Hydrogen-rich water drinking device, automatic control method, apparatus, and storage medium

Abstract

The application provides a hydrogen-rich water drinking device, an automatic control method, equipment and a storage medium, relates to the technical field of water dispensers, and solves the problem that it is difficult to automatically supply hot water. The waterway structure of the hydrogen-rich water drinking device is simple. The hydrogen gas prepared can be gradually partially dissolved in filtered water through continuous filtration and reflux, the supply of hydrogen-rich water is realized, and the water stored in the water tank module is heated by the heating module to be mixed with the hydrogen-rich water, so that the supply of hot hydrogen-rich water is realized.

Description

Technical Field

[0001] The present application relates to the field of water dispensers, and in particular to a hydrogen-rich water drinking device, automatic control method, equipment and storage medium. Background Art

[0002] Hydrogen-rich water is water containing trace amounts of hydrogen molecules. Hydrogen has a corresponding antioxidant effect, and is therefore widely used in water dispensers, resulting in a growing number of hydrogen-rich water dispensers and related products on the market. In related technologies, hydrogen-rich water dispensers are replenished by installing drinking water buckets or water purifiers. However, these technologies have simple replenishment strategies, and the water system structure of hydrogen-rich water dispensers makes it difficult to supply hot hydrogen-rich water. Summary of the Invention

[0003] The present application provides a hydrogen-rich water drinking device, automatic control method, equipment and storage medium, which solves the problem of difficulty in automatically supplying hot water. The present application solution can provide a simple water channel structure and effectively realize the supply of hot hydrogen-rich water.

[0004] In a first aspect, the present application provides a hydrogen-rich water drinking device, comprising a main water inlet, a main drain outlet, a main water outlet, a filter module, a diversion module, a water tank module, an electrolyzer, and a heating module;

[0005] The filter module is used to filter the water source connected to the main water inlet and output the filtered water according to the control signal;

[0006] The water inlet of the diversion module is connected to the water outlet pipeline of the filtration module, and the first water outlet of the diversion module is connected to the main water outlet pipeline. The diversion module is used to divert the water pressurized by the pressure pump to other devices;

[0007] The total water inlet end of the water tank module is connected to the second water outlet end pipeline of the diversion module through a reverse osmosis membrane, and the reverse osmosis membrane is also connected to the main drain outlet through a flushing solenoid valve. The water tank module is provided with a first box body and a second box body. The first water outlet end of the first box body is connected to the water inlet end pipeline of the diversion module, the first water outlet end of the first box body is connected to the water inlet end pipeline of the diversion module, the first water outlet end of the first box body is also connected to the main water outlet pipeline, and the water outlet end of the second box body is connected to the main drain outlet through a drain valve;

[0008] The water inlet of the electrolyzer is connected to the water outlet pipeline of the second box, the exhaust end of the electrolyzer is connected to the diversion module through the gas transmission pipeline, and the drainage end of the electrolyzer is connected to the return end pipeline of the second box. The electrolyzer is used to transport hydrogen to the outside through the exhaust end of the electrolyzer and discharge oxygen and electrolyzed water to the second box through the drainage end of the electrolyzer;

[0009] The water inlet end of the heating module is connected to the second water outlet end pipeline of the first box body, the water outlet end of the heating module is connected to the total water outlet pipeline, and the air permeable end of the heating module is connected to the return water end of the first box body through the condensation pipe. The heating module is used to transport water vapor to the condensation pipe through the air permeable end to generate condensed water to flow back to the first box body.

[0010] In a second aspect, the present application further provides an automatic control method, which is applied to the hydrogen-rich water drinking device provided in the first aspect, wherein a TDS probe is further provided in the water tank module of the hydrogen-rich water drinking device, and the method comprises:

[0011] In response to a device start-up instruction, the device enters a flushing state, and obtains low-pressure detection information in the flushing state to determine whether the device is in a water inlet and water shortage state;

[0012] After exiting the flushing state, the water level information of the water tank module is obtained, and based on the water level information, it is determined whether the water storage and water shortage state is in place;

[0013] If the water storage is in a water shortage state, it will enter the water replenishment state and determine whether to terminate the water replenishment state and enter the drainage state based on the detection data obtained by the TDS probe;

[0014] If it is determined to enter the drainage state, then re-enter the water replenishment state after exiting the drainage state, and again determine whether to terminate the water replenishment state and enter the drainage state, until the number of times entering the drainage state reaches the preset value;

[0015] After exiting the water replenishment state, the water production state is entered. The water production state is used to control the power supply of the electrolyzer and transport the generated hydrogen to the diversion module to be output to the main water outlet through the diversion module.

[0016] In a third aspect, the present application further provides an electronic device, comprising:

[0017] one or more processors;

[0018] a storage device for storing one or more programs;

[0019] When one or more programs are executed by one or more processors, the one or more processors implement the automatic control method provided in the second aspect.

[0020] In a fourth aspect, the present application further provides a storage medium storing computer-executable instructions, which, when executed by a processor, are used to execute the automatic control method provided in the second aspect.

[0021] The water path structure of the hydrogen-rich water drinking device in the application is simple, and the prepared hydrogen can be gradually partially dissolved in the filtered water through continuous filtering and refluxing, so that the supply of hydrogen-rich water is realized. The water stored in the water tank module is heated by the heating module to mix with the hydrogen-rich water, thereby realizing the supply of hot hydrogen-rich water. The electric control system can enter the corresponding state through the control device based on the automatic control method, and execute the corresponding control strategy in the corresponding state, thereby effectively preparing the hydrogen-rich water, providing hot hydrogen-rich water for the user, and the control strategy is simple and effective, and automatic water supply can be realized. BRIEF DESCRIPTION OF DRAWINGS

[0022] Figure 1 A principle block diagram of the hydrogen-rich water drinking device provided by an embodiment of the application is provided.

[0023] Figure 2 A structure schematic diagram of the filtering module provided by an embodiment of the application is provided.

[0024] Figure 3 A structure schematic diagram of the shunt module provided by an embodiment of the application is provided.

[0025] Figure 4 A structure schematic diagram of the water tank module provided by an embodiment of the application is provided.

[0026] Figure 5 A water path structure schematic diagram of the hydrogen-rich water drinking device provided by an embodiment of the application is provided.

[0027] Figure 6 A step flow chart of the automatic control method provided by an embodiment of the application is provided.

[0028] Figure 7 A structure schematic diagram of the electronic device provided by an embodiment of the application is provided. DETAILED DESCRIPTION

[0029] The embodiments of the application will be further described below in conjunction with the drawings and embodiments. It can be understood that the specific embodiments described herein are only used to explain the embodiments of the application, and not to limit the embodiments of the application. In addition, it should be noted that, in order to facilitate the description, only the parts related to the embodiments of the application are shown in the drawings, and the skilled in the art should be able to think that any combination of technical features can constitute an optional embodiment as long as the technical features are not contradictory.

[0030] The terms "first", "second", etc. in the specification and claims of the present application are used to distinguish similar objects, and are not used to describe a specific order or sequence. It should be understood that the data used in this way can be interchanged under appropriate circumstances, so that the embodiments of the present application can be implemented in an order other than that illustrated or described herein, and the objects distinguished by "first", "second", etc. are generally a class, not limited to the number of objects, for example, the first object can be one or more. In addition, "and / or" in the specification and claims indicates at least one of the connected objects, and the character " / ", generally indicates that the objects before and after are in a "or" relationship. In the description of the present application, "a plurality of" means two or more, and "several" means one or more.

[0031] The hydrogen-rich water drinking device includes a total water inlet, a total water outlet and a total water outlet. The hydrogen-rich water drinking device can be used to produce hydrogen-rich water and provide hot hydrogen-rich water. The total water inlet is used to access the water source, and the total water outlet is used to discharge part of the water, such as flushing water, water tank remaining water, etc., and the total water outlet is used to provide hydrogen-rich water to the user. Of course, the hydrogen-rich water drinking device also controls each module and device through the corresponding electric control system, so that the hydrogen-rich water drinking device is more intelligent and better realizes the automatic water making function.

[0032] Figure 1 The principle block diagram of the hydrogen-rich water drinking device provided by an embodiment of the present application is shown in Figure 1 The hydrogen-rich water drinking device includes a filter module 110, a shunt module 120, a water tank module 130, an electrolytic cell 140 and a heating module 150.

[0033] The filter module 110 accesses the total water inlet 101, which is used to filter the water source accessed from the total water inlet 101. Moreover, the filter module 110 can also deliver filtered water according to the control signal sent by the electric control system, such as setting a corresponding electromagnetic valve in the filter module 110 to control the opening of the electromagnetic valve according to the control signal, thereby controlling the flow of the output filtered water.

[0034] The filter module 110 is connected with the shunt module 120, that is, the water outlet end of the filter module 110 is connected with the water inlet end of the shunt module 120 in pipeline, in addition, the shunt module 120 is provided with two water outlet ends, the first water outlet end of the shunt module 120 is connected with the total water outlet 103 in pipeline, that is, the shunt module 120 can provide drinking water for the total water outlet 103; the second water outlet end of the shunt module 120 is connected with the total water inlet end of the water tank module 130 through the reverse osmosis membrane 104, that is, the reverse osmosis membrane 104 is arranged between the second water outlet end of the shunt module 120 and the total water inlet end of the water tank module 130.

[0035] It is conceived that the reverse osmosis membrane 104 is an artificial semi-permeable membrane with corresponding characteristics made of a simulated biological semi-permeable membrane, and the membrane aperture of the reverse osmosis membrane 104 is very small, which can effectively remove dissolved salts, colloids, microorganisms, organic matter and the like in water, and further filter the filtered water. The reverse osmosis membrane 104 is also connected to the total water outlet 102 through the flushing electromagnetic valve, so as to flush the pipeline after the device enters the flushing state.

[0036] The water tank module 130 is provided with a first tank body and a second tank body to connect different modules, devices and the like. For example, the first water outlet end of the first tank body of the water tank module 130 is connected to the water inlet end of the distribution module 120, and the first water outlet end of the first tank body is also connected to the water outlet end of the heating module 150. The water outlet end of the second tank body is connected to the total water outlet 102 through a drain valve, and the water outlet end of the second tank body is also connected to the water inlet end of the electrolytic cell 140.

[0037] The electrolytic cell 140 is a device for generating gas by electrolyzing water in the hydrogen-rich water drinking device. The water inlet end of the electrolytic cell 140 is connected to the water provided by the second tank body, and the generated gas is transmitted outward after electrolysis. Specifically, the gas outlet end of the electrolytic cell 140 is connected to the distribution module 120 through a gas conveying pipeline, and the water outlet end of the electrolytic cell 140 is connected to the water return end of the second tank body. Therefore, the electrolytic cell 140 can convey hydrogen gas to the distribution module 120 through the gas outlet end thereof, and also convey oxygen gas and electrolyzed water to the second tank body through the water outlet end thereof.

[0038] The water inlet end of the heating module 150 is connected to the second water outlet end of the first tank body, and the water outlet end of the heating module 150 is connected to the total water outlet 103, i.e. the first water outlet end of the first tank body and the water outlet end of the heating module 150 can convey water to the total water outlet 103 through the same pipeline. In addition, the gas permeable end of the heating module 150 is connected to the water return end of the first tank body through a condensing pipeline, i.e. after the heating module 150 heats the water conveyed from the first tank body, the generated hot water is conveyed to the total water outlet 103, and the generated water vapor can enter the condensing pipeline through the gas permeable end thereof, and after condensation, the condensed water is returned to the first tank body.

[0039] It can be understood that in the hydrogen-rich water drinking device, water is accessed into the hydrogen-rich water drinking device from the filter module 110, filtered by the filter module 110, and then input into the distribution module 120. The distribution module 120 sends water through two pipeline branches, one branch sends water to the total water outlet 103, and the other branch sends water to the water tank module 130 after being filtered again by the reverse osmosis membrane 104. Of course, the water tank module 130 also returns water to the water inlet end of the distribution module 120 through the corresponding water outlet end thereof, thereby continuously filtering the water. In addition, the water tank module 130 also sends water to the electrolytic tank 140 to generate hydrogen by electrolysis, and the hydrogen generated by the electrolytic tank 140 is also delivered to the distribution module 120 through a pipeline, that is, the water inlet end of the distribution module 120 is connected to three pipeline branches to deliver hydrogen and treated water to the distribution module 120, thereby gradually dissolving the hydrogen in the water in continuous circulation and mixing to generate hydrogen-rich water.

[0040] In addition, the heating module 150 can also heat the water delivered by the water tank module 130, thereby mixing with the hydrogen-rich water to increase the temperature of the hydrogen-rich water. Therefore, it can be conceived that the hydrogen-rich water drinking device can provide hot hydrogen-rich water to the user by adjusting the water outlet of the heating module 150 or the water tank module 130.

[0041] As can be seen from the above scheme, the waterway structure of the hydrogen-rich water drinking device is simple, and the hydrogen gas prepared can gradually partially dissolve in the filtered water through continuous filtration and backflow to achieve the supply of hydrogen-rich water. In addition, the water stored in the water tank module is heated by the heating module to mix with the hydrogen-rich water, thereby achieving the supply of hot hydrogen-rich water.

[0042] In an embodiment, as shown in Figure 2 Figure 2 The structure diagram of the filter module provided in an embodiment of the present application, wherein the filter module 110 includes a low-voltage switch 111, a first water inlet electromagnetic valve 112, and at least two filter cartridges 113.

[0043] Specifically, the two ends of the low-voltage switch 111 are respectively connected to the two filter cartridges 113, and one filter cartridge 113 accesses the water source from the total water inlet, and the other filter cartridge 113 is connected to the first water inlet electromagnetic valve 112, which is used to control the water output by the filter module 110.

[0044] ​Of course, the number of filter cartridges 113 can be 3 or 4, which can be set according to product design needs, and in addition, the plurality of filter cartridges 113 connected at the other end of the low-pressure switch 111 are sequentially connected in series, and then the water is sent outwards through the first water inlet electromagnetic valve 112 after multi-stage filtration. Therefore, the filtration module 110 filters the water source through the plurality of filter cartridges 113 on it multiple times, and the electric control system can determine the water pressure of the water source through the low-pressure switch 111 on the filtration module 110, thereby assisting the adjustment of the function of the whole machine.

[0045] In an embodiment, as shown in Figure 3 , Figure 3 The structure diagram of the shunt module provided by an embodiment of the present application is shown, wherein the shunt module 120 includes a reverse osmosis diaphragm pump 121, a first three-way electromagnetic valve 122, and a second water inlet electromagnetic valve 123. The reverse osmosis diaphragm pump 121 can separate heavy metals and impurities from water molecules by using the reverse osmosis principle to filter the inflowing filtered water again, and pressurize and deliver to the first three-way electromagnetic valve 122 to be shunted to different devices and modules.

[0046] Specifically, the water inlet end of the reverse osmosis diaphragm pump 121 serves as the water inlet end of the shunt module 120 and is connected in pipeline with the water outlet end of the filtration module, the water inlet end of the first three-way electromagnetic valve 122 is connected in pipeline with the reverse osmosis diaphragm pump 121, the first water outlet end of the first three-way electromagnetic valve 122 is connected in pipeline with the water tank module through a reverse osmosis membrane, and the second water outlet end of the first three-way electromagnetic valve 122 is connected in pipeline with the total water outlet through a hydrogen mixing valve.

[0047] In addition, the water inlet end of the second water inlet electromagnetic valve 123 is connected in pipeline with the water inlet end of the first three-way electromagnetic valve 122, and the water outlet end of the second water inlet electromagnetic valve 123 is connected in pipeline with the first water outlet end and the second water outlet end of the first three-way electromagnetic valve 122, that is, the second water inlet electromagnetic valve 123 is connected in parallel with the first three-way electromagnetic valve 122, and then water is sent to the two branches of the water outlet end of the shunt module 120 after receiving the corresponding control signal.

[0048] Therefore, the shunt module can receive filtered water or hydrogen gas delivered by different modules, and realize shunting to different pipeline branches through the three-way electromagnetic valve, and send water to different pipeline branches according to the control signal of the electric control system, to complete the preparation and delivery of hydrogen-rich water.

[0049] In an embodiment, as shown in Figure 4 , Figure 4 The structure diagram of the water tank module provided by an embodiment of the present application is shown, wherein the water tank module 130 includes a first tank body 1311, a second tank body 1312, a second three-way electromagnetic valve 132, and a resin filter cartridge 133.

[0050] The first tank body 1311 and the second tank body 1312 are each provided with a water level switch 105, and the electric control system can determine the water level in each chamber through the water level switch 105.

[0051] The second three-way electromagnetic valve 132 is provided with one water inlet end and two water outlet ends, the water inlet end of the second three-way electromagnetic valve 132 serves as the total water inlet end of the water tank module 130, the first water outlet end of the second three-way electromagnetic valve 132 is communicated with the first tank body 1311 through a pipeline, and the second water outlet end of the second three-way electromagnetic valve 132 is communicated with the resin filter element 133 and communicated with the second tank body 1312 through a pipeline. It is conceivable that, for the water used for electrolysis, it is also necessary to filter again, such as filtering again through the resin filter element 133, to further reduce impurities in the water.

[0052] The air-permeable end of the heating module is communicated with the water return end of the first tank body 1311 through a pipeline, and then the condensed water is returned to the first tank body 1311, and in the figure, the condensed pipeline of the heating module for returning the condensed water to the water tank body 131 is represented by an arrowed line segment. The first tank body 1311 is provided with two water outlet ends, and the second tank body 1312 is provided with one water outlet end; the first water outlet end of the first tank body 1311 is connected with the pipeline of the shunt module to return the filtered water to the shunt module, and the second water outlet end of the first tank body 1311 is connected with the total water outlet through a pipeline; and the water outlet end of the second tank body 1312 sends water to the electrolytic cell to generate hydrogen gas by electrolysis. Therefore, the water tank module is provided with different tank bodies to distinguish the filtered water for electrolysis and mixing, and through the above water path structure, the water input into the water tank body can be continuously filtered, which helps to improve the water quality, and through the reasonable water path structure, the prepared hydrogen gas can also be effectively returned, so as to promote the generation of hydrogen-rich water.

[0053] In some embodiments, a throttle valve is arranged at the first water outlet end of the first tank body, the flow of water sent out of the water tank module is controlled through the throttle valve, and the output end of the throttle valve is connected with the water inlet end of the shunt module through a third water inlet electromagnetic valve, so that the control of whether to send water to the shunt module and the amount of water sent are realized. In addition, the output end of the throttle valve is also connected with the water outlet end of the heating module through a check valve, so as to avoid the return of hot water output by the heating module to the water tank module.

[0054] In some embodiments, the heating module is a heating tank, which includes a heating pot, an electric heating tube, a temperature controller, and a heat preservation material layer. Of course, the heat preservation material layer serves as a heat preservation part on the heating pot and can be arranged around the side of the pot body to reduce heat loss. The heating pot can provide a water storage function. After the cold water fills the heating pot, the electric heating tube is powered on for heating. When the first target temperature is reached, the temperature controller can make the electric heating tube power off, thereby stopping heating. In addition, when the temperature drops to the second target temperature, the temperature controller can make the electric heating tube power on again, thereby continuing heating. Thus, the heating is repeated continuously to provide hot water.

[0055] It should be noted that in some embodiments, the heating module can also use the instant heating principle for heating, such as by extending the pipeline and arranging an electric heating element along the pipeline to heat the water flow in the pipeline, thereby forming instant heating.

[0056] Figure 5 The water path structure schematic diagram of the hydrogen-rich water drinking device provided for an embodiment of the present application is shown in the figure, and the hydrogen-rich water drinking device includes a filtration module 110, a shunt module 120, a water tank module 130, an electrolytic cell 140, and a heating tank 151. In the figure, the line segments with arrows represent the flow direction of the water flow or gas flow in the pipeline.

[0057] The filtration module 110 includes a low-voltage switch 111, a first water inlet electromagnetic valve 112, and four filter cartridges 113. The two ends of the low-voltage switch 111 are respectively connected to two filter cartridges 113, and one filter cartridge 113 is connected to the water source entering from the total water inlet, and the other filter cartridge 113 is connected in series with the other filter cartridges 113 to form multi-stage filtration, and finally connected to the first water inlet electromagnetic valve 112, so that the electric control system can control the water output of the filtration module 110 through the first water inlet electromagnetic valve 112.

[0058] The shunt module 120 includes a reverse osmosis diaphragm pump 121, a first three-way electromagnetic valve 122, and a second water inlet electromagnetic valve 123. The water inlet end of the reverse osmosis diaphragm pump 121 is connected to the water outlet end of the first water inlet electromagnetic valve 112. The water inlet end of the first three-way electromagnetic valve 122 is connected to the reverse osmosis diaphragm pump 121; the first water outlet end of the first three-way electromagnetic valve 122 is connected to the total water inlet end of the water tank module 130 through the reverse osmosis membrane 104, and the reverse osmosis membrane 104 is also connected to the total water outlet 102 through the flushing electromagnetic valve 106; the second water outlet end of the first three-way electromagnetic valve 122 is connected to the total water outlet 103 through the hydrogen mixing valve 107.

[0059] In addition, the water inlet end of the second water inlet electromagnetic valve 123 is connected to the water inlet end of the first three-way electromagnetic valve 122, and the water outlet end of the second water inlet electromagnetic valve 123 is connected to the first water outlet end and the second water outlet end of the first three-way electromagnetic valve 122, that is, the second water inlet electromagnetic valve 123 is connected in parallel with the first three-way electromagnetic valve 122, so that after receiving the corresponding control signal, water is sent to the two branches of the water outlet end of the shunt module 120.

[0060] The water tank module 130 includes a first tank body 1311, a second tank body 1312, a second three-way electromagnetic valve 132, and a resin filter cartridge 133, and water level switches 105 are arranged in the first tank body 1311 and the second tank body 1312. The air permeable end of the heating module is in communication with the first tank body 1311, so that the condensed water is returned to the first tank body 1311.

[0061] The water inlet end of the second three-way electromagnetic valve 132 serves as the total water inlet end of the water tank module 130, and is in communication with the reverse osmosis membrane 104. The first water outlet end of the second three-way electromagnetic valve 132 is in communication with the first tank 1311 through a pipeline, and the second water outlet end of the second three-way electromagnetic valve 132 is in communication with the resin filter 133 and is in communication with the second tank 1312 through a pipeline.

[0062] The first water outlet end of the first tank 1311 is provided with a throttle valve 108, the output end of the throttle valve 108 is in communication with the water inlet end of the reverse osmosis diaphragm pump 121 through a third water inlet electromagnetic valve 109, and the output end of the throttle valve 108 is also in communication with the water outlet end of the heat tank 151 through a check valve 1010. The water outlet end of the second tank 1312 is in communication with the electrolytic tank 140. The exhaust end of the electrolytic tank 140 is in communication with the reverse osmosis diaphragm pump 121 through a check valve 1010 to deliver hydrogen.

[0063] The water inlet end of the heat tank 151 is connected to the second water outlet end of the first tank 1311 through a pipeline, the water outlet end of the heat tank 151 is connected to the total water outlet 103 through a pipeline, and the first water outlet end of the first tank 1311 and the water outlet end of the heat tank 151 deliver water to the total water outlet 103 through the same pipeline. In addition, the gas permeable end of the heat tank 151 is connected to the backwater end of the first tank 1311 through a condensing pipeline, that is, after the heat tank 151 heats the water delivered from the water tank module 130, the hot water is delivered to the total water outlet 103, and the water vapor generated can enter the condensing pipeline through the gas permeable end, and after condensation, the condensed water is returned to the first tank 1311.

[0064] It can be understood that the electronic control system can control the first water inlet electromagnetic valve 112 to be opened to access the water source, and before the preparation of hydrogen-rich water, the electronic control system can also control the related devices to flush the pipeline, such as controlling the second water inlet electromagnetic valve 123, the flushing electromagnetic valve 106 and the third water inlet electromagnetic valve 109 to be opened, and then starting the reverse osmosis diaphragm pump 121, so as to realize flushing, and when the flushing is finished, the second water inlet electromagnetic valve 123, the third electromagnetic valve and the reverse osmosis diaphragm pump 121 are controlled to be closed, and finally the flushing electromagnetic valve 106 is closed.

[0065] In the process of preparing hydrogen-rich water, the filtered water after filtration enters the water tank module 130 through the first three-way electromagnetic valve 122 and the reverse osmosis membrane 104. The electric control system controls the second three-way electromagnetic valve 132 to supply water to the first tank body 1311 and the second tank body 1312, and the water flowing into the second tank body 1312 flows into the electrolytic cell 140 again to generate hydrogen. Of course, the hydrogen is also delivered to the reverse osmosis diaphragm pump 121 through the pipeline, and then delivered to another pipeline branch through the first three-way electromagnetic valve 122 together with the filtered water (such as the filtered water delivered to the reverse osmosis diaphragm pump 121 from the first chamber through the third water inlet electromagnetic valve 109), so that the hydrogen is partially dissolved in the filtered water in the pipeline to form hydrogen-rich water; or, the hydrogen and the filtered water are delivered to the first tank body 1311 through the first three-way electromagnetic valve 122, and then enter the heating bladder 151 for heating. Of course, the electric control system can control the hydrogen mixing valve 107 to be opened to deliver hydrogen-rich water to the total water outlet 103. In addition, when providing hot hydrogen-rich water, the electric control system opens the throttle valve 108 to increase the amount of water in the heating bladder 151, so that the water heated by the heating bladder 151 is delivered to the total water outlet 103, and then hot hydrogen-rich water is provided to the user.

[0066] Figure 6 The automatic control method provided by an embodiment of the present application is shown in the step flowchart. The method can be applied to the hydrogen-rich water drinking device provided by the above-mentioned embodiments, such as the processor of the electric control system of the hydrogen-rich water drinking device. The hydrogen-rich water drinking device is also provided with a TDS (Total Dissolved Solids) probe in the water tank module. The specific steps of the method are as follows:

[0067] Step S610: In response to the device opening instruction, enter the flushing state, and obtain low-pressure detection information in the flushing state to determine whether it is in the water shortage state.

[0068] Step S620: After exiting the flushing state, obtain the water level information of the water tank module, and determine whether it is in the water shortage state according to the water level information.

[0069] Step S630: If it is in the water shortage state, enter the water supply state, and determine whether to suspend the water supply state and enter the water drainage state according to the detection data obtained by the TDS probe.

[0070] Step S640: If it is determined to enter the water drainage state, re-enter the water supply state after exiting the water drainage state, and again determine whether to suspend the water supply state and enter the water drainage state until the number of times of entering the water drainage state reaches a preset value.

[0071] Step S650: After exiting the water supply state, enter the water production state. The water production state is used to control the electrolytic cell to be powered on and deliver the generated hydrogen to the shunt module to be output to the total water outlet through the shunt module.

[0072] It can be understood that the electric control system can control the device to enter the flushing state when receiving the device opening instruction, such as controlling the corresponding electromagnetic valve and the pressurizing pump to open to flush the pipeline. For example, the second water inlet electromagnetic valve, the flushing electromagnetic valve and the third water inlet electromagnetic valve are controlled to open, and then the reverse osmosis diaphragm pump is started to realize flushing. When the flushing is completed, the second water inlet electromagnetic valve, the third electromagnetic valve and the reverse osmosis diaphragm pump are controlled to close, and finally the flushing electromagnetic valve is closed.

[0073] The electric control system also acquires low pressure detection information in the flushing state, such as detecting the water pressure of the water source through the low pressure switch. It can be conceived that when the water pressure of the water source is lower than the preset pressure value, the electric control system can determine that the device is in the water shortage state, and then the flushing is stopped.

[0074] After exiting the flushing state, the electric control system also acquires the water level information corresponding to the water tank module, and determines whether the device is in the water shortage state according to the water level information. For example, a warning water level is preset in the electric control system, and the electric control system can determine the water level in the water tank body according to the water level information. When the water level is lower than the warning water level, the electric control system can determine that the device is in the water shortage state, and then controls the device to enter the water replenishing state, such as controlling the first water inlet electromagnetic valve, the first three-way electromagnetic valve and the second three-way electromagnetic valve to open to form a channel to store the filtered water in the water tank body.

[0075] In the water replenishing state, the electric control system also acquires detection data in real time, such as acquiring detection data according to the TDS probe arranged in the water tank module, and then determining whether the water replenishing state needs to be stopped and the water draining state needs to be entered.

[0076] In an embodiment, the detection data is a TDS value, which is used to represent the concentration of total dissolved substances in water. Therefore, after entering the water replenishing state, the electric control system can continuously acquire the TDS value, and determine whether the TDS value is greater than a preset threshold value. When all the acquired TDS values are greater than the preset threshold value, the electric control system can determine to enter the water draining state.

[0077] In the water draining state, the electric control system controls the water tank module to drain the stored water, and the electric control system also records the number of times of entering the water draining state, and then determines that the current water quality is poor when the number of times of entering the water draining state reaches a preset value, and can also prompt the user through the corresponding indicator light, loudspeaker and the like.

[0078] Of course, after exiting the water replenishing state, the electric control system controls the device to enter the water producing state, such as starting the electrolysis tank to electrolyze water to generate hydrogen gas, and the electric control system controls the first three-way electromagnetic valve to make the hydrogen gas and the filtered water enter another pipeline branch to be delivered to the total water outlet.

[0079] From the above scheme, the electric control system can enter the corresponding state through the control device, and execute the corresponding control strategy in the corresponding state, thereby effectively preparing the hydrogen-rich water, providing the hydrogen-rich water for the user, and the control strategy is simple and effective, and automatic water supply can be realized.

[0080] Figure 7 The electronic device provided in an embodiment of the present application is used to execute the automatic control method provided in the above embodiment, and has the function modules and beneficial effects corresponding to the execution method. As shown in the figure, it includes a processor 701, a memory 702, an input device 703, and an output device 704. The number of the processor 701 can be one or more, and one processor 701 is taken as an example in the figure; the processor 701, the memory 702, the input device 703, and the output device 704 can be connected through a bus or other means, and connection through the bus is taken as an example in the figure. The memory 702, as a kind of computer readable storage medium, can be used to store software programs, computer executable programs, and modules, such as program instructions / modules corresponding to the automatic control method in the embodiment of the present application. The processor 701 executes the software programs, instructions, and modules stored in the memory 702, thereby executing corresponding various function applications and data processing, that is, realizing the automatic control method described above.

[0081] The memory 702 can mainly include a program storage area and a data storage area, wherein the program storage area can store an operating system and at least one application required by a function; the data storage area can store data recorded or created during use, etc. In addition, the memory 702 can include a high-speed random access memory, and can also include a non-volatile memory, such as at least one magnetic disk storage device, a flash memory device, or other non-volatile solid-state storage device.

[0082] The input device 703 can be used to input corresponding digital or character information to the processor 701, and generate key signal input related to user settings and function control of the device; the output device 704 can be used to send or display key signal output related to user settings and function control of the device.

[0083] The embodiment of the present application also provides a storage medium having computer executable instructions, and the computer executable instructions are used to execute the related operations in the automatic control method provided in any embodiment of the present application when executed by a processor.

[0084] Computer-readable storage media includes permanent and non-permanent, removable and non-removable media implemented by any method or technology for information storage. Information can be computer-readable instructions, data structures, program modules or other data. Examples of computer storage media include, but are not limited to, phase-change memory (PRAM), static random access memory (SRAM), dynamic random access memory (DRAM), other types of random access memory (RAM), read-only memory (ROM), electrically erasable programmable read-only memory (EEPROM), flash memory or other memory technologies, compact disc read-only memory (CD-ROM), digital versatile disc (DVD) or other optical storage, magnetic cassette, disk storage or other magnetic storage devices, or any other non-transmission medium that can be used to store information accessible by a computing device.

[0085] It should also be noted that the terms "comprising", "containing", or any other variant thereof are intended to cover a non-exclusive inclusion, such that a process, method, article or apparatus that comprises a list of elements does not include only those elements recited, but can also include other elements not expressly listed or inherent to such process, method, article or apparatus. Without further limitation, an element defined by the statement "comprising a" does not exclude the presence of additional identical elements in the process, method, article or apparatus that includes the element.

[0086] Note that the above are only the preferred embodiments of the present application and the principles of technology used. Those skilled in the art will understand that the present application is not limited to the specific embodiments described herein, and that various obvious changes, re-adjustments and substitutions can be made by those skilled in the art without departing from the scope of the present application. Therefore, although the present application has been described in detail through the above embodiments, the present application is not limited to the above embodiments, and can include more other equivalent embodiments without departing from the concept of the present application, and the scope of the present application is determined by the scope of the appended claims.

Claims

1. A hydrogen-rich water drinking device, comprising a main water inlet, a main drain outlet and a main water outlet, characterized in that: The hydrogen-rich water drinking device further comprises: A filtering module, the filtering module is used to filter the water source connected to the main water inlet and output the filtered water according to a control signal; A diversion module, wherein the water inlet end of the diversion module is connected to the water outlet pipeline of the filtration module, the first water outlet end of the diversion module is connected to the main water outlet pipeline, and the diversion module is used to divert the water pressurized by the pressure pump to other devices; A water tank module, wherein the total water inlet end of the water tank module is connected to the second water outlet end pipeline of the diversion module through a reverse osmosis membrane, and the reverse osmosis membrane is also connected to the main drain port through a flushing solenoid valve. The water tank module is provided with a first box body and a second box body, the first water outlet end of the first box body is connected to the water inlet end pipeline of the diversion module, the first water outlet end of the first box body is also connected to the main water outlet pipeline, and the water outlet end of the second box body is connected to the main drain port through a drain valve; an electrolyzer, wherein the water inlet of the electrolyzer is connected to the water outlet pipeline of the second tank, the exhaust end of the electrolyzer is connected to the diversion module via a gas pipeline, the drainage end of the electrolyzer is connected to the return water end pipeline of the second tank, and the electrolyzer is used to transport hydrogen to the outside through the exhaust end of the electrolyzer and discharge oxygen and electrolyzed water to the second tank through the drainage end of the electrolyzer; a heating module, wherein the water inlet end of the heating module is connected to the second water outlet pipe of the first housing, the water outlet end of the heating module is connected to the total water outlet pipe, the ventilation end of the heating module is connected to the return water end of the first housing via a condensation pipe, and the heating module is configured to transport water vapor to the condensation pipe via the ventilation end to generate condensed water that flows back to the first housing; The diversion module includes a reverse osmosis diaphragm pump, a first three-way solenoid valve and a second water inlet solenoid valve, wherein the first three-way solenoid valve is provided with a water inlet end and two water outlet ends; The water inlet end of the reverse osmosis diaphragm pump serves as the water inlet end of the diversion module and is connected to the water outlet pipeline of the filtration module. The reverse osmosis diaphragm pump serves as the pressure pump and is used for pressurization; The water inlet end of the first three-way solenoid valve is connected to the reverse osmosis diaphragm pump pipeline, the first water outlet end of the first three-way solenoid valve is connected to the water tank module pipeline through the reverse osmosis membrane, and the second water outlet end of the first three-way solenoid valve is connected to the total water outlet pipeline through the hydrogen mixing valve; The water inlet end of the second water inlet solenoid valve is connected to the water inlet end pipeline of the first three-way solenoid valve, and the water outlet end of the second water inlet solenoid valve is connected to the first water outlet end and the second water outlet end pipeline of the first three-way solenoid valve.

2. The hydrogen-rich water drinking device according to claim 1, characterized in that: The filter module includes a low-pressure switch, a first water inlet solenoid valve and at least two filter elements. The two ends of the low-pressure switch are respectively connected to the two filter elements, and one filter element is connected to the water source entering from the main water inlet, and the other filter element is connected to the first water inlet solenoid valve. The first water inlet solenoid valve is used to control the amount of water output by the filter module.

3. The hydrogen-rich water drinking device according to claim 1, characterized in that: The water tank module also includes a second three-way solenoid valve and a resin filter element; The first box and the second box are both provided with water level switches; The second three-way solenoid valve is provided with a water inlet end and two water outlet ends. The water inlet end of the second three-way solenoid valve serves as the total water inlet end of the water tank module. The first water outlet end of the second three-way solenoid valve is connected to the first box body through a pipeline. The second water outlet end of the second three-way solenoid valve is connected to the resin filter element and is connected to the second box body through a pipeline.

4. The hydrogen-rich water drinking device according to claim 3, characterized in that: A throttle valve is provided at the first water outlet end of the first box body, and the output end of the throttle valve is connected to the water inlet end of the diversion module through the third water inlet solenoid valve, and the output end of the throttle valve is also connected to the water outlet end of the heating module through a check valve.

5. The hydrogen-rich water drinking device according to claim 1, characterized in that: The heating module is a heat container, which is used to store and heat the drinking water output from the third water outlet end of the water tank module.

6. An automatic control method, characterized in that: The hydrogen-rich water drinking device according to any one of claims 1 to 5 is implemented, wherein the water tank module of the hydrogen-rich water drinking device is further provided with a TDS probe; The method comprises: In response to a device start instruction, the device enters a flushing state, and obtains low-pressure detection information in the flushing state to determine whether the device is in a water inlet and water shortage state; After exiting the flushing state, the water level information of the water tank module is obtained, and according to the water level information, it is determined whether the water storage and water shortage state is in progress; If the water storage is in a water shortage state, the water replenishment state is entered, and according to the detection data obtained by the TDS probe, it is determined whether to terminate the water replenishment state and enter the drainage state; If it is determined to enter the drainage state, then re-enter the water replenishment state after exiting the drainage state, and again determine whether to terminate the water replenishment state and enter the drainage state, until the number of times of entering the drainage state reaches a preset value; After exiting the water replenishment state, the water production state is entered, and the water production state is used to control the power supply of the electrolyzer and transport the generated hydrogen to the diversion module to be output to the main water outlet through the diversion module.

7. The automatic control method according to claim 6, characterized in that: The detection data of the TDS probe is the TDS value, which is used to represent the concentration of total soluble substances in water; If the water storage is in a water shortage state, the water replenishment state is entered, and according to the detection data obtained by the TDS probe, it is determined whether to terminate the water replenishment state and enter the drainage state, including: Continuously acquiring the TDS value after entering the water replenishment state; If the multiple TDS values ​​obtained are all greater than the preset threshold, it is determined that the system enters the drainage state.

8. An electronic device, characterized in that: The electronic device comprises: one or more processors; a storage device for storing one or more programs; When one or more of the programs are executed by one or more of the processors, the one or more processors implement the automatic control method according to any one of claims 6 to 7.

9. A storage medium storing computer executable instructions, characterized in that: When the computer executable instructions are executed by a processor, the computer executable instructions are used to perform the automatic control method according to any one of claims 6 to 7.

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