Pure water electrochemical waterway system and waterway system of pure water and sewage integrated machine
By designing a pure water electrochemical water circuit system, a proton exchange membrane electrolysis device is used to electrolyze pure water into disinfectant water, solving the problem of the lack of electrolysis function in the integrated water purification and disinfection system. This achieves efficient and environmentally friendly disinfectant water preparation, which is suitable for the medical and food processing fields.
Patent Information
- Application Number
- CN202521845129.2
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-08-27
- Publication Date
- 2026-08-25
- Estimated Expiration
- 2035-08-27
AI Technical Summary
The integrated water purification and disinfection system lacks a water circuit for electrolyzing pure water, resulting in a lack of function to prepare alkaline or acidic oxidizing potential water, which increases costs and may leave chemical residues, affecting the effectiveness of use.
Design a pure water electrochemical water circuit system, including an inlet component, a flow component, an electrolysis component, and an outlet component. Pure water is electrolyzed into disinfected water through a proton exchange membrane electrolysis device to generate alkaline or acidic oxidizing potential water, which is then supplied to users through a convenient output method.
It achieves efficient preparation of disinfectant without the need for chemical agents, and the product is biodegradable, meeting the needs of different scenarios and having significant application value.
Smart Images
Figure CN224677871U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of purification, and in particular to a pure water electrochemical water circuit system and a water circuit system for an integrated water purification and disinfection machine. Background Technology
[0002] In existing technologies, integrated water purification and disinfection systems lack a water circuit for electrolyzing pure water, thus lacking the function of preparing alkaline or acidic oxidizing electrolyzed water. The strong oxidizing properties of acidic oxidizing electrolyzed water can quickly kill a variety of microorganisms, and without it, traditional disinfectants must be relied upon, which not only increases costs but may also leave chemical residues. The cleaning and weak disinfection effects of alkaline oxidizing electrolyzed water are difficult to replace, and without it, additional cleaning products are required, which reduces the convenience of operation and may affect the effectiveness of use due to the mixing of multiple products, thus failing to achieve the high efficiency and environmental protection advantages of integrated purification and disinfection. Utility Model Content
[0003] Therefore, it is necessary to address the lack of a water circuit for electrolyzing pure water in integrated water purification and disinfection systems, and to provide a pure water electrochemical water circuit system and an integrated water purification and disinfection machine water circuit system.
[0004] A pure water electrochemical water circuit system includes: a liquid inlet assembly having an inlet for connecting to an external water source; a liquid passing assembly disposed on the liquid inlet assembly and capable of communicating or blocking it, the liquid passing assembly being used to receive liquid from the liquid inlet assembly and purify the liquid into pure water; an electrolysis assembly disposed on the liquid passing assembly and capable of communicating or blocking it, the electrolysis assembly having a proton exchange membrane electrolysis element for electrolyzing pure water into disinfectant water; and a liquid outlet assembly disposed on the electrolysis assembly and connected to it, the liquid outlet assembly being used to discharge the disinfectant water.
[0005] The above discloses a pure water electrochemical water circuit system. Through the coordinated operation of the inlet component, the pass-through component, the electrolysis component, and the outlet component, a treatment process from water source input to disinfected water output is constructed. The inlet component connects to an external water source such as tap water through its inlet, serving as the system's raw material input. Its stable on / off control provides a continuous and controllable water flow foundation for subsequent treatment, ensuring the entire system can start and operate as needed. The pass-through component is linked to the inlet component, flexibly switching between connected and blocked states. When in the connected state, it receives raw water from the inlet component, removes impurities and ions through an internal purification mechanism, and converts the raw water into high-purity pure water, providing high-quality raw materials for the electrolysis process and avoiding the impact of impurities on electrolysis efficiency and disinfected water quality. The blocked state prevents untreated raw water from entering subsequent stages when the system is shut down or under maintenance. The electrolysis component receives the pure water output from the pass-through component, with its core proton exchange membrane electrolysis unit playing a crucial role. Under electrolysis, pure water is precisely converted into alkaline or acidic electrolyzed water: acidic electrolyzed water, with its strong oxidizing properties, can quickly kill a variety of microorganisms, and its disinfection efficacy far exceeds that of traditional disinfectants; alkaline electrolyzed water can balance cleaning and mild disinfection functions, meeting the needs of different scenarios. The liquid outlet component is connected to the electrolysis component, directly discharging the generated alkaline or acidic electrolyzed water for use. This convenient output method eliminates the storage and preparation steps of traditional disinfectants. The entire system has a coherent process, with each component having a clear division of labor. It achieves efficient preparation of disinfectant water, and because it does not require the addition of chemical agents and the byproducts are biodegradable, it eliminates pollution at the source, making it of significant application value in the medical, food processing, and other fields.
[0006] In one embodiment, the liquid inlet assembly includes an inlet pipe, an inlet ball valve, a first filter element, and an adapter. One end of the inlet pipe has the inlet port, and the first interface of the adapter is located at the other end of the inlet pipe. The inlet ball valve and the first filter element are sequentially arranged on the inlet pipe between the inlet port and the adapter. The liquid flow assembly is located on the second interface of the adapter. By using the inlet pipe as the main channel for water flow, with one end connected to an external water source via the inlet port and the other end connected to the first interface of the adapter, a physical pathway is formed from the water source to the system interior. This pipeline design ensures smooth water flow. The inlet ball valve is installed on the inlet pipe, located between the inlet port and the first filter element. As the first switch of the system, it can quickly control the flow of water through manual or automatic means. This function not only facilitates system start-up and shutdown but also allows for timely water supply cut-off during maintenance and repair, ensuring operational safety. The first filter element is connected in series between the inlet ball valve and the adapter. Its internal components, including activated carbon and an ultrafiltration membrane, effectively remove large particulate impurities such as silt, rust, residual chlorine, and organic matter, as well as some soluble pollutants from the raw water. This pretreatment step reduces the purification burden on subsequent liquid-passing components, extends the service life of core purification parts, and prevents wear and tear on pipes, valves, and other hardware caused by coarse impurities, thus protecting the system for long-term stable operation. The adapter connects to the inlet pipe via the first interface and to the liquid-passing components via the second interface, serving as a water circuit hub and ensuring a tight connection between the inlet and liquid-passing components.
[0007] In one embodiment, the liquid-passing assembly includes a first liquid-passing pipe, a first solenoid valve, a booster pump, a second filter element, and a second liquid-passing pipe. One end of the first liquid-passing pipe is disposed on the liquid inlet assembly, and the liquid inlet of the second filter element is disposed on the other end of the first liquid-passing pipe. The first solenoid valve and the booster pump are sequentially disposed on the first liquid-passing pipe and located between the liquid inlet assembly and the second filter element. One end of the second liquid-passing pipe is disposed on the first liquid outlet of the second filter element, and the electrolysis assembly is disposed on the other end of the second liquid-passing pipe. The first solenoid valve can control the connection or disconnection between the first liquid-passing pipe and the liquid inlet assembly. By connecting one end of the first liquid-passing pipe to the liquid inlet assembly and the other end to the liquid inlet of the second filter element, a transmission channel for water flow from the liquid inlet assembly to the deep purification component is formed. The first solenoid valve is disposed on the first liquid-passing pipe, located between the liquid inlet assembly and the booster pump. As an automatically controlled valve, it can precisely control the connection or disconnection between the first liquid-passing pipe and the liquid inlet assembly through an electrical signal. The booster pump is installed between the first solenoid valve and the second filter element, and its core function is to increase the water flow pressure. Since the second filter cartridge may create some resistance to the water flow during the deep purification process, the booster pump increases the water pressure to ensure smooth water flow through the filter cartridge. This prevents a decrease in filtration efficiency or water flow interruption due to insufficient pressure. Stable pressure also helps improve the purification effect of the second filter cartridge, ensuring consistent water quality. The second filter cartridge, as the core component of deep purification, receives the pressurized water flow and further removes residual micro-impurities, soluble salts, and microorganisms through its internal high-precision filtration materials, such as a reverse osmosis membrane, purifying the water into highly pure water. This step is a prerequisite for the smooth operation of the subsequent electrolysis process, effectively preventing impurities from affecting the stability of the electrolysis reaction and the purity of the disinfectant. The second liquid-passing pipe connects to the first outlet of the second filter cartridge at one end and to the electrolysis unit at the other, responsible for transporting the purified water to the electrolysis unit.
[0008] In one embodiment, the liquid-passing assembly further includes a third liquid-passing channel. One end of the third liquid-passing channel is disposed at the first liquid outlet of the second filter element, and the other end of the third liquid-passing channel is disposed on the first liquid-passing pipe and located between the first solenoid valve and the booster pump. This structure enhances the filtration effect. When the water initially filtered by the second filter element flows out through the first liquid outlet, a portion of the water can flow back through the third liquid-passing channel to the front end of the first liquid-passing pipe, mix with the raw water from the inlet assembly, and then re-enter the booster pump for pressurization and delivery to the second filter element for secondary filtration. This design can secondary interception of trace impurities (such as soluble salts, small particulate matter, etc.) that may remain after the first filtration, further reducing the concentration of pollutants in the water through repeated filtration, ensuring that the water ultimately flowing to the electrolysis unit or pure water unit is purer.
[0009] In one embodiment, the electrolysis assembly includes a first electrolysis pipe, a throttling valve, a second solenoid valve, a flow meter, and an electrolysis module. One end of the first electrolysis pipe is disposed on the liquid-passing assembly. The electrolysis module has an electrolysis inlet and an electrolysis outlet. The electrolysis inlet is disposed on the other end of the first electrolysis pipe. The liquid-exit assembly is disposed on and connected to the electrolysis outlet. The throttling valve, the second solenoid valve, and the flow meter are sequentially disposed on the first electrolysis pipe and located between the liquid-passing assembly and the electrolysis module. The second solenoid valve can control the connection or disconnection between the first electrolysis pipe and the liquid-passing assembly. By connecting one end of the first electrolysis pipe to the liquid-passing assembly and the other end to the electrolysis inlet of the electrolysis module, a transport path for pure water to enter the electrolysis stage is established. Its unobstructed pipeline design ensures that deeply purified pure water can flow stably to the electrolysis module, providing a continuous supply of raw materials for the electrolysis reaction. A throttling valve is installed on the first electrolysis pipeline, located between the liquid-passing assembly and the second solenoid valve. Its main function is to regulate the water flow rate and pressure. By adjusting the opening of the throttling valve, the flow rate of pure water entering the electrolysis module can be precisely controlled, avoiding insufficient electrolysis due to excessively fast flow or low electrolysis efficiency due to excessively slow flow. This provides stable operating conditions for the electrolysis reaction and ensures the quality of the disinfectant water produced. The second solenoid valve is installed between the throttling valve and the flow meter, and can control the connection or disconnection between the first electrolysis pipeline and the liquid-passing assembly via an electrical signal. Working in conjunction with the first solenoid valve, it can flexibly start and stop the delivery of pure water to the electrolysis module according to system operating needs, and promptly cut off the water supply when the electrolysis module stops working. The flow meter is located between the second solenoid valve and the electrolysis module, used to monitor the amount of pure water flowing through the first electrolysis pipeline in real time. The electrolysis module, as the core site of the electrolysis reaction, electrolyzes the incoming pure water through its internal proton exchange membrane electrolysis unit. Under the influence of an electric field, pure water is decomposed into alkaline or acidic oxidizing potential water with strong disinfection properties. The electrolysis outlet is connected to the outlet component, allowing the generated disinfectant water to be smoothly discharged.
[0010] In one embodiment, the electrolysis module includes an electrolysis shell and a proton exchange membrane (PEM) electrolyzer. The electrolysis shell has an electrolysis inlet and an electrolysis outlet, and the PEM electrolyzer is mounted on the electrolysis shell. By using the electrolysis shell as a protective and supporting structure for the electrolysis module, it not only provides a mounting base for the PEM electrolyzer, securing it firmly inside, but also forms a closed reaction space through its own structure. The electrolysis inlet and outlet on the shell are respectively connected to the first electrolysis pipe and the outlet assembly, ensuring that pure water can enter the reaction space in an orderly manner, while allowing the generated disinfectant water to be smoothly discharged. The PEM electrolyzer is the core reaction component for the electrolysis module to achieve pure water conversion; it is located inside the electrolysis shell and directly participates in the electrolysis reaction. Its core proton exchange membrane has special selective permeability. Under the action of an electric field, it can promote the electrolysis reaction of water molecules in pure water. The presence of the proton exchange membrane not only ensures the directional progress of the electrolysis reaction and improves the electrolysis efficiency, but also effectively separates products of different properties, ensuring that the discharged disinfectant water meets the expected pH and oxidation potential requirements.
[0011] In one embodiment, the liquid dispensing assembly includes a liquid dispensing pipe, a liquid dispensing device, and a micro / nano bubble generator. One end of the liquid dispensing pipe is disposed on the electrolysis assembly, the liquid dispensing device is disposed on the other end of the liquid dispensing pipe, and the micro / nano bubble generator is disposed on the liquid dispensing pipe and located between the liquid dispensing pipe and the liquid dispensing device. By connecting one end of the liquid dispensing pipe to the electrolysis liquid dispensing end of the electrolysis assembly and the other end to the liquid dispensing device, a transmission channel for disinfectant water from the electrolysis module to the user terminal is formed. The liquid dispensing device is installed at the end of the liquid dispensing pipe and is the execution terminal where the disinfectant water comes into direct contact with the user object. Depending on different application scenarios, the liquid dispensing device can be designed as a nozzle, spray gun, faucet, etc. The micro / nano bubble generator is disposed on the liquid dispensing pipe and located between the liquid dispensing pipe and the liquid dispensing device. On the one hand, the micro / nano bubbles can carry disinfectant water deep into the micropores and gaps on the surface of the object, solving the problem of blind spots that are difficult to reach by traditional disinfection methods; on the other hand, the energy released when the bubbles burst can enhance the oxidizing property of the oxidizing potential water, further improving the sterilization and disinfection effect.
[0012] The second aspect of this application discloses a water circuit system for an integrated water purification and disinfection machine, comprising: the aforementioned pure water electrochemical water circuit system; a domestic water component, which is disposed on the liquid inlet component and located at the third interface of the adapter, the domestic water component being able to communicate with or block the liquid inlet component, and the domestic water component being used to output domestic water; a pure water component, which is disposed on the liquid passing component and is able to communicate with the liquid passing component, and the pure water component being used to output pure water; and a wastewater component, which is disposed on the liquid passing component and located at the second outlet of the second filter element, the wastewater component being able to communicate with or block the second outlet of the second filter element.
[0013] The second aspect disclosed above discloses a water circuit system for an integrated water purification and disinfection machine. Based on a pure water electrochemical water circuit system, this system expands its functionality by adding a domestic water component, a pure water component, and a wastewater component, thus meeting the water needs of different scenarios. The domestic water component is located at the third interface of the inlet component's adapter, and can be connected or disconnected from the inlet component. It is a key module for providing daily water. When the domestic water component is connected, the raw water, initially filtered by the first filter element in the inlet component, can enter the domestic water component through the diversion effect of the adapter and be directly output for use in daily life scenarios such as handwashing and cleaning. The pure water component is connected to the liquid passing component and can maintain communication with it. It is mainly responsible for outputting deeply purified pure water. After the second filter element in the liquid passing component deeply treats the raw water, part of the pure water flows to the electrolysis component to prepare disinfectant water, while the other part is directly exported through the pure water component. This pure water has high purity and is free of impurities, meeting the needs of scenarios with strict water quality requirements, such as drinking and medical device cleaning. The wastewater assembly is installed at the second outlet of the second filter element in the liquid conveying assembly. It can be connected to or disconnected from this outlet and is specifically designed to treat wastewater generated during the deep purification process. When the second filter element performs deep filtration of the raw water, it traps a large amount of impurities, forming wastewater. Direct discharge of this wastewater could lead to waste or pollution. The wastewater assembly, by connecting to the second outlet, collects this wastewater and guides it to a designated discharge location. Its on / off control can be flexibly adjusted according to the amount of wastewater generated, preventing wastewater accumulation within the filter element and thus avoiding reduced purification efficiency.
[0014] In one embodiment, the domestic water component includes a domestic water pipe and a third solenoid valve. One end of the domestic water pipe is located on the third interface of the adapter, and the other end is located on the outlet device. The third solenoid valve is mounted on the domestic water pipe and is used to control the connection or disconnection between the domestic water pipe and the inlet component. By connecting one end of the domestic water pipe to the third interface of the adapter and the other end to the outlet device, a dedicated transmission channel for domestic water is formed from the inlet component to the user terminal. Its existence allows the raw water, which has undergone preliminary filtration by the first filter element, to flow directly to the outlet device independently of the pure water electrolysis process, avoiding cross-interference with other water circuits, such as pure water circuits and disinfectant water circuits, and ensuring the independence of domestic water. The third solenoid valve, installed on the domestic water pipe, is a switch that controls the on / off flow of domestic water. Its core function is to precisely regulate the connection or blockage of the domestic water pipe and the liquid inlet component through electrical signals: when domestic water is needed, the third solenoid valve receives the instruction and opens, allowing the pre-filtered water to be transported along the domestic water pipe to the liquid outlet device; when no water is needed, it closes to cut off the water flow and avoid water waste.
[0015] In one embodiment, the pure water assembly includes a first pure water pipe, a second pure water pipe, and a TDS probe. One end of the first pure water pipe is connected to and connected to the second liquid-passing pipe, and the other end of the first pure water pipe is located at the inlet end of the first filter element. One end of the second pure water pipe is located at the outlet end of the first filter element, and the other end of the second pure water pipe is located on the outlet device. The TDS probe is located on the second pure water pipe between the outlet device and the first filter element. By connecting one end of the first pure water pipe to the second liquid-passing pipe and the other end to the inlet end of the first filter element, a path for pure water to flow back to the primary filtration stage is formed. The core function of this design is to improve the taste of the water. One end of the second pure water pipe is connected to the outlet end of the first filter element, and the other end is connected to the outlet device, which is the key channel for the final output of pure water to the end user. The pure water transported through the second liquid-passing pipe flows partly to the electrolysis unit to prepare disinfected water, and the other part flows back to the first filter element through the first pure water pipe and then out through the second pure water pipe. This process utilizes the secondary filtration of the returned pure water by the first filter cartridge, and through connection with the liquid outlet device, it enables the pure water to be output in various forms, such as direct drinking faucets and dedicated interfaces. The TDS probe is installed on the second pure water pipeline, located between the liquid outlet end of the first filter cartridge and the liquid outlet device. It can detect the TDS value of the pure water flowing through the second pure water pipeline in real time and feed the data back to the system control center to ensure that the output pure water always meets the high purity requirements, providing users with safe and reliable pure water.
[0016] In one embodiment, the pure water assembly includes a first pure water pipe, a second pure water pipe, a TDS probe, and a fourth solenoid valve. One end of the first pure water pipe is disposed on and connected to the second liquid-passing pipe, and the other end of the first pure water pipe is disposed on the inlet end of the first filter element. One end of the second pure water pipe is disposed on the outlet end of the first filter element, and the other end of the second pure water pipe is disposed on the outlet device. The fourth solenoid valve and the TDS probe are sequentially disposed on the second pure water pipe and located between the outlet device and the first filter element. The fourth solenoid valve is used to control the connection or disconnection between the second pure water pipe and the outlet device. By connecting one end of the fifth solenoid valve of the first pure water pipe to the fifth solenoid valve of the second liquid-passing pipe, and connecting the other end to the inlet end of the fifth solenoid valve of the first filter element, a unique pure water reflux mechanism is formed. The deeply purified pure water in the fifth solenoid valve of the second liquid-passing pipe flows back to the fifth solenoid valve of the first filter element through this pipe, thereby improving the taste of the pure water and enhancing the user experience. The fifth solenoid valve in the second pure water pipeline serves as the main channel for pure water output. One end connects to the outlet end of the first filter element, receiving pure water with improved taste, while the other end directly connects to the dispensing device. It plays a crucial role in stably delivering treated pure water to the end user, ensuring the pure water remains uncontaminated during transmission. Simultaneously, the diverse structure of the dispensing device allows it to meet the water needs of different scenarios such as direct drinking, cooking, and precision cleaning, enabling convenient access to pure water. The fourth solenoid valve is the switch controlling the pure water output. Its core function is to precisely control the connection or disconnection between the second pure water pipeline and the dispensing device based on system commands or user requirements: when pure water is needed, the valve opens, allowing water to flow smoothly; when no water is needed, it quickly closes, completely cutting off the water path and preventing pure water from stagnating in the pipeline or accidentally flowing out and wasting. The TDS probe continuously monitors the total dissolved solids content of the pure water flowing through the pipeline, providing real-time water quality data.
[0017] In one embodiment, the wastewater assembly includes a wastewater pipe and a fifth solenoid valve. One end of the wastewater pipe is connected to the second outlet of the second filter element, and the other end is used to output wastewater. The fifth solenoid valve is located on the wastewater pipe and is used to control the connection or disconnection of the wastewater pipe. By connecting one end of the wastewater pipe to the second outlet of the second filter element and the other end to output wastewater, it serves as a dedicated channel for collecting and transporting wastewater generated during the purification process. When the second filter element performs deep purification of raw water, it traps a large amount of impurities and pollutants that cannot pass through the filter element, forming wastewater containing high concentrations of impurities. The presence of the wastewater pipe allows this wastewater to be discharged from the second filter element in a timely manner, preventing wastewater from accumulating inside the filter element and preventing the filter element's filtration efficiency and service life from being affected by impurities clogging it, ensuring that the second filter element can always efficiently perform deep purification of the water flow. The fifth solenoid valve is located on the wastewater pipe, and its core function is to control the connection or disconnection of the wastewater pipe. During normal system operation, the fifth solenoid valve can be opened in a timely manner according to the amount of wastewater generated by the second filter element, allowing the wastewater to be discharged through the pipeline. Attached Figure Description
[0018] Figure 1 This is the first water circuit diagram of the water circuit system of the integrated water purification and disinfection machine;
[0019] Figure 2 A 3D diagram of the water circuit system of the integrated water purification and disinfection machine;
[0020] Figure 3 This is the second water circuit diagram of the water circuit system of the integrated water purification and disinfection machine;
[0021] Figure 4 This is the third water circuit diagram of the water circuit system of the integrated water purification and disinfection machine;
[0022] Figure 5 This is the fourth water circuit diagram of the water circuit system of the integrated water purification and disinfection machine;
[0023] Figure 6 This is an exploded view of the electrolysis module;
[0024] Figure 7 This is the fifth water circuit diagram of the water circuit system of the integrated water purification and disinfection machine;
[0025] Figure 8 This is the sixth water circuit diagram of the water circuit system of the integrated water purification and disinfection machine;
[0026] Figure 9 This is the seventh water circuit diagram of the water circuit system of the integrated water purification and disinfection machine;
[0027] Figure 10 This is the eighth water circuit diagram of the water circuit system of the integrated water purification and disinfection machine;
[0028] Figure 11 This is the ninth water circuit diagram of the water circuit system of the integrated water purification and disinfection machine.
[0029] The correspondence between the reference numerals and the component names is as follows:
[0030] 1. Liquid inlet assembly, 11. Liquid inlet pipe, 12. Liquid inlet ball valve, 13. First filter element, 14. Adapter, 101. Liquid inlet port;
[0031] 2. Liquid passing assembly, 21. First liquid passing pipe, 22. First solenoid valve, 23. Booster pump, 24. Second filter element, 25. Second liquid passing pipe;
[0032] 3 Electrolysis assembly, 31 First electrolysis pipeline, 32 Throttling valve, 33 Second solenoid valve, 34 Flow meter, 35 Electrolysis module, 351 Electrolysis shell, 352 Proton membrane electrolysis component;
[0033] 4. Liquid dispensing assembly; 41. Liquid dispensing pipe; 42. Liquid dispensing device; 43. Micro / nano bubble generator.
[0034] 5. Domestic water components, 51. Domestic water pipes, 52. Third solenoid valve;
[0035] 6. Pure water assembly, 61. First pure water pipe, 62. Second pure water pipe, 63. TDS probe, 64. Fourth solenoid valve;
[0036] 7 Wastewater components, 71 Wastewater pipes, 72 Fifth solenoid valve. Detailed Implementation
[0037] To better understand the above-mentioned objectives, features, and advantages of this utility model, the present utility model will be further described in detail below with reference to the accompanying drawings and specific embodiments. It should be noted that, unless otherwise specified, the embodiments and features described in these embodiments can be combined with each other.
[0038] Many specific details are set forth in the following description in order to provide a full understanding of the present invention. However, the present invention may also be implemented in other ways different from those described herein. Therefore, the scope of protection of the present invention is not limited to the specific embodiments disclosed below.
[0039] The following describes some embodiments of the pure water electrochemical water circuit system and the integrated water purification and disinfection machine water circuit system of this utility model with reference to the accompanying drawings.
[0040] Example 1
[0041] like Figures 1 to 7As shown, this embodiment discloses a pure water electrochemical water circuit system, including: a liquid inlet assembly 1, which has a liquid inlet 101 for connecting to an external water source; a liquid passing assembly 2, which is disposed on the liquid inlet assembly 1 and can be connected to or blocked from the liquid inlet assembly 1, and can be used to receive the liquid from the liquid inlet assembly 1 and purify the liquid into pure water; an electrolysis assembly 3, which is disposed on the liquid passing assembly 2 and can be connected to or blocked from the liquid passing assembly 2, and is provided with a proton exchange membrane electrolysis element 352 for electrolyzing pure water into disinfectant water; and a liquid outlet assembly 4, which is disposed on the electrolysis assembly 3 and connected to the electrolysis assembly 3, and can be used to discharge disinfectant water.
[0042] This application discloses a pure water electrochemical water circuit system. Through the coordinated operation of the inlet component 1, the pass-through component 2, the electrolysis component 3, and the outlet component 4, a treatment process from water source input to disinfected water output is constructed. The inlet component 1 connects to an external water source such as tap water through the inlet port 101, serving as the raw material input end of the system. Its stable on / off control provides a continuous and controllable water flow basis for subsequent treatment, ensuring that the entire system can start and operate as needed. The pass-through component 2 is linked to the inlet component 1 and can flexibly switch between connected and blocked states. When in the connected state, it receives the raw water supplied by the inlet component 1, removes impurities and ions through an internal purification mechanism, and converts the raw water into high-purity pure water, providing high-quality raw materials for the electrolysis process and avoiding the impact of impurities on electrolysis efficiency and disinfected water quality. The blocked state prevents untreated raw water from entering subsequent stages when the system is shut down or under maintenance. The electrolysis component 3 receives the pure water output from the pass-through component, and its core proton exchange membrane electrolysis element plays a crucial role. Under electrolysis, pure water is precisely converted into alkaline or acidic electrolyzed water: acidic electrolyzed water, with its strong oxidizing properties, can quickly kill a variety of microorganisms, and its disinfection efficacy far exceeds that of traditional disinfectants; alkaline electrolyzed water can balance cleaning and mild disinfection functions, meeting the needs of different scenarios. The liquid outlet component 4 is connected to the electrolysis component 3, directly discharging the generated alkaline or acidic electrolyzed water for use. This convenient output method eliminates the storage and preparation steps of traditional disinfectants. The entire system has a coherent process and clear division of labor among its components. It achieves efficient preparation of disinfectant water, and because it does not require the addition of chemical agents and the products are biodegradable, it eliminates pollution at the source, making it of significant application value in the medical, food processing, and other fields.
[0043] like Figure 1 and Figure 3As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the liquid inlet assembly 1 includes a liquid inlet pipe 11, a liquid inlet ball valve 12, a first filter element 13, and an adapter 14. One end of the liquid inlet pipe 11 is provided with a liquid inlet 101, and the first interface of the adapter 14 is provided on the other end of the liquid inlet pipe 11. The liquid inlet ball valve 12 and the first filter element 13 are sequentially arranged on the liquid inlet pipe 11 and located between the liquid inlet 101 and the adapter 14. The liquid flow assembly 2 is arranged on the second interface of the adapter 14. By using the liquid inlet pipe 11 as the main channel for water flow transmission, with one end connected to an external water source through the liquid inlet 101 and the other end connected to the first interface of the adapter 14, a physical path is formed from the water source to the system interior. The pipeline design ensures smooth water flow. The liquid inlet ball valve 12 is installed on the liquid inlet pipe 11, located between the liquid inlet 101 and the first filter element 13. As the first switch of the system, it can achieve rapid on / off control of water flow through manual or automatic control. This function not only facilitates system start-up and shutdown but also allows for timely water supply cut-off during maintenance and repair, ensuring operational safety. The first filter element 13 is connected in series between the inlet ball valve 12 and the adapter 14. Its internal components, including activated carbon and ultrafiltration membranes, effectively remove large particulate impurities such as silt, rust, residual chlorine, and organic matter, as well as some soluble pollutants from the raw water. This pretreatment step reduces the purification burden on subsequent liquid-passing components, extends the service life of core purification components, and prevents wear and tear on pipes, valves, and other hardware caused by coarse impurities, thus protecting the system for long-term stable operation. The adapter 14 connects to the inlet pipe 11 via the first interface and to the liquid-passing component 2 via the second interface, serving as a water circuit hub and achieving a tight connection between the inlet component 1 and the liquid-passing component 2.
[0044] like Figure 1 and Figure 4As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the liquid-passing assembly 2 includes a first liquid-passing pipe 21, a first solenoid valve 22, a booster pump 23, a second filter element 24, and a second liquid-passing pipe 25. One end of the first liquid-passing pipe 21 is disposed on the liquid inlet assembly 1, and the liquid inlet of the second filter element 24 is disposed on the other end of the first liquid-passing pipe 21. The first solenoid valve 22 and the booster pump 23 are sequentially disposed on the first liquid-passing pipe 21 and located between the liquid inlet assembly 1 and the second filter element 24. One end of the second liquid-passing pipe 25 is disposed on the first liquid outlet of the second filter element 24, and the electrolysis assembly 3 is disposed on the other end of the second liquid-passing pipe 25. The first solenoid valve 22 can control the connection or disconnection between the first liquid-passing pipe 21 and the liquid inlet assembly 1. By connecting one end of the first liquid-passing pipe 21 to the liquid inlet assembly 1 and the other end to the liquid inlet of the second filter element 24, a transmission channel for water flow from the liquid inlet assembly to the deep purification component is formed. The first solenoid valve 22 is installed on the first liquid passage pipe 21, located between the liquid inlet assembly 1 and the booster pump 23. As an automatically controlled valve, it can precisely control the connection or blockage between the first liquid passage pipe 21 and the liquid inlet assembly 1 via electrical signals. The booster pump 23 is installed between the first solenoid valve 22 and the second filter element 24. Its core function is to increase the water flow pressure. Since the subsequent second filter element 24 may create some resistance to the water flow during the deep purification process, the booster pump can increase the water pressure to ensure that the water flows smoothly through the filter element, avoiding a decrease in filtration efficiency or water flow interruption due to insufficient pressure. At the same time, stable pressure also helps to improve the purification effect of the second filter element and ensure the consistency of the output water quality. The second filter element 24, as the core component of deep purification, receives the pressurized water flow and further removes residual micro-impurities, soluble salts, microorganisms, etc., from the water through its internal high-precision filtration materials such as reverse osmosis membranes, purifying the water flow into highly pure water. This step is a prerequisite for the smooth progress of the subsequent electrolysis process and can effectively prevent impurities from affecting the stability of the electrolysis reaction and the purity of the disinfectant water. The second liquid passage pipe 25 is connected at one end to the first liquid outlet of the second filter element 24 and at the other end to the electrolysis component 3, and is responsible for transporting the purified pure water to the electrolysis component 3.
[0045] like Figure 1 and Figure 4As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the liquid passing assembly 2 also includes a third liquid passing channel, one end of which is disposed at the first liquid outlet of the second filter element 24, and the other end of which is disposed on the first liquid passing pipe 21 and located between the first solenoid valve 22 and the booster pump 23. This structure enhances the filtration effect. When the water initially filtered by the second filter element 24 flows out through the first liquid outlet, a portion of the water can flow back through the third liquid passing channel to the front end of the first liquid passing pipe 21, mix with the raw water from the liquid inlet assembly 1, and then re-enter the booster pump 23 for pressurization and delivery to the second filter element 24 for secondary filtration. This design can intercept trace impurities (such as soluble salts, small particles, etc.) that may remain after the first filtration, further reducing the concentration of pollutants in the water through repeated filtration, ensuring that the water flowing to the electrolysis assembly or pure water assembly is purer.
[0046] like Figure 1 and Figure 5As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the electrolysis assembly 3 includes a first electrolysis pipe 31, a throttle valve 32, a second solenoid valve 33, a flow meter 34, and an electrolysis module 35. One end of the first electrolysis pipe 31 is disposed on the liquid-passing assembly 2. The electrolysis module 35 has an electrolysis inlet end and an electrolysis outlet end. The electrolysis inlet end is disposed on the other end of the first electrolysis pipe 31. The outlet assembly 4 is disposed on the electrolysis outlet end and communicates with the electrolysis outlet end. The throttle valve 32, the second solenoid valve 33, and the flow meter 34 are sequentially disposed on the first electrolysis pipe 31 and located between the liquid-passing assembly 2 and the electrolysis module 35. The second solenoid valve 33 can control the connection or disconnection between the first electrolysis pipe 31 and the liquid-passing assembly 2. By connecting one end of the first electrolysis pipe 31 to the liquid-passing assembly 2 and the other end to the electrolysis inlet end of the electrolysis module 35, a conveying path for pure water to enter the electrolysis process is established. Its unobstructed pipeline design ensures a stable flow of deeply purified pure water to the electrolysis module, providing a continuous supply of raw materials for the electrolysis reaction. A throttle valve 32 is installed on the first electrolysis pipeline 31, located between the liquid-passing assembly 2 and the second solenoid valve 33, primarily regulating the water flow rate and pressure. By adjusting the opening of the throttle valve, the flow rate of pure water entering the electrolysis module can be precisely controlled, avoiding insufficient electrolysis due to excessively fast flow or low electrolysis efficiency due to excessively slow flow, thus providing stable operating conditions for the electrolysis reaction and ensuring the quality of the disinfectant water produced. The second solenoid valve 33 is installed between the throttle valve 32 and the flow meter 34, and can control the connection or disconnection between the first electrolysis pipeline 31 and the liquid-passing assembly 2 via an electrical signal. Working in conjunction with the first solenoid valve 22, it can flexibly start and stop the delivery of pure water to the electrolysis module according to system operating requirements, and promptly cut off the water supply when the electrolysis module stops working. The flow meter 34 is located between the second solenoid valve 33 and the electrolysis module 35, and is used to monitor the amount of pure water flowing through the first electrolysis pipe 31 in real time. The electrolysis module 35, as the core of the electrolysis reaction, electrolyzes the incoming pure water through its internal proton exchange membrane electrolysis element 352. Under the action of an electric field, the pure water is decomposed into alkaline or acidic oxidizing potential water with strong disinfection properties. Its electrolysis outlet is connected to the outlet assembly 4, allowing the generated disinfected water to be smoothly discharged.
[0047] like Figure 5 and Figure 6As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the electrolysis module 35 includes an electrolysis shell 351 and a proton exchange membrane electrolyzer 352. The electrolysis shell 351 is provided with an electrolysis inlet end and an electrolysis outlet end, and the proton exchange membrane electrolyzer 352 is disposed on the electrolysis shell 351. By using the electrolysis shell 351 as the protective and supporting structure of the electrolysis module, it not only provides an installation base for the proton exchange membrane electrolyzer 352, firmly fixing it inside, but also forms a closed reaction space through its own structure. The electrolysis inlet end and the electrolysis outlet end provided on the shell are respectively connected to the first electrolysis pipe 31 and the outlet component 4, ensuring that pure water can enter the reaction space in an orderly manner, while allowing the generated disinfectant water to be smoothly discharged. The proton exchange membrane electrolyzer 352 is the core reaction component for the electrolysis module to achieve pure water conversion. It is disposed inside the electrolysis shell 351 and directly participates in the electrolysis reaction. Its core proton exchange membrane has special selective permeability. Under the action of an electric field, it can promote the electrolysis reaction of water molecules in pure water. The presence of the proton exchange membrane not only ensures the directional progress of the electrolysis reaction and improves the electrolysis efficiency, but also effectively separates products of different properties, ensuring that the discharged disinfectant water meets the expected pH and oxidation potential requirements.
[0048] like Figure 1 and Figure 7 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the liquid outlet assembly 4 includes a liquid outlet pipe 41, a liquid outlet device 42, and a micro-nano bubble generator 43. One end of the liquid outlet pipe 41 is disposed on the electrolysis assembly 3, the liquid outlet device 42 is disposed on the other end of the liquid outlet pipe 41, and the micro-nano bubble generator 43 is disposed on the liquid outlet pipe 41 and located between the liquid outlet pipe 41 and the liquid outlet device 42. By connecting one end of the liquid outlet pipe 41 to the electrolysis outlet end of the electrolysis assembly 3 and the other end to the liquid outlet device 42, a transmission channel for disinfectant water from the electrolysis module to the user terminal is formed. The liquid outlet device 42 is installed at the end of the liquid outlet pipe 41 and is the execution terminal where the disinfectant water directly contacts the user. Depending on different application scenarios, the liquid outlet device can be designed as a nozzle, spray gun, faucet, etc. The micro-nano bubble generator 43 is installed on the liquid outlet pipe 41, located between the liquid outlet pipe 41 and the liquid outlet device 42. On the one hand, the micro-nano bubbles can carry disinfectant water deep into the micropores and gaps on the surface of objects, solving the problem of blind spots that are difficult to reach by traditional disinfection methods. On the other hand, the energy released when the bubbles burst can enhance the oxidizing properties of the oxidizing potential water, further improving the sterilization and disinfection effect.
[0049] Example 2
[0050] like Figures 1 to 11As shown, this embodiment discloses a water circuit system for an integrated water purification and disinfection machine, including: the aforementioned pure water electrochemical water circuit system; a domestic water component 5, which is disposed on the liquid inlet component 1 and located at the third interface of the adapter 14, and can be connected to or blocked from the liquid inlet component 1, and is used to output domestic water; a pure water component 6, which is disposed on the liquid passing component 2 and can be connected to the liquid passing component 2, and is used to output pure water; and a wastewater component 7, which is disposed on the liquid passing component 2 and located at the second outlet of the second filter element 24, and can be connected to or blocked from the second outlet of the second filter element 24.
[0051] The second aspect of this application discloses a water circuit system for an integrated water purification and disinfection machine. Based on a pure water electrochemical water circuit system, this system expands its functionality by adding a domestic water component 5, a pure water component 6, and a wastewater component 7, thus meeting the water needs of different scenarios. The domestic water component 5 is located at the third interface of the adapter 14 of the liquid inlet component 1, and can be connected or disconnected from the liquid inlet component. It is a key module for providing daily water. When the domestic water component is connected, the raw water, initially filtered by the first filter element 13 in the liquid inlet component, can enter the domestic water component through the diversion effect of the adapter and be directly output for use in daily life scenarios such as handwashing and cleaning. The pure water component 6 is connected to the liquid passing component 2 and can maintain communication with it. It is mainly responsible for outputting deeply purified pure water. After the second filter element 24 in the liquid passing component deeply treats the raw water, part of the pure water flows to the electrolysis component to prepare disinfectant water, while the other part is directly exported through the pure water component. This pure water has high purity and is free of impurities, meeting the needs of scenarios with strict water quality requirements such as drinking and medical device cleaning. The wastewater assembly 7 is installed at the second outlet of the second filter element 24 in the liquid conveying assembly 2. It can be connected to or blocked from this outlet and is specifically used to treat wastewater generated during the deep purification process. When the second filter element performs deep filtration on the raw water, it traps a large amount of impurities, forming wastewater. Direct discharge of this wastewater may result in waste or pollution. By connecting to the second outlet, the wastewater assembly collects this wastewater and guides it to a designated discharge location. Its on / off control can be flexibly adjusted according to the amount of wastewater generated, preventing wastewater from accumulating inside the filter element and affecting purification efficiency.
[0052] like Figure 1 and Figure 8As shown, in addition to the features of the above embodiments, this embodiment further defines: the domestic water component 5 includes a domestic water pipe 51 and a third solenoid valve 52. One end of the domestic water pipe 51 is disposed on the third interface of the adapter 14, and the other end of the domestic water pipe 51 is disposed on the liquid outlet device 42. The third solenoid valve 52 is disposed on the domestic water pipe 51 and is used to control the connection or disconnection between the domestic water pipe 51 and the liquid inlet component 1. By connecting one end of the domestic water pipe 51 to the third interface of the adapter 14 and the other end to the liquid outlet device 42, a dedicated transmission channel for domestic water from the liquid inlet component to the user terminal is formed. Its existence allows the raw water initially filtered by the first filter element 13 to flow directly to the liquid outlet device independently of the pure water electrolysis process, avoiding cross-interference with other water circuits, such as pure water circuits and disinfectant water circuits, and ensuring the independence of domestic water. The third solenoid valve 52 is installed on the domestic water pipe 51 and is a switch to control the on / off of domestic water. Its core function is to precisely regulate the connection or blockage state between the domestic water pipe 51 and the liquid inlet component 1 through electrical signals: when domestic water is needed, the third solenoid valve 52 receives the instruction and opens, allowing the pre-filtered water to be transported along the domestic water pipe 51 to the liquid outlet device 42; when no water is needed, it closes to cut off the water flow and avoid waste of water resources.
[0053] like Figure 1 and Figure 9As shown, in addition to the features of the above embodiments, this embodiment further defines: the pure water component 6 includes a first pure water pipe 61, a second pure water pipe 62, and a TDS probe 63. One end of the first pure water pipe 61 is disposed on and connected to the second liquid-passing pipe 25, and the other end of the first pure water pipe 61 is disposed on the inlet end of the first filter element 13. One end of the second pure water pipe 62 is disposed on the outlet end of the first filter element 13, and the other end of the second pure water pipe 62 is disposed on the outlet device 42. The TDS probe 63 is disposed on the second pure water pipe 62 and located between the outlet device 42 and the first filter element 13. By connecting one end of the first pure water pipe 61 to the second liquid-passing pipe 25 and the other end to the inlet end of the first filter element 13, a path for pure water to flow back to the primary filtration stage is formed. The core function of this design is to improve the taste of the water. One end of the second pure water pipe 62 is connected to the outlet end of the first filter element 13, and the other end is connected to the outlet device 42, which is the key channel for the final output of pure water to the user terminal. The pure water transported through the second pure water pipe 25 flows partly to the electrolysis unit to prepare disinfected water, and partly returns to the first filter element 13 through the first pure water pipe 61, and then exits through the second pure water pipe 62. This process utilizes the secondary filtration of the returned pure water by the first filter element 13, and through the connection with the liquid outlet device 42, it enables the pure water to be output in various forms such as direct drinking faucets and dedicated interfaces. The TDS probe 63 is installed on the second pure water pipe 62, located between the liquid outlet end of the first filter element 13 and the liquid outlet device 42. It can detect the TDS value of the pure water flowing through the second pure water pipe 62 in real time and feed the data back to the system control center to ensure that the output pure water always meets the high purity requirements, providing users with safe and reliable pure water.
[0054] like Figure 1 and Figure 10As shown, in addition to the features of the above embodiments, this embodiment further defines: the pure water assembly 6 includes a first pure water pipe 61, a second pure water pipe 62, a TDS probe 63, and a fourth solenoid valve 64. One end of the first pure water pipe 61 is disposed on and connected to the second liquid-passing pipe 25, and the other end of the first pure water pipe 61 is disposed on the inlet end of the first filter element 13. One end of the second pure water pipe 62 is disposed on the outlet end of the first filter element 13, and the other end of the second pure water pipe 62 is disposed on the outlet device 42. The fourth solenoid valve 64 and the TDS probe 63 are sequentially disposed on the second pure water pipe 62 and located between the outlet device 42 and the first filter element 13. The fourth solenoid valve 64 is used to control the connection or disconnection between the second pure water pipe 62 and the outlet device 42. By connecting one end of the fifth solenoid valve 61 of the first pure water pipe to the fifth solenoid valve 25 of the second liquid-passing pipe, and connecting the other end to the inlet end of the fifth solenoid valve 13 of the first filter element, a unique pure water reflux mechanism is formed. The deeply purified water in the second liquid-passing pipeline (fifth solenoid valve 25) flows back to the first filter element (fifth solenoid valve 13) through this pipeline, improving the taste of the purified water and enhancing the user experience. The second pure water pipeline (fifth solenoid valve 62) serves as the main channel for pure water output. One end connects to the outlet end of the first filter element (fifth solenoid valve 13) to receive the taste-enhanced pure water, while the other end directly connects to the dispensing device (fifth solenoid valve 42). It bears the crucial responsibility of stably delivering the treated pure water to the end user, ensuring that the pure water remains uncontaminated during transmission. Simultaneously, the versatile structure of the dispensing device (fifth solenoid valve 42) meets the water needs of different scenarios such as direct drinking, cooking, and precision cleaning, enabling convenient access to pure water. The fourth and fifth solenoid valves (64 and 62) are switches that control the output of pure water. Their core function is to precisely control the connection or disconnection between the second pure water pipeline (62 and 42) and the liquid outlet device (42) according to system commands or user needs. When pure water is needed, the valve opens, allowing water to flow smoothly; when no water is needed, it quickly closes, completely cutting off the water supply and preventing pure water from stagnating in the pipeline or accidentally leaking out and causing waste. The TDS probe continuously detects the total dissolved solids content of the pure water flowing through the pipeline, providing real-time water quality data.
[0055] like Figure 1 and Figure 11As shown, in addition to the features of the above embodiments, this embodiment further defines: the wastewater assembly 7 includes a wastewater pipe 71 and a fifth solenoid valve 72. One end of the wastewater pipe 71 is disposed on the second outlet of the second filter element 24, and the other end of the wastewater pipe 71 is used to output wastewater. The fifth solenoid valve 72 is disposed on the wastewater pipe 71 and is used to control the connection or disconnection of the wastewater pipe 71. By connecting one end of the wastewater pipe 71 to the second outlet of the second filter element 24 and using the other end to output wastewater, it is a channel specifically for collecting and transporting wastewater generated during the purification process. When the second filter element 24 performs deep purification of raw water, it will trap a large amount of impurities and pollutants that cannot pass through the filter element, forming wastewater containing high concentrations of impurities. The existence of the wastewater pipe 71 can timely discharge this wastewater from the second filter element 24, avoiding the accumulation of wastewater inside the filter element, preventing the filter element's filtration efficiency and service life from being affected by impurities clogging it, and ensuring that the second filter element 24 can always efficiently perform deep purification of the water flow. The fifth solenoid valve 72 is installed on the wastewater pipe 71, and its core function is to control the connection or blockage of the wastewater pipe 71. During normal system operation, the fifth solenoid valve 72 can open in a timely manner according to the amount of wastewater generated by the second filter element 24 to allow the wastewater to be discharged through the pipe.
[0056] The technical features of the above embodiments can be combined in any way. For the sake of brevity, not all possible combinations of the technical features in the above embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.
[0057] The embodiments described above are merely illustrative of several implementations of this utility model, and while the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the utility model patent. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of this utility model, and these all fall within the protection scope of this utility model. Therefore, the protection scope of this utility model patent should be determined by the appended claims.
Claims
1. An electrochemical water route system for producing pure water, characterized by comprising: The pure water electrochemical water circuit system includes: Liquid inlet assembly (1), wherein the liquid inlet assembly (1) is provided with a liquid inlet (101), the liquid inlet (101) being used to connect to an external water source; Liquid passing component (2), the liquid passing component (2) is disposed on the liquid inlet component (1) and can communicate with or block the liquid inlet component (1), the liquid passing component (2) can be used to receive the liquid from the liquid inlet component (1) and purify the liquid into pure water; An electrolysis component (3) is disposed on the liquid passing component (2) and can communicate with or block the liquid passing component (2). The electrolysis component (3) is provided with a proton membrane electrolysis element (352), which is used to electrolyze pure water into disinfectant water. The liquid outlet component (4) is disposed on the electrolysis component (3) and communicates with the electrolysis component (3). The liquid outlet component (4) can be used to discharge disinfectant water.
2. The pure water electrochemical water route system of claim 1, wherein, The liquid inlet assembly (1) includes a liquid inlet pipe (11), a liquid inlet ball valve (12), a first filter element (13), and an adapter (14). One end of the liquid inlet pipe (11) is provided with the liquid inlet (101). The first interface of the adapter (14) is provided on the other end of the liquid inlet pipe (11). The liquid inlet ball valve (12) and the first filter element (13) are sequentially arranged on the liquid inlet pipe (11) and located between the liquid inlet (101) and the adapter (14). The liquid passing assembly (2) is provided on the second interface of the adapter (14).
3. The pure water electrochemical water route system of claim 1, wherein, The liquid-passing assembly (2) includes a first liquid-passing pipe (21), a first solenoid valve (22), a booster pump (23), a second filter element (24), and a second liquid-passing pipe (25). One end of the first liquid-passing pipe (21) is disposed on the liquid-inlet assembly (1), and the liquid inlet of the second filter element (24) is disposed on the other end of the first liquid-passing pipe (21). The first solenoid valve (22) and the booster pump (23) are disposed sequentially on the first liquid-passing pipe (21) and located between the liquid-inlet assembly (1) and the second filter element (24). One end of the second liquid-passing pipe (25) is disposed on the first liquid outlet of the second filter element (24), and the electrolysis assembly (3) is disposed on the other end of the second liquid-passing pipe (25). The first solenoid valve (22) can control the first liquid-passing pipe (21) to connect or block the liquid-inlet assembly (1).
4. The pure water electrochemical water route system of claim 1, wherein, The electrolysis assembly (3) includes a first electrolysis pipe (31), a throttle valve (32), a second solenoid valve (33), a flow meter (34), and an electrolysis module (35). One end of the first electrolysis pipe (31) is disposed on the liquid passing assembly (2). The electrolysis module (35) is provided with an electrolysis inlet end and an electrolysis outlet end. The electrolysis inlet end is disposed on the other end of the first electrolysis pipe (31). The liquid outlet assembly (4) is disposed on the electrolysis outlet end and communicates with the electrolysis outlet end. The throttle valve (32), the second solenoid valve (33), and the flow meter (34) are sequentially disposed on the first electrolysis pipe (31) and located between the liquid passing assembly (2) and the electrolysis module (35). The second solenoid valve (33) can control the first electrolysis pipe (31) to communicate with or block the liquid passing assembly (2).
5. The pure water electrochemical water route system of claim 4, wherein, The electrolysis module (35) includes an electrolysis shell (351) and a proton membrane electrolysis element (352). The electrolysis shell (351) is provided with an electrolysis inlet end and an electrolysis outlet end, and the proton membrane electrolysis element (352) is disposed on the electrolysis shell (351).
6. The pure water electrochemical water route system of claim 1, wherein, The liquid outlet assembly (4) includes a liquid outlet pipe (41), a liquid outlet device (42), and a micro-nano bubble generator (43). One end of the liquid outlet pipe (41) is disposed on the electrolysis assembly (3), the liquid outlet device (42) is disposed on the other end of the liquid outlet pipe (41), and the micro-nano bubble generator (43) is disposed on the liquid outlet pipe (41) and located between the liquid outlet pipe (41) and the liquid outlet device (42).
7. A waterway system of a water purifying and dispensing integrated machine, characterized in that, The water system of the integrated purifier and disinfection machine includes: The pure water electrochemical water circuit system according to any one of claims 1 to 6; A domestic water component (5) is disposed on the liquid inlet component (1) and located at the third interface of the adapter (14). The domestic water component (5) can communicate with or block the liquid inlet component (1). The domestic water component (5) is used to output domestic water. A pure water component (6) is disposed on the liquid passing component (2) and can communicate with the liquid passing component (2). The pure water component (6) is used to output pure water. Wastewater component (7) is disposed on the liquid passing component (2) and located at the second outlet of the second filter element (24). The wastewater component (7) can communicate with or block the second outlet of the second filter element (24).
8. The waterway system of claim 7, wherein, The domestic water component (5) includes a domestic water pipe (51) and a third solenoid valve (52). One end of the domestic water pipe (51) is located on the third interface of the adapter (14), and the other end of the domestic water pipe (51) is located on the liquid outlet device (42). The third solenoid valve (52) is located on the domestic water pipe (51) and is used to control the connection or blockage between the domestic water pipe (51) and the liquid inlet component (1).
9. The water system of the integrated water purification and disinfection machine according to claim 7, characterized in that, The pure water assembly (6) includes a first pure water pipe (61), a second pure water pipe (62), and a TDS probe (63). One end of the first pure water pipe (61) is disposed on and connected to the second liquid passage pipe (25). The other end of the first pure water pipe (61) is disposed on the inlet end of the first filter element (13). One end of the second pure water pipe (62) is disposed on the outlet end of the first filter element (13). The other end of the second pure water pipe (62) is disposed on the outlet device (42). The TDS probe (63) is disposed on the second pure water pipe (62) and located between the outlet device (42) and the first filter element (13). Alternatively, the pure water assembly (6) may include a first pure water pipe (61), a second pure water pipe (62), a TDS probe (63), and a fourth solenoid valve (64). One end of the first pure water pipe (61) is disposed on and connected to the second liquid passage pipe (25). The other end of the first pure water pipe (61) is disposed on the inlet end of the first filter element (13). One end of the second pure water pipe (62) is disposed on the outlet end of the first filter element (13). The other end of the second pure water pipe (62) is disposed on the outlet device (42). The fourth solenoid valve (64) and the TDS probe (63) are disposed sequentially on the second pure water pipe (62) and located between the outlet device (42) and the first filter element (13). The fourth solenoid valve (64) is used to control the connection or disconnection between the second pure water pipe (62) and the outlet device (42).
10. The waterway system of claim 7, wherein, The wastewater assembly (7) includes a wastewater pipe (71) and a fifth solenoid valve (72). One end of the wastewater pipe (71) is located at the second outlet of the second filter element (24), and the other end of the wastewater pipe (71) is used to output wastewater. The fifth solenoid valve (72) is located on the wastewater pipe (71) and is used to control the connection or blockage of the wastewater pipe (71).