition of ensuring the water quality.

Description

Water treatment apparatus, control method of water treatment apparatus, and computer storage medium

Technical Field

The invention relates to the technical field of water treatment, in particular to a water treatment device, a control method of the water treatment device and a computer readable storage medium.

Background

In the related art, the water channels of water consumption equipment such as a water heater are simple, the quality of tap water cannot be detected, and targeted purification is performed, so that the using effect is poor.

Disclosure of Invention

The present invention is directed to solving at least one of the problems of the prior art or the related art.

To this end, one aspect of the present invention is to provide a water treatment apparatus.

Another aspect of the present invention is to provide a control method of a water treatment apparatus.

Yet another aspect of the present invention is directed to a computer-readable storage medium.

In view of the above, according to one aspect of the present invention, there is provided a water treatment apparatus comprising: the water inlet pipeline is provided with a water path adjusting component; a water outlet pipeline; the hot water component is respectively connected with the water inlet pipeline and the water outlet pipeline; a purification assembly disposed in the water inlet line, the purification assembly configured to purify fluid within the water inlet line; the first end of the bypass pipeline is connected with a water inlet pipeline positioned between the hot water component and the purification component, and the second end of the bypass pipeline is connected with a water outlet pipeline; first water quality testing spare sets up in the inlet line, is located the side of intaking of purification subassembly, and first water quality testing spare is configured to acquire first water quality testing value.

In the technical scheme, the water treatment device comprises a water inlet pipeline, a water outlet pipeline, a hot water component, a bypass pipeline, a purification component and a first water quality detection piece. Wherein, the one end of inlet channel is connected with the water source (like running water), and the other end of inlet channel is connected to hot water part, is provided with on inlet channel and purifies the subassembly, purifies the subassembly and can purify the fluid in the inlet channel. Still be provided with the water route adjusting part on the inlet channel, the water route adjusting part can change the form that switches on of first inlet channel according to the testing result or other control instructions of first water quality testing spare to make the water in the inlet channel go into hot water part after purifying through purifying the subassembly, or directly get into hot water part after the process is just strained.

Meanwhile, the bypass pipeline is communicated with the water inlet pipeline and the water outlet pipeline behind the purification assembly, when water stored in the hot water component flows out through the water outlet pipeline, the bypass pipeline can be controlled to be opened or closed, so that the water purified by the purification assembly and the water flowing out of the hot water component are mixed and finally flow out through the water outlet pipeline.

By applying the embodiment of the invention, the waterway regulation component and the first water quality detection component are arranged on the water inlet pipeline, the water inlet pipeline can be controlled to change the conduction state according to the water quality data of the water source, when the water quality of the water source is better, the water inlet pipeline is directly communicated with the water source and the hot water component (or is communicated with the hot water component after being primarily filtered by the filter), and the active purification part in the purification component is not involved, so that the energy can be saved on one hand, and the service life of the purification component can be effectively prolonged on the other hand.

When the water quality of the water source does not meet the requirement, the water inlet pipeline is firstly communicated to the purification assembly and then communicated to the hot water component, so that the water accessed from the water source is actively purified by the purification assembly to obtain the water with the water quality meeting the requirement, the water quality is ensured, and the use experience is improved.

A bypass pipeline is arranged between the purification component and the water outlet pipeline, so that water can be mixed for the second time when the water is discharged. On one hand, if the water is secondarily polluted in the hot water part, impurities in the water can be diluted again in a mode of mixing the purified water, and the water quality is improved. On the other hand, the mode of pure cold water is mixed to the accessible secondary, adjusts the leaving water temperature of hot water part, realizes more accurate leaving water temperature and adjusts, further improves and uses experience.

The water treatment apparatus according to the present invention may further include:

in the above technical solution, the water treatment apparatus further includes: the controller is connected with the waterway regulation component and the first water quality detection piece, and the controller is configured to control the waterway regulation component according to the first water quality detection value and the target water quality parameter so as to change the conduction state of the water inlet pipeline.

In this embodiment, the water treatment apparatus further includes a controller, and the controller includes a storage medium storing a computer program and a processor capable of executing the computer program. The control logic can be input by a preset computer program, so that the controller can automatically acquire a first water quality detection value acquired by the first water quality detection assembly and judge whether the inlet water quality of the water source meets the requirement or not according to the first water quality detection value.

When water source quality of water satisfied demand, the controller control water route adjusting part changes the form that switches on of water inlet pipe, specifically changes into the mode that switches on of water inlet pipe direct intercommunication water source and hot water part, and the purification subassembly does not intervene this moment, can the energy saving on the one hand, and on the other hand effectively improves the life who purifies the subassembly.

When water source quality of water is not in line with the demand, the controller controls the waterway regulation assembly to change the conduction mode of the water inlet pipeline, and the water inlet pipeline is specifically changed into a conduction mode that the water inlet pipeline is firstly communicated to the purification assembly and then communicated to the hot water component, so that water accessed from the water source is purified by the purification assembly to obtain water with quality meeting the requirements, thereby ensuring the quality of water and improving the use experience.

In any one of the above technical solutions, the water treatment apparatus further includes: and the thermostatic valve is arranged on the water outlet pipeline and is connected with the second end of the bypass pipeline.

In the technical scheme, the first end of the thermostatic valve is communicated with the hot water component, the second end of the thermostatic valve is a mixed water outlet end, and the third end of the thermostatic valve is connected with the second end of the bypass pipeline. Specifically, the thermostatic valve can set up to mechanical thermostatic valve, mixes the hot water that hot water component flows and the cold water that the bypass line flows through mechanical thermostatic valve mutually, obtains the invariable pure water of temperature at last and goes out water, and then can guarantee water treatment facilities's leaving water temperature invariant, avoids appearing leading external conditions such as diversion pressure change and leads to leaving water temperature "the condition of neglecting cold and neglecting hot", improves and uses experience.

In any one of the above technical solutions, the water treatment apparatus further includes: the second water quality detection piece is arranged on the water outlet pipeline and is positioned at the water inlet side of the thermostatic valve, and the second water quality detection piece is connected with the controller and is configured to obtain a second water quality detection value; the third water quality detection piece is arranged on the water outlet pipeline and is positioned on the water outlet side of the thermostatic valve, and the third water quality detection piece is connected with the controller and is configured to obtain a third water quality detection value; and the display component is connected with the controller and is configured to display at least one of the first water quality detection value, the second water quality detection value and the third water quality detection value.

In the technical scheme, the water treatment device further comprises a second water quality detection piece and a third water quality detection piece, wherein the second water quality detection piece is arranged on the water inlet side of the thermostatic valve and used for detecting a second water quality detection value, specifically the water quality of the outlet water of the hot water component. The third water quality detection part is arranged on the water outlet side of the thermostatic valve and used for detecting a third water quality detection value, specifically the final outlet water quality after water mixing. The display component can be specifically set as a liquid crystal display screen and is used for displaying a first water quality detection value (namely water quality data of a water source), a second water quality detection value (namely water quality data of a water heating component) and a third water quality detection value (namely water quality data of effluent).

Through setting up second water quality testing spare, third water quality testing spare and display module, can make the user implement and master water treatment facilities working effect and local water source quality of water, and then improve water treatment facilities's use and experience.

In some embodiments, the mixing process may be further controlled based on the second water quality detection data. Specifically, if the second water quality detection data meet the requirements, the water mixing process of the bypass pipeline only needs to meet the requirement that the outlet water temperature is constant. If the second water quality detection data do not meet the requirements, but the data distance meets the requirements is not large, the third water quality detection data can meet the requirements finally by increasing the mixed water amount and diluting the ion concentration of the water outlet of the hot water part through the purified water directly flowing out of the purification assembly.

In any one of the above technical solutions, the purification module includes an Electrodialysis (EDR) membrane stack and a first filter, and the water inlet line includes: the first water inlet main pipeline is provided with a first filter element; the first end of the first water inlet branch pipeline is connected with the first water inlet main pipeline, the second end of the first water inlet branch pipeline is connected with the hot water component, and the electrodialysis membrane stack is arranged on the first water inlet branch pipeline.

In this technical scheme, purify the subassembly and include electrodialysis membrane stack and first filter, wherein first filter is for being provided with composite filter element's filter, can carry out the filtering to silt or macromolecular impurity in the aquatic. The electrodialysis membrane stack comprises a plurality of ion exchange membranes and electrode grooves, electrodes are arranged in the electrode grooves, an electric field can be generated for the ion exchange membranes, so that ions can selectively permeate through the ion exchange membranes under the action of each ion exchange membrane, for example, anions or cations can be selectively permeated through the ion exchange membranes, and because the ionic properties of the ions contained in fluid on two sides of each ion exchange membrane are different, under the action of the ion exchange membranes, the electrodialysis purification of water flowing into the purification membrane stack and the electrode inversion during the electrode voltage conversion are facilitated, and finally, the separation and filtration of the ions in the water are realized.

The first main water inlet pipeline is communicated with a water source and a first filtering piece, and water accessed from the water source is filtered for the first time through the first filtering piece. The first end of the first water inlet branch pipeline is connected to the water inlet main pipeline behind the first filter element, the second end of the first water inlet branch pipeline is connected to the hot water component, and the first water inlet branch pipeline is provided with the electrodialysis membrane stack. When the water filtered by the first filtering piece needs to be secondarily purified to remove ions in the water, the water source water supply is firstly primarily filtered by the first filtering piece and then secondarily purified by the electrodialysis membrane stack through the first water inlet main pipeline and the first water inlet branch pipeline which are communicated, and finally purified water meeting the requirements is obtained, so that the purifying capacity of the water treatment device is improved.

In any one of the above technical solutions, the water inlet pipeline further includes: and one end of the second water inlet branch pipeline is connected with the first water inlet main pipeline, and the other end of the second water inlet branch pipeline is connected with the hot water component.

In this technical scheme, the first end of the second inlet branch pipe is connected to the first inlet main pipe, specifically to the inlet main pipe after being connected to the first filter, and the second end of the second inlet branch pipe is connected to the hot water component. Specifically, when hydroenergy after just straining through first filtration piece can satisfy the requirement, then need not communicate first branch pipeline of intaking, directly through the intercommunication second branch pipeline of intaking, will communicate to hot water parts through the water that first filtration piece purifies, can the energy saving on the one hand, on the other hand effectively improves the life who purifies the subassembly.

In any one of the above technical solutions, the waterway regulation assembly includes: the first valve body is arranged on the first water inlet branch pipeline and is positioned between the electrodialysis membrane stack and the hot water component; and the second valve body is arranged on the second water inlet branch pipeline, wherein one of the first valve body and the second valve body is opened, and the other one of the first valve body and the second valve body is closed, so that the first water inlet branch pipeline and the second water inlet branch pipeline are switched.

In this technical scheme, the water route adjusting part includes first valve body and second valve body, through the switching of controlling first valve body and second valve body, can adjust water intake pipe's the form that switches on. Specifically, the first valve body is arranged on the first water inlet branch pipeline, is positioned between the electrodialysis membrane stack and the hot water part, and is responsible for opening or closing the first water inlet branch pipeline. The second valve body is arranged on the second water inlet branch pipeline and is responsible for opening or closing the second water inlet branch pipeline.

When the water after the primary filtration of the first filter element can meet the requirement, the first valve body is closed, the second valve body is opened, the second water inlet branch pipeline is communicated at the moment, and the water at the water source directly enters the hot water component after being filtered by the first filter element. When the water after the primary filtration of the first filter element can not meet the requirement, the first valve body is opened, the second valve body is closed, the first water inlet branch pipeline is communicated at the moment, and the water at the water source is filtered by the first filter element, then is subjected to secondary purification by the electrodialysis membrane stack and finally enters the hot water component.

Through setting up first valve body and second valve body, can adjust water intake pipe's on-state in a flexible way, improve and use experience.

In any one of the above technical solutions, the water treatment apparatus further includes: the first three-way valve is respectively connected with the first end of the bypass pipeline and the first water inlet branch pipeline, and the first three-way valve is positioned between the first valve body and the electrodialysis membrane stack.

In the technical scheme, a first end and a second end of a first three-way valve are communicated with a bypass pipeline, and a third end of the first three-way valve is communicated to a first water inlet branch pipeline. Specifically, the water purified by the electrodialysis membrane stack is divided into two water paths by the first three-way valve, wherein one water path mixes water with the water outlet pipeline through the bypass pipeline, and the other water path enters the hot water component through the first water inlet branch pipeline to supply purified water to the hot water component, so that the water paths can be effectively simplified, and the production cost is reduced.

In any one of the above technical solutions, the water inlet pipeline further includes: and one end of the second water inlet main pipeline is connected with the first water inlet branch pipeline and the second water inlet branch pipeline, and the other end of the second water inlet main pipeline is connected with the hot water component.

In this technical scheme, the inlet channel still includes the second main pipeline of intaking, and the first end of the second main pipeline of intaking is connected to first branch pipeline of intaking and second branch pipeline respectively, no matter be promptly through the water of first filtration piece primary filter, or through the water of electrodialysis membrane stack secondary purification, all communicates to hot water component through the second main pipeline of intaking, and then simplifies the water route, reduces the seepage risk.

In any one of the above technical solutions, the water treatment apparatus further includes: and the waste water pipeline is connected to a waste water outlet of the electrodialysis membrane stack.

In this technical scheme, water treatment facilities includes the waste water pipeline, and the first end of waste water pipeline is connected to the waste water of electrodialysis membrane stack and dispatches the export, and the second end of waste water pipeline is connected to the drain for effectively discharge the waste water that the electrodialysis membrane stack during operation produced.

In some embodiments, a purification device can be additionally arranged on a wastewater pipeline to secondarily purify wastewater, so that the environment is protected, the water source utilization rate is improved, and the waste of water resources is avoided.

In any of the above technical solutions, the first end of the bypass pipeline is connected to the first water inlet branch pipeline.

In the technical scheme, the first end of the bypass pipeline can be directly connected to the first water inlet branch pipeline, and purified water is sent to the hot water part through the first water inlet branch pipeline, so that a water path can be effectively simplified, and the production cost is reduced.

In any one of the above technical solutions, the water treatment apparatus further includes: the second filter piece is arranged on the first water inlet main pipeline; and/or the pressure reducing valve is arranged on the first water inlet branch pipeline and is positioned between the electrodialysis membrane stack and the first water inlet main pipeline.

In this technical scheme, can add the second on first water inlet main pipeline and filter to improve the water purification effect. The pressure reducing valve is arranged on the first water inlet branch pipeline, so that the water pressure entering the electrodialysis membrane stack is not higher than the rated water pressure of the electrodialysis membrane stack, the use safety of the electrodialysis membrane stack is further ensured, and the service life of the purification assembly is prolonged.

In any one of the above technical solutions, the water treatment apparatus further includes: the safety valve is arranged on the second water inlet main pipeline; and/or the first flow detection piece is arranged on the second main water inlet pipeline.

In this technical scheme, be provided with the relief valve on the second main pipeline of intaking, can effectual protection hot water parts's safe in utilization, specifically, if water source water pressure is too big, or when the water source cuts off the water and produces the negative pressure, can close the relief valve, avoid the too big hot water parts of damage of water pressure on the one hand, on the other hand avoids depositing water among the hot water parts to cause the waste against the current.

The second is provided with first flow detection spare on intaking the main pipeline, when first flow detection spare detects there is rivers in the pipeline, explains that the water source is in the open mode, controls to purify subassembly and a plurality of water quality testing spare circular telegram work this moment. Meanwhile, the first flow detection piece can also acquire the water quantity direction, so that whether the backflow condition occurs or not is judged, and when the backflow condition occurs, a signal is sent to the controller, so that the safety valve is closed by the controller, and the use safety of the water treatment device is improved.

In any one of the above technical solutions, the water treatment apparatus further includes: the second three-way valve is respectively connected with the first water inlet main pipeline, the first water inlet branch pipeline and the second water inlet branch pipeline; and the third three-way valve is respectively connected with the second water inlet main pipeline, the first water inlet branch pipeline and the second water inlet branch pipeline.

In the technical scheme, the second three-way valve is communicated with the first water inlet main pipeline, the first water inlet branch pipeline and the second water inlet branch pipeline, and the third three-way valve is communicated with the second water inlet main pipeline, the first water inlet branch pipeline and the second water inlet branch pipeline. Through setting up second three-way valve and third three-way valve, can effectively simplify waterway structure, reduction in production cost reduces the seepage risk.

In any one of the above technical solutions, the water treatment apparatus further includes: the first one-way valve is arranged on the first water inlet branch pipe and positioned between the electrodialysis membrane stack and the first three-way valve, and the first one-way valve is configured to be communicated in a one-way mode along the direction from the electrodialysis membrane stack to the first three-way valve; and the second one-way valve is arranged on the second water inlet branch pipe and is positioned between the second valve body and the hot water part, and the second one-way valve is configured to be communicated in one way along the direction from the second valve body to the hot water part.

In the technical scheme, the first one-way valve is arranged between the electrodialysis membrane stack and the first three-way valve, so that hot water in the hot water component can be prevented from flowing back to the electrodialysis membrane stack due to pressure difference, and the working safety of the electrodialysis membrane stack is protected. Set up the second check valve between second valve body and hot water part, can avoid leading to the hot water in the hot water part to flow against the current to first purification piece because of the water source cuts off the water supply, further improve water treatment facilities's safety in utilization.

In any one of the above technical solutions, the water treatment apparatus further includes: and the second flow detection part is arranged on the first water inlet branch pipe and is positioned between the electrodialysis membrane stack and the bypass pipeline.

In the technical scheme, the second flow detection part is arranged between the electrodialysis membrane stack and the bypass pipeline, so that the water outlet quantity of the water purified by the electrodialysis membrane stack can be detected, on one hand, the water inlet quantity can be controlled to be matched with the water outlet quantity of the water purified by the electrodialysis membrane stack, the pressure difference is avoided, and the use safety is improved. On the other hand can be through the average water yield analysis electrodialysis membrane stack's of electrodialysis membrane stack remaining life, when the water yield is showing and is reducing, the suggestion user changes the membrane stack, improves and uses experience.

In any one of the above technical solutions, the water treatment apparatus further includes: the first electric control board is connected with the first water quality detection piece, the second water quality detection piece, the third water quality detection piece, the purification component and the display component, and is configured to supply power to the first water quality detection piece, the second water quality detection piece, the third water quality detection piece, the purification component and the display component and control the purification component to work; and the controller is integrated on the first electric control board.

In this technical scheme, power consumption parts such as first water quality testing spare, second water quality testing spare, third water quality testing spare, purification subassembly, display module all unify and supply power and control through first automatically controlled board. The integrated first electric control board is arranged, so that the production cost and the installation cost can be effectively reduced.

In any one of the above technical solutions, the water treatment apparatus further includes: a purification assembly power supply board connected with the purification assembly, the power supply being configured to supply power to the purification assembly; the purification component control board is connected with the purification component power supply board and the purification component and is configured to control the purification component to work; the second electric control board is connected with the display assembly and is configured to supply power to the display assembly and control the display assembly to work; the third electric control board is connected with the first water quality detection part, the second water quality detection part and the third water quality detection part and is configured to supply power to the first water quality detection part, the second water quality detection part and the third water quality detection part; and the controller is integrated on the third electric control board.

In this technical scheme, power consumption parts such as water quality testing spare, purification subassembly, display module supply power through the power supply board of independent setting to control through the automatically controlled board of independent setting, the function that increases or reduces water treatment facilities according to actual demand that can be convenient realizes the modularization production.

In any one of the above technical solutions, the water treatment apparatus further includes: and the water mixing valve is connected with the water outlet pipeline and the water inlet pipeline and comprises a water mixing outlet.

In the technical scheme, the water mixing valve is communicated with a water source, a water inlet pipeline and a water outlet pipeline, and when the water mixing valve is opened, the water discharged from the hot water component is mixed with cold water and then discharged through the water mixing outlet for a user to use. When the hot water component is used for discharging water, the water mixing valve supplies water in the water inlet pipeline with the same water inlet amount so as to keep the water amount and the water pressure in the hot water component constant.

In any of the above embodiments, the hot water unit includes at least one heating element.

In this technical scheme, hot water part includes the heating member, heats the water purification of storage in the hot water part through the heating member to obtain the hot water after the purification. The heating element may be a gas heating element, a resistance heating element, an electromagnetic heating element or a solar heating element, and the embodiment of the present invention does not limit the specific form of the heating element.

In any one of the above technical solutions, the water treatment apparatus includes: water heater, water dispenser, water purifier, humidifier, cooking equipment.

In the technical scheme, the water treatment device can be a water heater, such as a gas water heater or an electric water heater, and provides 'clean water bathing' for a user.

The water treatment device can also be a water dispenser, can be a water dispenser during heat storage or a water dispenser during instant heating, and is used for providing pure drinking water and ensuring the health of drinking water of users.

The water treatment device may also be a water purifier for providing pure domestic water to the user.

The water treatment device can also be a humidifier, and the purified water is generated into steam, so that the steam is ensured not to contain extra impurities, and the breathing health of a user is ensured.

The water treatment device can also be cooking equipment, and in the working process of the cooking equipment, pure cooking water is automatically provided, so that the dietary health of a user is ensured.

A second aspect of the present invention provides a control method for a water treatment apparatus, for controlling the water treatment apparatus provided in any one of the above technical solutions, the control method for the water treatment apparatus comprising: acquiring a first water quality detection value of a water inlet pipeline; and controlling the waterway regulating assembly to change the conduction state of the water inlet pipeline according to the first water quality detection value and the target water quality parameter.

In the technical scheme, the first water quality detection value is specifically water quality data of water inflow of a water source. According to the quality of water data and the target water quality parameter that the water source was intake, control water route adjusting part changes the form that switches on of water inlet pipe, and when water source quality of water was better, water inlet pipe direct intercommunication water source and hot water part (or communicate to the hot water part after the process filter is just strained), and the electrodialysis membrane stack is out of work this moment, can the energy saving on the one hand, and on the other hand effectively improves the life of electrodialysis membrane stack.

When water source quality of water is not qualified, the water inlet pipeline communicates to the hot water part again behind the electrodialysis membrane stack for the water that the water source was inserted obtains the water that quality of water meets the requirements after the initiative purification of electrodialysis membrane stack, with quality of water assurance, improvement use experience.

In above-mentioned technical scheme, the water route adjusting part includes first valve body and second valve body, and according to first quality of water detected value and the step that the water route adjusting part changed the form that switches on of inlet channel, specifically include: controlling the first valve body to close and controlling the second valve body to open based on the condition that the first water quality detection value is less than or equal to the target water quality parameter; and controlling the first valve body to be opened and the second valve body to be closed based on the condition that the first water quality detection value is greater than the target water quality parameter.

In the technical scheme, if the first water quality detection value is less than or equal to the target water quality parameter, the water primarily filtered by the first filtering piece can meet the requirement, the first valve body is correspondingly controlled to be closed, the second valve body is controlled to be opened, and the water at the water source directly enters the hot water part after being filtered by the first filtering piece.

If the first water quality detection value is larger than the target water quality, when the water after the primary filtration of the first filter element cannot meet the requirement, the first valve body is controlled to be opened, the second valve body is controlled to be closed, and the water at the water source is filtered by the first filter element, then is subjected to secondary purification by the electrodialysis membrane stack and finally enters the hot water component.

Through controlling first valve body and second valve body according to water quality testing value and target water quality parameter, can effectively improve the life of electrodialysis membrane stack, guarantee simultaneously that quality of water meets the requirements, improve and use experience.

In any of the above technical solutions, the water treatment apparatus further includes a display module, and the control method further includes: the control display component displays the first water quality detection value, the second water quality detection value and the third water quality detection value; and generating corresponding prompt information based on the condition that the third water quality detection value is larger than the water quality parameter threshold value, and controlling a display assembly to display the prompt information.

In this technical scheme, the display module can make the user implement and master water treatment facilities working effect and local water source quality of water, and then improves water treatment facilities's use and experiences. If the third water quality detection value is larger than the actual parameter threshold value, the purified water quality still cannot meet the requirement, and the service life of the purification assembly is up, or the purification assembly is out of order, or the water quality of the water source is too poor. At the moment, prompt information is correspondingly displayed, a user is prompted to check the purification assembly or the water source, and the use experience is improved.

A third aspect of the present invention provides a computer-readable storage medium having stored thereon a computer program which, when executed by a processor, implements a method of controlling a water treatment apparatus according to any one of the above aspects.

In the computer-readable storage medium provided by the present invention, when the computer program is executed by the processor, the steps of the control method for a water treatment apparatus according to any one of the above technical solutions are implemented, so that the computer-readable storage medium includes all the beneficial effects of the control method for a water treatment apparatus according to any one of the above technical solutions, and details thereof are not repeated herein.

Additional aspects and advantages of the invention will be set forth in part in the description which follows, and in part will be obvious from the description, or may be learned by practice of the invention.

Drawings

The above and/or additional aspects and advantages of the present invention will become apparent and readily appreciated from the following description of the embodiments, taken in conjunction with the accompanying drawings of which:

FIG. 1 shows one of the block diagrams of a water treatment apparatus according to an embodiment of the present invention;

FIG. 2 shows a second block diagram of a water treatment apparatus according to an embodiment of the present invention;

FIG. 3 shows a third block diagram of a water treatment apparatus according to an embodiment of the present invention;

FIG. 4 shows a fourth block diagram of a water treatment apparatus according to an embodiment of the present invention;

FIG. 5 shows one of the flowcharts of a control method of the water treatment apparatus according to one embodiment of the present invention;

FIG. 6 illustrates a second flow chart of a method of controlling a water treatment apparatus according to an embodiment of the present invention;

fig. 7 shows a third flowchart of a control method of a water treatment apparatus according to an embodiment of the present invention.

Wherein, the corresponding relationship between the reference numbers and the component names in fig. 1 to fig. 4 is:

102 a water inlet pipeline, 104 a water outlet pipeline, 106 a hot water component, 108 a purification component, 109 a first water quality detection part, 110 a bypass pipeline, 111 a controller, 112 a thermostatic valve, 113 a second water quality detection part, 114 an electrodialysis membrane stack, 115 a third water quality detection part, 116 a first filter part, 118 a first main water inlet pipeline, 120 a first branch water inlet pipeline, 122 a waste water pipeline, 124 a waste water outlet port, 126 a second filter part, 128 a pressure reducing valve, 130 a second branch water inlet pipeline, 132 a first valve body, 134 a second valve body, 136 a first three-way valve, 138 a first one-way valve, 140 a second one-way valve, 142 a second main water inlet pipeline, 144 a first flow detection part 146, 148 a second three-way valve, 150 a third three-way valve, 152 a second flow detection part, 154 a display component, 156 a water mixing valve, 158, 160 a temperature sensor, 162 a temperature limiter, 164 a first electric control board, 166 a purification component, 168 a purification control board, 170 second electric control board, 172 third electric control board, 174 shower head, 176 purified water outlet pipeline, 178 purified water outlet, 180 electromagnetic valve, 182 constant temperature heat exchange piece.

Detailed Description

In order that the above objects, features and advantages of the present invention can be more clearly understood, a more particular description of the invention will be rendered by reference to the appended drawings. It should be noted that the embodiments of the present invention and features of the embodiments may be combined with each other without conflict.

In the following description, numerous specific details are set forth in order to provide a thorough understanding of the present invention, however, the present invention may be practiced in other ways than those specifically described herein, and therefore the scope of the present invention is not limited to the specific embodiments disclosed below.

The water treatment apparatus, a control method of the water treatment apparatus, and a computer-readable storage medium according to some embodiments of the present invention are described below with reference to fig. 1 to 7.

Example one

As shown in fig. 1, 2 and 3, in one embodiment of the present invention, there is provided a water treatment apparatus including:

the water inlet pipeline 102 is provided with a water path adjusting component; an outlet line 104; the hot water component 106, the hot water component 106 is connected with the water inlet pipeline 102, the water outlet pipeline 104 separately; a purification assembly 108 disposed in the water inlet line 102, the purification assembly 108 configured to purify a fluid within the water inlet line 102; a bypass line 110, a first end of the bypass line 110 being connected to the water inlet line 102 between the hot water unit 106 and the purification assembly 108, and a second end of the bypass line 110 being connected to the water outlet line 104; the first water quality detecting part 109 is arranged on the water inlet pipeline 102 and located on the water inlet side of the purifying assembly 108, and the first water quality detecting part 109 is configured to obtain a first water quality detecting value.

And a controller 111 connected to the waterway regulation assembly and the first water quality detection part 109, wherein the controller 111 is configured to control the waterway regulation assembly according to the first water quality detection value and the target water quality parameter, so as to change the conduction state of the water inlet pipeline 102.

In this embodiment, the water treatment device includes a water inlet pipe 102, a water outlet pipe 104, a hot water unit 106, a bypass pipe 110, a purification assembly 108, and a first water quality detector 109. Wherein, one end of the water inlet pipe 102 is connected to a water source (such as tap water), the other end of the water inlet pipe 102 is connected to the hot water unit 106, and a purification component 108 is disposed on the water inlet pipe 102, wherein the purification component 108 can purify the fluid in the water inlet pipe 102.

The water treatment device further comprises a controller 111, a water path adjusting component is further arranged on the water inlet pipeline 102, the controller 111 can control the water path adjusting component, and the conduction state of the first water inlet pipeline 102 is changed according to the detection result or other control instructions of the first water quality detection part 109, so that water in the water inlet pipeline 102 enters the hot water part 106 after being purified by the purification component 108, or directly enters the hot water part 106 after being primarily filtered.

The controller 111 includes a storage medium storing a computer program and a processor capable of executing the computer program. The control logic can be input by a preset computer program, so that the controller 111 can automatically acquire a first water quality detection value acquired by the first water quality detection assembly and judge whether the inlet water quality of the water source meets the requirement according to the first water quality detection value.

Meanwhile, the bypass pipeline 110 is communicated with the water inlet pipeline 102 and the water outlet pipeline 104 behind the purification assembly 108, and when the water stored in the hot water component 106 flows out through the water outlet pipeline 104, the bypass pipeline 110 can be controlled to be opened or closed, so that the water purified by the purification assembly 108 is mixed with the water flowing out of the hot water component 106, and finally flows out through the water outlet pipeline 104.

By applying the embodiment of the invention, the waterway regulation component and the first water quality detection component 109 are arranged on the water inlet pipeline 102, the water inlet pipeline 102 can be controlled to change the conduction state according to the water quality data of the water source, when the water quality of the water source is better, the water source and the hot water component 106 are directly communicated by the water inlet pipeline 102 (or communicated to the hot water component 106 after being primarily filtered by a filter), and the active purification part in the purification component 108 is not involved, so that on one hand, the energy can be saved, and on the other hand, the service life of the purification component 108 can be effectively prolonged.

When the water quality of the water source does not meet the requirement, the water inlet pipeline 102 is firstly communicated to the purification component 108 and then communicated to the hot water component 106, so that the water accessed from the water source is actively purified by the purification component 108 to obtain the water with the water quality meeting the requirement, thereby ensuring the water quality and improving the use experience.

A bypass line 110 is provided between the purification assembly 108 and the outlet line 104 to allow for the passage of secondary mixing water during discharge. On one hand, if the water is secondarily polluted in the hot water part, impurities in the water can be diluted again in a mode of mixing the purified water, and the water quality is improved. On the other hand, the mode of pure cold water is mixed to the accessible secondary, adjusts the play water temperature of hot water part 106, realizes more accurate play water temperature regulation, further improves and uses experience.

Example two

As shown in fig. 1 and 2, in one embodiment of the present invention, the water treatment apparatus further includes:

a thermostatic valve 112, a second water quality detector 113, a third water quality detector 115, a display unit 154, a second filter 126, a first three-way valve 136, a second three-way valve 148, a third three-way valve 150, a waste water line 122, a safety valve 144, a first flow detector 146, a second flow detector 152, a first check valve 138, and a second check valve 140.

Wherein, the thermostatic valve 112 is disposed on the water outlet line 104 and connected to the second end of the bypass line 110.

The second water quality detecting part 113 and the third water quality detecting part 115 are arranged on the water outlet pipeline 104, the second water quality detecting part 113 is positioned at the water inlet side of the thermostatic valve 112, and the third water quality detecting part 115 is positioned at the water outlet side of the thermostatic valve 112.

The display component 154 is used for displaying the first water quality detection value, the second water quality detection value and the third water quality detection value, and is also used for displaying other prompt messages.

The purification module 108 specifically includes an electrodialysis membrane stack 114 and a first filter 116, and the water inlet line 102 specifically includes a first water inlet main line 118, a first water inlet branch line 120, a second water inlet main line 142, and a second water inlet branch line 130. The purification assembly 108 is disposed on the first main water inlet pipe 118, a first end of the first branch water inlet pipe 120 is connected to the first main water inlet pipe 118, a second end of the first branch water inlet pipe 120 is connected to the hot water unit 106, and the electrodialysis membrane stack 114 is disposed on the first branch water inlet pipe 120. A first end of the second branch water inlet pipe 130 is connected to the first main water inlet pipe 118, and a second end of the second branch water inlet pipe 130 is connected to the hot water unit 106. One end of the second main water inlet pipe 142 is connected to the first branch water inlet pipe 120 and the second branch water inlet pipe 130, and the other end of the second main water inlet pipe 142 is connected to the hot water unit 106.

The second filter element 126 is arranged on the first main water inlet line 118; the pressure reducing valve 128 and the pressure reducing valve 128 are disposed in the first water inlet branch line 120 and between the electrodialysis membrane stack 114 and the first water inlet main line 118.

The waterway regulation assembly specifically includes a first valve body 132 and a second valve body 134. The first valve 132 is disposed in the first inlet branch line 120 and between the electrodialysis membrane stack 114 and the hot water unit 106. The second valve element 134 is disposed in the second inlet branch pipe 130, and the first inlet branch pipe 120 and the second inlet branch pipe 130 can be switched by opening or closing the first valve element 132 and the second valve element 134.

The first three-way valve 136 is connected to the first end of the bypass pipeline 110 and the first inlet branch pipeline 120, and the first three-way valve 136 is located between the first valve body 132 and the electrodialysis membrane stack 114.

The second three-way valve 148 and the second three-way valve 148 are respectively connected to the first main water inlet pipe 118, the first branch water inlet pipe 120 and the second branch water inlet pipe 130.

And a third three-way valve 150, wherein the third three-way valve 150 is connected to the second main water inlet pipe 142, the first branch water inlet pipe 120, and the second branch water inlet pipe 130, respectively.

A waste water line 122 is connected to a waste water discharge 124 of the electrodialysis membrane stack 114.

A relief valve 144 is provided in the second main water inlet line 142.

The first flow rate detector 146 is disposed on the second main water inlet pipeline 142 for detecting the flow rate of the inlet water.

The second flow detecting element 152 is disposed in the first water inlet branch pipe, and is located between the electrodialysis membrane stack 114 and the bypass pipeline 110, and is used for detecting the water outlet flow of the electrodialysis membrane stack 114.

And the first one-way valve 138 is arranged on the first water inlet branch pipe and is positioned between the electrodialysis membrane stack 114 and the first three-way valve 136, and the first one-way valve 138 is configured to be communicated in a one-way mode along the direction from the electrodialysis membrane stack 114 to the first three-way valve 136.

And a second check valve 140 disposed in the second water inlet branch pipe and located between the second valve body 134 and the hot water unit 106, wherein the second check valve 140 is configured to conduct in one direction from the second valve body 134 to the hot water unit 106.

In this embodiment, a first end of the thermostatic valve 112 is connected to the hot water unit 106, a second end of the thermostatic valve 112 is a mixed water outlet end, and a third end of the thermostatic valve 112 is connected to a second end of the bypass line 110. Specifically, the thermostatic valve 112 can be set as a mechanical thermostatic valve 112, and the hot water flowing out of the hot water component 106 and the cold water flowing out of the bypass pipeline 110 are mixed through the mechanical thermostatic valve 112, so that the purified water with constant temperature is obtained, the water outlet temperature of the water treatment device is ensured to be constant, the condition that the water outlet temperature is 'suddenly cooled and suddenly heated' due to external conditions such as water diversion pressure change is avoided, and the use experience is improved.

The water treatment device further comprises a second water quality detection part 113 and a third water quality detection part 115, wherein the second water quality detection part 113 is arranged on the water inlet side of the thermostatic valve 112 and is used for detecting a second water quality detection value, specifically the water outlet quality of the hot water part 106. The third water quality detecting element 115 is disposed on the water outlet side of the thermostatic valve 112, and is configured to detect a third water quality detecting value, specifically, the final outlet water quality after water mixing. The display component 154 may be specifically configured as a liquid crystal display for displaying the first water quality detection value (i.e., the water quality data of the water source), the second water quality detection value (i.e., the water quality data of the water heating component 106), and the third water quality detection value (i.e., the water quality data of the effluent).

Through setting up second water quality testing piece 113, third water quality testing piece 115 and display element 154, can make the user implement and master water treatment facilities working effect and local water source quality of water, and then improve water treatment facilities's use and experience.

In some embodiments, the display component 154 is a touch screen and is configured to receive user operations.

In some embodiments, the mixing process may be further controlled based on the second water quality detection data. Specifically, if the second water quality detection data meets the requirement, the water mixing process of the bypass pipeline 110 only needs to meet the requirement that the outlet water temperature is constant. If the second water quality detection data does not meet the requirement, but the data distance meets the requirement is not large, the ion concentration of the water discharged from the hot water component 106 can be diluted by adding the mixed water amount and the purified water directly flowing out through the purification component 108, and finally the third water quality detection data meets the requirement.

The purification assembly 108 comprises an electrodialysis membrane stack 114 and a first filter element 116, wherein the first filter element 116 is a filter provided with a composite filter element and is capable of filtering sediment or macromolecular impurities in the water. The electrodialysis membrane stack 114 includes a plurality of ion exchange membranes and electrode slots, and by disposing electrodes in the electrode slots, an electric field can be generated for the ion exchange membranes to selectively transmit ions, such as selectively transmitting anions or selectively transmitting cations, under the action of each ion exchange membrane, because the ionic properties of the ions contained in the fluid on both sides of each ion exchange membrane are different, under the action of the plurality of ion exchange membranes, it is more beneficial to perform electrodialysis purification on the water flowing into the purification membrane stack and to perform electrode inversion when the electrode voltage is changed, and finally, the ions in the water are separated and filtered.

The first main water inlet line 118 communicates with the water source and the first filter 116, and the water received from the water source is filtered by the first filter 116 for the first time. A first end of the first inlet branch pipe 120 is connected to the inlet main pipe after the first filter 116, a second end of the first inlet branch pipe 120 is connected to the hot water unit 106, and the electrodialysis membrane stack 114 is disposed on the first inlet branch pipe 120. When the water filtered by the first filter element 116 needs to be purified for the second time to remove ions in the water, the water source supply water is firstly primarily filtered by the first filter element 116 and then secondarily purified by the electrodialysis membrane stack 114 by communicating the first main water inlet pipeline 118 and the first branch water inlet pipeline 120, so that the purified water meeting the requirements is finally obtained, and the purification capacity of the water treatment device is improved.

A first end of the second branch inlet pipe 130 is connected to the first main inlet pipe 118, specifically to the main inlet pipe after the first filter 116, and a second end of the second branch inlet pipe 130 is connected to the hot water unit 106. Specifically, when the water after the primary filtration through the first filter 116 can meet the requirement, the first water inlet branch pipe 120 does not need to be communicated, and the water purified by the first filter 116 is communicated to the hot water component 106 directly through the second water inlet branch pipe 130, so that the energy can be saved on one hand, and the service life of the purification component 108 is effectively prolonged on the other hand.

The waterway regulation assembly includes a first valve member 132 and a second valve member 134, and the opening/closing of the first valve member 132 and the second valve member 134 is controlled to regulate the communication state of the water inlet pipe 102. Specifically, the first valve 132 is disposed in the first inlet branch line 120 between the electrodialysis membrane stack 114 and the hot water unit 106, and is responsible for opening or closing the first inlet branch line 120. The second valve 134 is disposed in the second branch water inlet pipe 130 and is responsible for opening or closing the second branch water inlet pipe 130.

When the water primarily filtered by the first filter 116 can meet the requirement, the first valve 132 is closed, the second valve 134 is opened, the second water inlet branch pipe 130 is communicated, and the water from the water source directly enters the hot water part 106 after being filtered by the first filter 116. When the water primarily filtered by the first filter 116 cannot meet the requirement, the first valve 132 is opened, the second valve 134 is closed, the first inlet branch line 120 is connected, and the water from the water source is filtered by the first filter 116, secondarily purified by the electrodialysis membrane stack 114, and finally enters the hot water unit 106.

Through setting up first valve body 132 and second valve body 134, can adjust the conducting state of intake pipe 102 in a flexible way, improve and use experience.

First and second ends of the first three-way valve 136 communicate with the bypass line 110, and a third end of the first three-way valve 136 communicates with the first water inlet branch line 120. Specifically, the water purified by the electrodialysis membrane stack 114 is divided into two water paths by the first three-way valve 136, wherein one water path mixes with the water outlet line 104 through the bypass line 110, and the other water path enters the hot water component 106 through the first water inlet branch line 120 to supply purified water to the hot water component 106, so that the water paths can be effectively simplified, and the production cost can be reduced.

The water inlet pipeline 102 further includes a second water inlet main pipeline 142, and a first end of the second water inlet main pipeline 142 is connected to the first water inlet branch pipeline 120 and the second water inlet branch pipeline 130 respectively, that is, no matter water primarily filtered by the first filter 116 or water secondarily purified by the electrodialysis membrane stack 114 is communicated to the hot water component 106 through the second water inlet main pipeline 142, so as to simplify the water path and reduce the risk of leakage.

The water treatment device comprises a waste water pipeline 122, a first end of the waste water pipeline 122 is connected to a waste water outlet of the electrodialysis membrane stack 114, and a second end of the waste water pipeline 122 is connected to a sewage discharge outlet and is used for effectively discharging waste water generated when the electrodialysis membrane stack 114 works.

In some embodiments, a purification device may be added to the waste water pipeline 122 to perform secondary purification on waste water, so as to protect the environment, improve the water source utilization rate, and avoid waste of water resources.

Be provided with relief valve 144 on second main water inlet pipe 142, can effectual protection hot water part 106 safe in utilization, specifically, if water source water pressure is too big, or when the water source cuts off the water and produce the negative pressure, can close relief valve 144, avoid the too big hot water part 106 of damage of water pressure on the one hand, on the other hand avoids the water deposit among the hot water part 106 to lead to the fact extravagant against the current.

The second main water inlet pipe 142 is provided with a first flow detection element 146, when the first flow detection element 146 detects water flow in the pipe, the water source is in an open state, and at this time, the control purification assembly 108 and the plurality of water quality detection elements are electrified to work. Meanwhile, the first flow detection element 146 can also acquire the direction of the water amount to further judge whether the backflow condition occurs, and when the backflow condition occurs, a signal is sent to the controller 111 to enable the controller 111 to close the safety valve 144, so that the use safety of the water treatment device is improved.

The second three-way valve 148 communicates with the first water inlet main line 118, the first water inlet branch line 120 and the second water inlet branch line 130, and the third three-way valve 150 communicates with the second water inlet main line 142, the first water inlet branch line 120 and the second water inlet branch line 130. Through setting up second three-way valve 148 and third three-way valve 150, can effectively simplify waterway structure, reduction in production cost and reduce the seepage risk.

The first one-way valve 138 is arranged between the electrodialysis membrane stack 114 and the first three-way valve 136, so that hot water in the hot water part 106 can be prevented from flowing back to the electrodialysis membrane stack 114 due to pressure difference, and the working safety of the electrodialysis membrane stack 114 is protected. The second one-way valve 140 is arranged between the second valve body 134 and the hot water component 106, so that hot water in the hot water component 106 can be prevented from flowing back to the first purifying part due to water supply failure, and the use safety of the water treatment device is further improved.

The second flow detection element 152 is arranged between the electrodialysis membrane stack 114 and the bypass pipeline 110, and can detect the water outlet amount of the purified water of the electrodialysis membrane stack 114, so that on one hand, the water inlet amount can be controlled to be matched with the water outlet amount of the purified water of the electrodialysis membrane stack 114, the pressure difference is avoided, and the use safety is improved. On the other hand, the remaining service life of the electrodialysis membrane stack 114 can be analyzed through the average water yield of the electrodialysis membrane stack 114, and when the water yield is remarkably reduced, a user is prompted to replace the membrane stack, so that the use experience is improved.

In some embodiments, the first end of the bypass pipeline 110 may be directly connected to the first water inlet branch pipeline 120, and the purified water is sent to the hot water unit 106 through the first water inlet branch pipeline 120, so that the water path can be effectively simplified, and the production cost can be reduced.

In some embodiments, a second filter 126 is added to the primary water inlet conduit 118 to improve water purification. The first water inlet branch pipe 120 is provided with the pressure reducing valve 128, so that the water pressure entering the electrodialysis membrane stack 114 is not higher than the rated water pressure of the electrodialysis membrane stack 114, the use safety of the electrodialysis membrane stack 114 is further ensured, and the service life of the purification assembly 108 is prolonged.

Wherein, the first water quality detecting element 109, the second water quality detecting element 113 and the third water quality detecting element 115 can be selected as TDS (Total Dissolved Solids) probes.

The first filter member 116 and the second filter member 126 may be configured as one or more of a composite filter element, a PP cotton filter element, a wire-wound filter element, a folded microporous filter element, an activated carbon filter element, and a resin filter element, and the embodiment of the present invention is not limited to the specific configuration of the first filter member 116 and the second filter member 126.

First, second, and third three-

way valves

136, 148, 150 may be configured as mechanical three-way valves, electromagnetic three-way valves, or as tee fittings. The embodiment of the present invention does not limit the specific forms of the first three-way valve 136, the second three-way valve 148, and the third three-way valve 150.

EXAMPLE III

As shown in fig. 1, in one embodiment of the present invention, a water treatment apparatus includes:

the first electric control board 164 is connected with the first water quality detection part 109, the second water quality detection part 113, the third water quality detection part 115, the purification component 108 and the display component 154, and the first electric control board 164 is configured to supply power to the first water quality detection part 109, the second water quality detection part 113, the third water quality detection part 115, the purification component 108 and the display component 154 and control the purification component 108 to work; and the controller 111 is integrally disposed on the first electronic control board 164.

In this technical solution, the first water quality detecting part 109, the second water quality detecting part 113, the third water quality detecting part 115, the purifying assembly 108, the display assembly 154 and other electrical components are all powered and controlled by the first electric control board 164. The integrated first electronic control board 164 is arranged, so that the production cost and the installation cost can be effectively reduced.

Example four

As shown in fig. 2, in one embodiment of the present invention, a water treatment apparatus includes:

a purge assembly power supply board 166 connected to the purge assembly 108, the power supply configured to supply power to the purge assembly 108; a purge assembly control board 168 connected to the purge assembly power board 166 and the purge assembly 108, the purge assembly control board 168 configured to control the operation of the purge assembly 108; a second electronic control board 170 connected to the display module 154, wherein the second electronic control board 170 is configured to supply power to the display module 154 and control the display module 154 to operate; a third electric control board 172 connected to the first water quality detecting part 109, the second water quality detecting part 113 and the third water quality detecting part 115, the third electric control board 172 being configured to supply power to the first water quality detecting part 109, the second water quality detecting part 113 and the third water quality detecting part 115; and the controller 111 is integrally disposed on the third electronic control board 172.

In this technical scheme, power consumption parts such as water quality testing spare, purification subassembly 108, display module 154 supply power through the power supply board of independent setting to control through the automatically controlled board of independent setting, the function that can be convenient increases or reduces water treatment facilities according to actual demand, realize the modularization production.

EXAMPLE five

As shown in fig. 1 and 2, in one embodiment of the present invention, the water treatment apparatus further includes: the mixing valve 156 and the mixing valve 156 are connected with the water outlet pipeline 104 and the water inlet pipeline 102, and the mixing valve 156 comprises a mixing water outlet.

Wherein the hot water component 106 includes at least one heating element 158, and the water treatment device can be at least one of:

water heater, water dispenser, water purifier, humidifier, cooking equipment.

In this embodiment, the mixing valve 156 is connected to the water source, the water inlet line 102 and the water outlet line 104, and when the mixing valve 156 is opened, the water from the hot water component 106 is mixed with the cold water and then discharged through the mixing outlet for use by the user. The mixing valve 156 supplies water in the inlet line 102 at the same inlet volume while the hot water section 106 is out of the water to keep the volume and pressure of the water in the hot water section 106 constant.

The hot water unit 106 includes a heating member 158, and purified water stored in the hot water unit 106 is heated by the heating member 158 to obtain purified hot water. Wherein the heating member 158 may be a gas heating member 158, a resistance heating member 158, an electromagnetic heating member 158 or a solar heating member 158, and the embodiment of the present invention is not limited to the specific form of the heating member 158.

The water treatment device may be a water heater, such as a gas water heater or an electric water heater, providing a "clean water shower" for a user.

EXAMPLE six

As shown in fig. 3, in one embodiment of the present invention, the water treatment apparatus further comprises:

a purified water outlet pipeline 176, a first end of the purified water outlet pipeline 176 is connected to the bypass pipeline 110, and a second end of the purified water outlet pipeline 176 is provided with a purified water outlet 178.

Wherein, the first end of the purified water outlet line 176 is located between the first check valve 138 and the electrodialysis membrane stack 114.

Wherein, the purified water outlet pipe 176 is provided with an electromagnetic valve 180.

Wherein, the purified water outlet pipe 176 is provided with an electric heating element.

In this embodiment, the purified water outlet line 176 may directly discharge the purified water purified by the electrodialysis membrane stack 114 through the purified water outlet 178, so as to directly obtain fresh purified water.

The purified water outlet pipe 176 is provided with an electromagnetic valve 180, and the outlet of the purified water outlet pipe 176 can be controlled by controlling the opening and closing of the electromagnetic valve 180. When a water outlet instruction is received, the electromagnetic valve 180 is opened, and the purified water outlet pipeline 176 starts to output fresh purified water. When a water cut-off command is received, the electromagnetic valve 180 is closed, and the purified water outlet pipeline 176 stops water outlet.

In some embodiments, an electric heating element, specifically an instant heating type heating element, may be disposed on the purified water outlet pipeline 176, and the purified water in the purified water outlet pipeline 176 is directly heated by the electric heating element, so as to realize rapid output of purified hot water.

EXAMPLE seven

As shown in fig. 4, in one embodiment of the present invention, the water treatment apparatus further includes:

the thermostatic heat exchange piece 182 is arranged on the thermostatic valve 112, and the thermostatic heat exchange piece 182 is connected with the water inlet pipeline 102.

The constant temperature heat exchange member 182 includes a heat exchange portion, and the heat exchange portion is attached to the thermostatic valve 112.

In this embodiment, the thermostatic heat exchanger 182 is disposed outside the thermostatic valve 112, and the heat exchanging portion of the thermostatic heat exchanger 182 is attached to the thermostatic valve 112. When the flow of the cold water flowing into the thermostatic valve 112 is small and is not enough to obtain mixed water with a proper temperature, the cold water can be injected into the thermostatic heat exchange part 182, and when the cold water flows through the heat exchange part, the cold water exchanges heat with the thermostatic heat exchange valve to take away part of heat, so that the temperature response of the mixed water in the thermostatic valve 112 is reduced, and the user requirements are met.

Example eight

In an embodiment of the present invention, a water heater as shown in fig. 1 is taken as an example, and the embodiment of the present invention is specifically described.

The quality of the tap water cold water is better, and the condition of secondary purification is not needed by the intervention of the electrodialysis membrane stack 114, and the tap water cold water is shunted by the first three-way valve 136 after particulate matters such as silt are filtered by the first filter piece 116 and the second filter piece 126. At this time, the second valve body 134 is opened and the first valve body 132 is closed. When the mixing valve 156 is in the closed state, the cold water flows into the second three-way valve 148 through the second valve body 134 and enters the hot water part 106 after passing through the safety valve 144 and the first flow rate sensing member 146.

In the case that the quality of the tap water cold water is poor and the electrodialysis membrane stack 114 is needed to perform the secondary purification, after the tap water cold water is branched by the first three-way valve 136, the first valve 132 is opened, and the second valve 134 is closed. At this time, the pressure of the cold water is reduced by the pressure reducing valve 128, and the cold water is input to the electrodialysis membrane stack 114 (at this time, the first electric control plate 164 controls the action of the electrodialysis membrane stack 114), and the treated water and the waste water are obtained, the waste water is discharged through the waste water pipeline 122, and the purified water enters the hot water unit 106 through the first check valve 138 and the second water flow sensor, the first valve 132, the safety valve 144, and the first flow rate detector 146.

The water in the hot water section 106 is heated by the heating element 158 to raise the temperature of the water to a desired temperature. When the user discharges water, the mixing valve 156 is opened, and the hot water flows through the thermostatic valve 112, enters the water outlet pipe 104, and flows out through the shower head 174 for the user to bath.

Wherein, the water heater further comprises a temperature limiter 162 for preventing the water heater from overheating.

The first electric control board 164 is used for supplying power, detecting water temperature data through the temperature sensor 160, and simultaneously controlling the electrodialysis membrane stack 114, the first water quality detection part 109, the second water quality detection part 113 and the third water quality detection part 115 to work.

The display component 154 is used for displaying corresponding data, and in some embodiments, the display component 154 is a touch screen and is also used for receiving user operations.

The pressure value of the pressure reducing valve 128 may be adjusted according to actual conditions.

Example nine

In an embodiment of the present invention, a water heater as shown in fig. 2 is taken as an example, and the embodiment of the present invention is specifically described.

In the case that the quality of the tap water cold water is poor and the electrodialysis membrane stack 114 is needed to perform the secondary purification, after the tap water cold water is branched by the first three-way valve 136, the first valve 132 is opened, and the second valve 134 is closed. At this time, the pressure of the cold water is reduced by the pressure reducing valve 128, and the cold water is input to the electrodialysis membrane stack 114 (at this time, the operation of the electrodialysis membrane stack 114 is controlled by the purification module control board 168), and purified water and wastewater are obtained after treatment, the wastewater is discharged through the wastewater pipe 122, and the purified water enters the hot water unit 106 through the first check valve 138 and the second flow sensor, the first valve 132, the safety valve 144, and the first flow rate detector 146.

The power supply board includes a cleaning assembly power supply board 166, a second electronic control board 170, and a third electronic control board 172.

The purification module control board 168 is used to control the operation of the electrodialysis membrane stack 114.

A purification assembly power supply board 166 is used to power the electrodialysis membrane stack 114 and the purification assembly control board 168.

The second electronic control board 170 is used for supplying power to the display assembly 154 and controlling the display assembly 154 to operate.

The third electric control board 172 is used for supplying power to the first water quality detecting part 109, the second water quality detecting part 113 and the third water quality detecting part 115 and controlling the work thereof.

Example ten

In one embodiment of the present invention, there is provided a control method of a water treatment apparatus, the control method being adapted to control the water treatment apparatus provided in any one of the above-described embodiments.

Specifically, as shown in fig. 5, the control method of the water treatment apparatus includes:

step 502, obtaining a first water quality detection value of a water inlet pipeline;

and 504, controlling the waterway regulation assembly to change the conduction state of the water inlet pipeline according to the first water quality detection value and the target water quality parameter.

In this embodiment, the first water quality detection value is specifically water quality data of water inflow from a water source. According to the quality of water data and the target water quality parameter that the water source was intake, control water route adjusting part changes the form that switches on of water inlet pipe, and when water source quality of water was better, water inlet pipe direct intercommunication water source and hot water part (or communicate to the hot water part after the process filter is just strained), and the electrodialysis membrane stack is out of work this moment, can the energy saving on the one hand, and on the other hand effectively improves the life of electrodialysis membrane stack.

EXAMPLE eleven

In an embodiment of the present invention, as shown in fig. 6, a method for controlling who processing apparatus includes:

step 602, when the first water quality detection value is less than or equal to the target water quality parameter, controlling the first valve body to close and controlling the second valve body to open;

and step 604, controlling the first valve body to open and controlling the second valve body to close when the first water quality detection value is greater than the target water quality parameter.

In this embodiment, if the first water quality detection value is less than or equal to the target water quality parameter, it indicates that the water primarily filtered by the first filter can meet the requirement, and accordingly the first valve is controlled to close, the second valve is controlled to open, and the water from the water source directly enters the hot water component after being filtered by the first filter.

Example twelve

In an embodiment of the present invention, as shown in fig. 7, the control method of the water treatment apparatus further includes:

step 702, controlling a display assembly to display a first water quality detection value, a second water quality detection value and a third water quality detection value;

and 704, when the third water quality detection value is greater than the water quality parameter threshold value, generating corresponding prompt information, and controlling a display component to display the prompt information.

In this embodiment, the display module can make the user implement and master water treatment facilities work effect and local water source quality of water, and then improves water treatment facilities's use experience. If the third water quality detection value is larger than the actual parameter threshold value, the purified water quality still cannot meet the requirement, and the service life of the purification assembly is up, or the purification assembly is out of order, or the water quality of the water source is too poor. At the moment, prompt information is correspondingly displayed, a user is prompted to check the purification assembly or the water source, and the use experience is improved.

EXAMPLE thirteen

In one embodiment of the present invention, there is provided a computer-readable storage medium having stored thereon a computer program which, when executed by a processor, implements a control method of a water treatment apparatus as in any one of the above-described embodiments.

In the computer-readable storage medium provided by the present invention, when the computer program is executed by the processor, the steps of the method for controlling a water treatment apparatus according to any of the above embodiments are implemented, so that the computer-readable storage medium includes all the beneficial effects of the method for controlling a water treatment apparatus according to any of the above embodiments, and are not described herein again.

In the description herein, the terms "first" and "second" are used for descriptive purposes only and are not to be construed as indicating or implying relative importance unless explicitly stated or limited otherwise; the terms "connected," "mounted," "secured," and the like are to be construed broadly and include, for example, fixed connections, removable connections, or integral connections; may be directly connected or indirectly connected through an intermediate. The specific meanings of the above terms in the present invention can be understood by those skilled in the art according to specific situations.

In the description herein, the description of the terms "one embodiment," "some embodiments," "specific embodiments," etc., means that a particular feature, structure, material, or characteristic described in connection with the embodiment or example is included in at least one embodiment or example of the invention. In this specification, the schematic representations of the terms used above do not necessarily refer to the same embodiment or example. Furthermore, the particular features, structures, materials, or characteristics described may be combined in any suitable manner in any one or more embodiments or examples.

The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention, and various modifications and changes may be made by those skilled in the art. Any modification, equivalent replacement, or improvement made within the spirit and principle of the present invention should be included in the protection scope of the present invention.

Claims

1. A water treatment device, comprising:

the water inlet pipeline is provided with a water path adjusting component;

a water outlet pipeline;

the hot water component is respectively connected with the water inlet pipeline and the water outlet pipeline;

a purification assembly disposed in the water inlet line, the purification assembly configured to purify fluid within the water inlet line;

a bypass line, a first end of the bypass line being connected to the water inlet line between the hot water unit and the purification assembly, a second end of the bypass line being connected to the water outlet line;

the first water quality detection piece is arranged on the water inlet pipeline and located on the water inlet side of the purification assembly, and the first water quality detection piece is configured to obtain a first water quality detection value.

2. The water treatment apparatus according to claim 1, further comprising:

the controller is connected with the waterway regulation component and the first water quality detection piece, and is configured to control the waterway regulation component according to the first water quality detection value and a target water quality parameter so as to change the conduction state of the water inlet pipeline.

3. The water treatment apparatus according to claim 2, further comprising:

and the thermostatic valve is arranged on the water outlet pipeline and is connected with the second end of the bypass pipeline.

4. The water treatment apparatus according to claim 3, further comprising:

the second water quality detection piece is arranged on the water outlet pipeline and is positioned at the water inlet side of the thermostatic valve, and the second water quality detection piece is connected with the controller and is configured to obtain a second water quality detection value;

the third water quality detection piece is arranged on the water outlet pipeline and is positioned on the water outlet side of the thermostatic valve, and the third water quality detection piece is connected with the controller and is configured to obtain a third water quality detection value;

a display component connected with the controller, the display component configured to display at least one of the first water quality detection value, the second water quality detection value and the third water quality detection value.

5. The water treatment device of claim 4, wherein the purification module comprises an electrodialysis membrane stack and a first filter, and the water inlet line comprises:

the first water inlet main pipeline is provided with the first filter element;

the first end of the first water inlet branch pipeline is connected with the first water inlet main pipeline, the second end of the first water inlet branch pipeline is connected with the hot water component, and the electrodialysis membrane stack is arranged on the first water inlet branch pipeline.

6. The water treatment device of claim 5, wherein the water inlet line further comprises:

and one end of the second water inlet branch pipeline is connected with the first water inlet main pipeline, and the other end of the second water inlet branch pipeline is connected with the hot water component.

7. The water treatment device of claim 6, wherein the waterway adjustment assembly comprises:

the first valve body is arranged on the first water inlet branch pipeline and is positioned between the electrodialysis membrane stack and the hot water component;

a second valve body arranged on the second water inlet branch pipe,

wherein one of the first valve body and the second valve body is opened and the other is closed so as to switch the first water inlet branch pipeline and the second water inlet branch pipeline.

8. The water treatment apparatus according to claim 7, further comprising:

the first three-way valve is respectively connected with the first end of the bypass pipeline and the first water inlet branch pipeline, and the first three-way valve is positioned between the first valve body and the electrodialysis membrane stack.

9. The water treatment device of claim 6, wherein the water inlet line further comprises:

and one end of the second water inlet main pipeline is connected with the first water inlet branch pipeline and the second water inlet branch pipeline, and the other end of the second water inlet main pipeline is connected with the hot water component.

10. The water treatment apparatus according to claim 5, further comprising:

a waste water line connected to a waste water discharge port of the electrodialysis membrane stack.

11. The water treatment apparatus according to claim 5,

and the first end of the bypass pipeline is connected with the first water inlet branch pipeline.

12. The water treatment apparatus according to claim 5, further comprising:

the second filter element is arranged on the first main water inlet pipeline; and/or

The pressure reducing valve is arranged on the first water inlet branch pipeline and is positioned between the electrodialysis membrane stack and the first water inlet main pipeline.

13. The water treatment apparatus according to claim 9, further comprising:

the safety valve is arranged on the second water inlet main pipeline; and/or

And the first flow detection piece is arranged on the second water inlet main pipeline.

14. The water treatment apparatus according to claim 9, further comprising:

the second three-way valve is respectively connected with the first main water inlet pipeline, the first branch water inlet pipeline and the second branch water inlet pipeline;

and the third three-way valve is respectively connected with the second water inlet main pipeline, the first water inlet branch pipeline and the second water inlet branch pipeline.

15. The water treatment apparatus as recited in claim 8, further comprising:

a first check valve disposed in the first water inlet branch pipe and between the electrodialysis membrane stack and the first three-way valve, the first check valve being configured to conduct in one direction from the electrodialysis membrane stack to the first three-way valve;

and the second one-way valve is arranged on the second water inlet branch pipe and is positioned between the second valve body and the hot water part, and the second one-way valve is configured to conduct in one direction along the direction from the second valve body to the hot water part.

16. The water treatment apparatus according to any one of claims 5 to 14, further comprising:

and the second flow detection part is arranged on the first water inlet branch pipe and is positioned between the electrodialysis membrane stack and the bypass pipeline.

17. The water treatment apparatus according to any one of claims 5 to 15, further comprising:

the first electric control board is connected with the first water quality detection piece, the second water quality detection piece, the third water quality detection piece, the purification component and the display component, and is configured to supply power to the first water quality detection piece, the second water quality detection piece, the third water quality detection piece, the purification component and the display component and control the purification component to work; and

the controller is integrated on the first electric control board.

18. The water treatment apparatus according to any one of claims 4 to 15, further comprising:

a purification assembly power supply board connected with the purification assembly, the power supply configured to supply power to the purification assembly;

the purification assembly control board is connected with the purification assembly power supply board and the purification assembly and is configured to control the purification assembly to work;

the second electric control board is connected with the display assembly and is configured to supply power to the display assembly and control the display assembly to work;

a third electric control board connected with the first water quality detection part, the second water quality detection part and the third water quality detection part, wherein the third electric control board is configured to supply power to the first water quality detection part, the second water quality detection part and the third water quality detection part; and

the controller is integrated on the third electric control board.

19. The water treatment apparatus according to any one of claims 1 to 15, further comprising:

the water mixing valve is connected with the water outlet pipeline and the water inlet pipeline and comprises a water mixing outlet.

20. A water treatment device as claimed in any one of claims 1 to 15, wherein the hot water component comprises at least one heating element.

21. The water treatment device of claim 20, comprising:

water heater, water dispenser, water purifier, humidifier, cooking equipment.

22. A control method of a water treatment apparatus for controlling the water treatment apparatus according to any one of claims 1 to 21, characterized by comprising:

acquiring a first water quality detection value of the water inlet pipeline;

and controlling the waterway regulating assembly to change the conduction state of the water inlet pipeline according to the first water quality detection value and the target water quality parameter.

23. The control method of a water treatment device according to claim 22, wherein the waterway regulation assembly includes a first valve body and a second valve body,

the step of controlling the waterway regulation assembly to change the conduction state of the water inlet pipeline according to the first water quality detection value and the target water quality parameter specifically comprises the following steps:

controlling the first valve body to be closed and controlling the second valve body to be opened based on the condition that the first water quality detection value is less than or equal to the target water quality parameter;

and controlling the first valve body to be opened and controlling the second valve body to be closed based on the condition that the first water quality detection value is greater than the target water quality parameter.

24. The control method of a water treatment device according to claim 23, further comprising a display component, the control method further comprising:

controlling the display assembly to display the first water quality detection value, the second water quality detection value and the third water quality detection value; and

and generating corresponding prompt information based on the condition that the third water quality detection value is greater than the water quality parameter threshold value, and controlling the display assembly to display the prompt information.

25. A computer-readable storage medium, on which a computer program is stored, which, when being executed by a processor, implements a control method of a water treatment apparatus according to any one of claims 22 to 24.