Container type acidic electrolyzed oxidizing water generator control system and control method

Abstract

The invention discloses a container type acidic electrolyzed oxidizing water generator control system and a control method. The system comprises a central control unit, a liquid level monitoring unit, a pressure monitoring unit, a flow monitoring unit, a water production index monitoring unit, a raw water supply unit, a pure water supply unit, a saline water supply unit, an electrolyte monitoring unit, an acid water supply unit and an alkaline water supply unit, the liquid level monitoring unit, the pressure monitoring unit, the flow monitoring unit, the water production index monitoring unit, the raw water supply unit, the pure water supply unit, the saline water supply unit, the electrolyte monitoring unit, the acid water supply unit and the alkaline water supply unit are all electrically connected with the central control unit. The system has the advantages that the running state of the equipment can be monitored in real time and uploaded to the cloud for background query alarm and instant maintenance; water production indexes can be monitored in real time, and the using effect of acid water and alkaline water is guaranteed; water consumption (raw water) and water consumption (acid water and alkaline water) can be monitored in real time and uploaded to the cloud for background query and long-term recording.

Description

Technical Field

[0001] The present invention relates to the technical field of electric potential water generators, and in particular to a control system and a control method for a container-type acidic oxidation electric potential water generator. Background Art

[0002] Acidic oxidation potential water is a new type of environmentally friendly disinfectant, referred to as "acidified water", which originated in Japan in 1987. It has strong oxidation ability and rapid microbial killing effect, and is harmless to the human body and the environment. In 2000, Japan promulgated the "Specifications for Strong Acid Electrolyzed Water in Medical Devices", and the US FDA and EPA also recognized the disinfection function of acidic oxidation potential water. In 1995, my country began to introduce acidic oxidation potential water. In 2002, the Ministry of Health included the application of acidic oxidation potential water in the "Disinfection Technical Specifications", which laid the foundation for the successful application of acidic oxidation potential water in the medical industry and its promotion to other industries. Today, acidic oxidation potential water is flourishing in my country and is widely used in various industries, such as medical care, public health, food processing, and agriculture and animal husbandry.

[0003] Acidic oxidation potential water is mainly prepared by acidic oxidation potential water generator equipment. However, the installation location of the equipment is often not in the same place as the actual use site, which brings certain inconveniences to the daily supervision of the equipment. The traditional practice of routine supervision of acidic oxidation potential water generator equipment is to rely on regular inspections by personnel, but this supervision method generally has the following disadvantages: large workload, low efficiency, and equipment failures cannot be discovered and handled in time on site, which brings inconvenience to daily normal use.

[0004] In addition, traditional acidic oxidizing potential water generator equipment cannot monitor the input and output of water (i.e. raw water) and water (i.e. acid-base water) in real time. For users, it is impossible to intuitively judge the efficiency of the equipment and monitor the water production (i.e. pure water and acid-base water) indicators in real time. The equipment's water production indicators may not meet the standards and there may be no disinfection effect, causing the disinfected items to still carry viruses. Summary of the invention

[0005] The object of the present invention is to provide a container-type acidic oxidizing potential water generator control system and control method, which are used to solve the technical problems existing in the background technology.

[0006] To achieve the above purpose, the technical solution adopted by the present invention is as follows:

[0007] A containerized acidic oxidizing potential water generator control system, comprising a central control unit, a liquid level monitoring unit, a pressure monitoring unit, a flow monitoring unit, a water production index monitoring unit, a raw water supply unit, a pure water supply unit and a brine supply unit;

[0008] The central control unit includes a human-machine interface and a central processing unit; the human-machine interface is electrically connected to the central processing unit, and a control program specifically for controlling and managing the container-type acidic oxidizing potential water generator is embedded in the central processing unit;

[0009] Wherein, the liquid level monitoring unit comprises a raw water tank level gauge, a pure water tank level gauge, a brine tank level gauge, an acid water tank level gauge and an alkaline water tank level gauge; the raw water tank level gauge is arranged on the raw water tank, and is used to monitor the liquid level of raw water in the raw water tank; the pure water tank level gauge is arranged on the pure water tank, and is used to monitor the liquid level of pure water in the pure water tank; the brine tank level gauge is arranged on the brine tank, and is used to monitor the liquid level of brine in the brine tank; the acid water tank level gauge is arranged on the acid water tank, and is used to monitor the liquid level of acid water in the acid water tank; the alkaline water tank level gauge is arranged on the alkaline water tank, and is used to monitor the liquid level of alkaline water in the alkaline water tank;

[0010] Among them, the pressure monitoring unit includes an inlet pressure monitoring gauge, a front-end water purification module membrane front pressure monitoring gauge and a front-end water purification module membrane rear pressure monitoring gauge; the raw water inlet pressure monitoring gauge is arranged on the water inlet side of the raw water tank, and is used to monitor the water inlet pressure on the water inlet side of the raw water tank; the front-end water purification module membrane front pressure monitoring gauge is arranged on the water inlet side of the RO membrane group of the front-end water purification module, and is used to monitor the water inlet pressure on the water inlet side of the RO membrane group; the front-end water purification module membrane rear pressure monitoring gauge is arranged on the water outlet side of the RO membrane group of the front-end water purification module, and is used to monitor the water outlet pressure on the water outlet side of the RO membrane group;

[0011] Wherein, the flow monitoring unit comprises an inlet flow monitoring meter, a front-end water purification module water flow monitoring meter, an electrolytic cell acid water flow monitoring meter, an electrolytic cell alkali water flow monitoring meter, an acid water tank outlet flow monitoring meter and an alkali water tank outlet flow monitoring meter; the inlet flow monitoring meter is arranged at the water inlet side of the raw water tank, and is used to monitor the inlet flow of the raw water tank inlet side; the front-end water purification module water flow monitoring meter is arranged at the water outlet side of the front-end water purification module, and is used to monitor the flow of the purified water made by the front-end water purification module; the electrolytic cell acid water flow monitoring meter is arranged at the acid water outlet side of the electrolytic cell, and is used to monitor the flow of the electrolytic cell acid water; the electrolytic cell alkali water flow monitoring meter is arranged at the alkali water outlet side of the electrolytic cell, and is used to monitor the flow of the electrolytic cell alkali water; the acid water tank outlet flow monitoring meter is arranged at the acid water tank outlet side, and is used to monitor the flow of the acid water out of the acid water tank; the alkali water tank outlet flow monitoring meter is arranged at the alkali water tank outlet side, and is used to monitor the flow of the alkali water out of the alkali water tank;

[0012] Among them, the water production index monitoring unit includes a pure water index monitor, an acid water index monitor and an alkaline water index monitor; the pure water index monitor is arranged at the outlet side of the front-end water purification module, and is used to monitor the outlet water quality of the front-end water purification module; the acid water index monitor is arranged at the acid water outlet side of the electrolytic cell, and is used to monitor the pH value and ORP value of the acid water; the alkaline water index monitor is arranged at the alkaline water outlet side of the electrolytic cell, and is used to monitor the pH value and ORP value of the alkaline water.

[0013] The raw water supply unit is arranged between the raw water tank and the front-end water purification module, and is used to supply raw water to the front-end water purification module;

[0014] Wherein, the pure water supply unit is arranged between the pure water tank and the electrolytic cell, and is used to supply pure water to the electrolytic cell;

[0015] Wherein, the brine supply unit is arranged between the brine tank and the electrolytic cell, and is used to supply electrolyte to the electrolytic cell;

[0016] Among them, the raw water tank level gauge, the pure water tank level gauge, the brine tank level gauge, the acid water tank level gauge, the alkaline water tank level gauge, the water inlet pressure monitoring gauge, the front-end water purification module membrane front pressure monitoring gauge, the front-end water purification module membrane back pressure monitoring gauge, the water inlet flow monitoring gauge, the front-end water purification module water flow monitoring gauge, the electrolytic cell acid water flow monitoring gauge, the electrolytic cell alkali water flow monitoring gauge, the acid water tank outlet water flow monitoring gauge, the alkaline water tank outlet water flow monitoring gauge, the pure water index monitor, the acid water index monitor, the alkaline water index monitor, the raw water supply unit, the pure water supply unit, the brine supply unit and the electrolytic cell are all electrically connected to the central processing unit.

[0017] Furthermore, the raw water supply unit includes a raw water tank solenoid valve and a raw water pump, which are sequentially connected between the water outlet of the raw water tank and the water inlet of the front-end water purification module, and are both electrically connected to the central processing unit.

[0018] Furthermore, the pure water supply unit includes a pure water tank solenoid valve and a pure water pump, which are connected in sequence between the water outlet of the pure water tank and the water inlet of the electrolytic cell, and are both electrically connected to the central processing unit.

[0019] Furthermore, the brine supply unit includes a brine tank solenoid valve and a brine pump, which are sequentially connected between the water outlet of the brine tank and the water inlet of the electrolytic cell, and are both electrically connected to the central processing unit.

[0020] Furthermore, it also includes an acid water supply unit and an alkaline water supply unit, the acid water supply unit includes an acid water tank solenoid valve and an acid water pump, the alkaline water supply unit includes an alkaline water tank solenoid valve and an alkaline water pump, the acid water tank solenoid valve and the acid water pump are connected to the water outlet of the acid water tank in sequence, the alkaline water tank solenoid valve and the alkaline water pump are connected to the water outlet of the alkaline water tank in sequence, and the acid water tank solenoid valve, the alkaline water tank solenoid valve, the acid water pump and the alkaline water pump are all electrically connected to the central processing unit.

[0021] Furthermore, it also includes an electrolyte monitoring unit, which is an electronic scale with a preset maximum and minimum value of the salt storage amount in the salt barrel. The electronic scale is arranged at the bottom of the salt barrel and is electrically connected to the central processing unit. It is used to determine whether there is a lack of salt in the salt barrel by weighing the weight of the salt barrel.

[0022] Furthermore, it also includes a booster pump, a brine valve, an acid water valve, an alkaline water valve, an acid pump and an alkaline pump, the booster pump is arranged on the water inlet side of the RO membrane group, the brine valve is arranged between the pure water tank and the salt tank, the acid water valve and the acid pump are connected in sequence between the acid water tank and the acid water outlet of the electrolytic cell, the alkaline water valve and the alkaline pump are connected in sequence between the alkaline water tank and the alkaline water outlet of the electrolytic cell, and the booster pump, brine valve, acid water valve, alkaline water valve, acid pump and alkaline pump are all electrically connected to the central processing unit.

[0023] Furthermore, it also includes a raw water tank water replenishment valve, which is connected to the raw water tank and is used to replenish raw water into the raw water tank.

[0024] Furthermore, it also includes a cloud server and a remote mobile terminal, the cloud server is communicatively connected to the central control unit, and the remote mobile terminal is communicatively connected to the cloud server.

[0025] A control method for a container-type acidic oxidizing potential water generator control system comprises the following steps:

[0026] S1. First, set the corresponding parameters for preparing oxidation potential water on the human-machine interface of the central control unit, and then start the container-type acidic oxidation potential water generator to make water through the human-machine interface. The container-type acidic oxidation potential water generator includes a container and a raw water tank, a pure water tank, a brine tank, an acid water tank, an alkaline water tank, a front-end water purification module, an electrolytic cell and a salt barrel arranged in the container. The raw water tank is connected to the front-end water purification module, the front-end water purification module is connected to the pure water tank, the pure water tank is connected to the electrolytic cell and the salt barrel respectively, the salt barrel is connected to the brine tank, the brine tank is connected to the electrolytic cell, the electrolytic cell is connected to the acid water tank and the alkaline water tank, the front-end water purification module includes a precision filter, a quartz sand tank, an activated carbon tank, a resin tank and an RO membrane group, the precision filter is connected to the quartz sand tank, the quartz sand tank is connected to the activated carbon tank, the activated carbon tank is connected to the resin tank, and the resin tank is connected to the RO membrane group;

[0027] S2. The liquid level, pressure, flow rate and water production index of the container-type acidic oxidation potential water generator during the water production process are respectively monitored by the liquid level monitoring unit, the pressure monitoring unit, the flow rate monitoring unit and the water production index monitoring unit, and the monitored liquid level, pressure, flow rate and water production index data are transmitted to the central control unit in real time. The central control unit controls the container-type acidic oxidation potential water generator to perform corresponding actions according to the received liquid level data. The central control unit monitors the operating status of the system equipment according to the received pressure and flow data, and determines whether the system equipment has any abnormalities. The central control unit determines whether the water quality of the pure water and acid-base water produced by the container-type acidic oxidation potential water generator meets the standards according to the received water production index data.

[0028] Compared with the prior art, the advantages of the present invention are as follows:

[0029] (1) The equipment operation status can be monitored in real time and uploaded to the cloud for back-end query and alarm, and immediate maintenance.

[0030] (2) The water production index can be monitored in real time, and there is no need to take samples for testing every time, so as to ensure the use effect of acidic oxidation potential water (acid water) and alkaline reduction potential water (alkaline water).

[0031] (3) The water consumption (raw water) and water consumption (acid water and alkaline water) can be monitored in real time and uploaded to the cloud for background query and long-term recording, so that users can improve the application of acid and alkaline water based on the recorded data, thereby using acid and alkaline water more efficiently and reasonably. BRIEF DESCRIPTION OF THE DRAWINGS

[0032] In order to more clearly illustrate the technical solution in this embodiment, the following is a brief introduction to the drawings required for use in the description of the embodiment. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without creative work.

[0033] Figure 1 This is a system principle block diagram of a containerized acidic oxidation potential water generator control system provided by an embodiment of the present invention;

[0034] Figure 2 This is an application example of a containerized acidic oxidation potential water generator control system provided by an embodiment of the present invention;

[0035] Description of reference numerals: 1. Central control unit; 101. Human-computer interaction interface; 102. Central processing unit; 2. Liquid level monitoring unit; 201. Liquid level gauge of raw water tank; 202. Liquid level gauge of pure water tank; 203. Liquid level gauge of salt water tank; 204. Liquid level gauge of acid water tank; 205. Liquid level gauge of alkaline water tank; 3. Pressure monitoring unit; 301. Water inlet pressure monitoring gauge; 302. Pressure monitoring gauge before membrane of front-end water purification module; 303. Pressure monitoring gauge after membrane of front-end water purification module; 4. Flow monitoring unit; 401. Inlet flow monitoring meter; 402. Front-end water purification module water flow monitoring meter; 403. Acid water flow monitoring meter for electrolytic cell; 404. Alkaline water flow monitoring meter for electrolytic cell; 405. Acid water tank outlet flow monitoring meter; 406. Alkaline water tank outlet flow monitoring meter; 5. Water production index monitoring unit; 501. Pure water index monitoring instrument; 502. Acid water index monitoring instrument; 503. Alkaline water index monitoring instrument; 6. Raw water supply unit; 60 1. Solenoid valve of raw water tank; 602, raw water pump; 7. Pure water supply unit; 701, solenoid valve of pure water tank; 702, pure water pump; 8. Brine supply unit; 801, solenoid valve of brine tank; 802, brine pump; 9. Electrolyte monitoring unit; 10, acid water supply unit; 1001, solenoid valve of acid water tank; 1002, acid water pump; 11, alkaline water supply unit; 1101, solenoid valve of alkaline water tank; 1102, alkaline water pump; 12, booster pump; 13, brine valve ; 14. Acid water valve; 15. Acid pump; 16. Alkaline water valve; 17. Alkaline pump; 18. Raw water tank replenishment valve; 19. Communication module; 20. Remote mobile terminal; 21. Raw water tank; 22. Pure water tank; 23. Brine tank; 24. Acid water tank; 25. Alkaline water tank; 26. Front-end water purification module; 601. Precision filter; 602. Quartz sand tank; 603. Activated carbon tank; 604. Resin tank; 2605. RO membrane group; 27. Electrolyzer; 28. Salt barrel. DETAILED DESCRIPTION

[0036] In order to make the technical means, creative features, objectives and effects achieved by the present invention easy to understand, the following further describes how the present invention is implemented in conjunction with the accompanying drawings and specific implementation methods.

[0037] Example 1: See Figure 1 and Figure 2 , Embodiment 1 of the present invention provides a containerized acidic oxidizing potential water generator control system, comprising a central control unit 1, a liquid level monitoring unit 2, a pressure monitoring unit 3, a flow monitoring unit 4, a water production index monitoring unit 5, a raw water supply unit 6, a pure water supply unit 7 and a salt water supply unit 8;

[0038] The central control unit 1 includes a human-machine interface 101 and a central processor 102; the human-machine interface 101 is electrically connected to the central processor 102, and the central processor 102 is embedded with a control program specifically for controlling and managing the container-type acidic oxidation potential water generator;

[0039] Wherein, the liquid level monitoring unit 2 comprises a raw water tank level gauge 201, a pure water tank level gauge 202, a salt water tank level gauge 203, an acid water tank level gauge 204 and an alkaline water tank level gauge 205; the raw water tank level gauge 201 is arranged on the raw water tank 21, and is used to monitor the liquid level of raw water in the raw water tank 21; the pure water tank level gauge 202 is arranged on the pure water tank 22, and is used to monitor the liquid level of pure water in the pure water tank 22; the water tank level gauge 203 is arranged on the salt water tank 23, and is used to monitor the liquid level of salt water in the salt water tank 23; the acid water tank level gauge 204 is arranged on the acid water tank 24, and is used to monitor the liquid level of acid water in the acid water tank 24; the alkaline water tank level gauge 205 is arranged on the alkaline water tank 25, and is used to monitor the liquid level of alkaline water in the alkaline water tank 25;

[0040] Among them, the pressure monitoring unit 3 includes an inlet pressure monitoring gauge 301, a front-end water purification module membrane front pressure monitoring gauge 302 and a front-end water purification module membrane rear pressure monitoring gauge 303; the raw water inlet pressure monitoring gauge 301 is arranged on the water inlet side of the raw water tank 21, and is used to monitor the water inlet pressure on the water inlet side of the raw water tank 21; the front-end water purification module membrane front pressure monitoring gauge 302 is arranged on the water inlet side of the RO membrane group 2605 of the front-end water purification module 26, and is used to monitor the water inlet pressure on the water inlet side of the RO membrane group 2605; the front-end water purification module membrane rear pressure monitoring gauge 303 is arranged on the water outlet side of the RO membrane group 2605 of the front-end water purification module 26, and is used to monitor the water outlet pressure on the water outlet side of the RO membrane group 2605;

[0041] The flow monitoring unit 4 includes a water inlet flow monitoring meter 401, a front-end water purification module water flow monitoring meter 402, an electrolytic cell acid water flow monitoring meter 403, an electrolytic cell alkali water flow monitoring meter 404, an acid water tank outlet water flow monitoring meter 405, and an alkali water tank outlet water flow monitoring meter 406; the water inlet flow monitoring meter 401 is arranged on the water inlet side of the raw water tank 21, and is used to monitor the water inlet flow on the water inlet side of the raw water tank 21; the front-end water purification module water flow monitoring meter 402 is arranged on the water outlet side of the front-end water purification module 26, and is used to monitor the front-end water purification module 2 6 the flow rate of purified water; the electrolytic cell acid water flow rate monitoring meter 403 is arranged at the acid water outlet side of the electrolytic cell 27, and is used to monitor the flow rate of the acid water of the electrolytic cell 27; the electrolytic cell alkali water flow rate monitoring meter 404 is arranged at the alkali water outlet side of the electrolytic cell 27, and is used to monitor the flow rate of the alkali water of the electrolytic cell 27; the acid water tank outlet water flow rate monitoring meter 405 is arranged at the outlet side of the acid water tank 24, and is used to monitor the flow rate of the acid water out of the acid water tank 24; the alkali water tank outlet water flow rate monitoring meter 406 is arranged at the outlet side of the alkali water tank 25, and is used to monitor the flow rate of the alkali water out of the alkali water tank 25;

[0042] Among them, the water production index monitoring unit 5 includes a pure water index monitor 501, an acid water index monitor 502 and an alkaline water index monitor 503; the pure water index monitor 501 is arranged at the outlet side of the front-end water purification module 26, and is used to monitor the outlet water quality of the front-end water purification module 26; the acid water index monitor 502 is arranged at the acid water outlet side of the electrolytic cell 27, and is used to monitor the pH value and ORP value of the acid water; the alkaline water index monitor 502 is arranged at the alkaline water outlet side of the electrolytic cell 27, and is used to monitor the pH value and ORP value of the alkaline water.

[0043] The raw water supply unit 6 is disposed between the raw water tank 21 and the front-end water purification module 26, and is used to supply raw water to the front-end water purification module 26;

[0044] The pure water supply unit 7 is disposed between the pure water tank 22 and the electrolytic cell 27 and is used to supply pure water to the electrolytic cell 27;

[0045] The salt water supply unit 8 is disposed between the salt water tank 23 and the electrolytic cell 27 and is used to supply electrolyte to the electrolytic cell 27;

[0046] Among them, the raw water tank level gauge 201, the pure water tank level gauge 202, the brine tank level gauge 203, the acid water tank level gauge 204, the alkaline water tank level gauge 205, the water inlet pressure monitor 301, the front-end water purification module membrane front pressure monitor 302, the front-end water purification module membrane rear pressure monitor 303, the water inlet flow monitor 401, the front-end water purification module water flow monitor 402, the electrolytic cell acid water flow monitor 403, the electrolytic cell alkali water flow monitor 404, the acid water tank outlet water flow monitor 405, the alkaline water tank outlet water flow monitor 406, the pure water index monitor 501, the acid water index monitor 502, the alkaline water index monitor 503, the raw water supply unit 6, the pure water supply unit 7, the brine supply unit 8 and the electrolytic cell 27 are all electrically connected to the central processor 102.

[0047] Specifically, the raw water supply unit 6 includes a raw water tank solenoid valve 601 and a raw water pump 602 , which are connected in sequence between the water outlet of the raw water tank 21 and the water inlet of the front-end water purification module 26 , and are both electrically connected to the central processor 102 .

[0048] Specifically, the pure water supply unit 7 includes a pure water tank solenoid valve 701 and a pure water pump 702 , which are connected in sequence between the water outlet of the pure water tank 22 and the water inlet of the electrolytic cell 27 , and are both electrically connected to the central processor 102 .

[0049] Specifically, the brine supply unit 8 includes a brine tank solenoid valve 801 and a brine pump 802 , which are sequentially connected between the water outlet of the brine tank 23 and the water inlet of the electrolytic cell 27 , and are both electrically connected to the central processor 102 .

[0050] Specifically, in order to facilitate the output of the acid water in the acid water 24 and the alkaline water in the alkaline water tank 25, as a further improvement of the container-type acidic oxidation potential water generator control system provided in an embodiment of the present invention, it also includes an acid water supply unit 9 and an alkaline water supply unit 10, wherein the acid water supply unit 9 includes an acid water tank solenoid valve 901 and an acid water pump 902, and the alkaline water supply unit 10 includes an alkaline water tank solenoid valve 1001 and an alkaline water pump 1002, and the acid water tank solenoid valve 901 and the acid water pump 902 are sequentially connected to the water outlet end of the acid water tank 24, and the alkaline water tank solenoid valve 1001 and the alkaline water pump 1002 are sequentially connected to the water outlet end of the alkaline water tank 25, and the acid water tank solenoid valve 901, the alkaline water tank solenoid valve 1001, the acid water pump 902 and the alkaline water pump 1002 are all electrically connected to the central processing unit 102.

[0051] Specifically, in order to prompt the operator to add salt in time when the salt box 28 is short of salt, as a further improvement of the container-type acidic oxidation potential water generator control system provided in the embodiment of the present invention, it also includes an electrolyte monitoring unit 10. The electrolyte monitoring unit 10 is an electronic scale with a preset maximum and minimum value of the salt storage capacity of the salt barrel 28, and the electronic scale is arranged at the bottom of the salt barrel 28 and is electrically connected to the central processor 102. Its function is to determine whether there is a lack of salt in the salt barrel 28 by weighing the weight of the salt barrel 28. When the electronic scale weighs the weight of the salt barrel 28 to reach the minimum value preset in the electronic scale, an alarm prompt is issued, indicating that the resin salt in the salt barrel 28 has been used up and salt needs to be added. At this time, the central control unit 1 of the container-type acidic oxidation potential water generator control system will control the container-type acidic oxidation potential water generator to stop running.

[0052] Specifically, in order to increase the pressure on the water inlet side of the RO membrane group 2605 of the front-end water purification module 26, the container-type acidic oxidizing potential water generator control system provided as a further improvement of the embodiment of the present invention also includes a booster pump 12, and the booster pump 12 is arranged on the water inlet side of the RO membrane group 2605 and is electrically connected to the central processor 102.

[0053] Specifically, in order to replenish brine to the brine tank 23 in time, as a further improvement of the containerized acidic oxidizing potential water generator control system provided in an embodiment of the present invention, it also includes a brine valve 13, and the brine valve 13 is arranged between the pure water tank 22 and the salt tank 28, and is electrically connected to the central processor 102.

[0054] Specifically, in order to transport the acid and alkaline water produced by the electrolytic cell 27 to the acid water tank 24 and the alkaline water tank 25, the control system of the containerized acidic oxidizing potential water generator provided as a further improvement of the embodiment of the present invention also includes an acid water valve 14, an alkaline water valve 16, an acid pump 15 and an alkaline pump 17, wherein the acid water valve 14 and the acid pump 15 are connected in sequence between the acid water tank 24 and the acid water outlet of the electrolytic cell 27, the alkaline water valve 16 and the alkaline pump 17 are connected in sequence between the alkaline water tank 25 and the alkaline water outlet of the electrolytic cell 27, and the acid water valve 14, the alkaline water valve 16, the acid pump 15 and the alkaline pump 17 are all electrically connected to the central processor 102.

[0055] Specifically, in order to replenish raw water to the raw water tank 21 in time, the control system of the containerized acidic oxidizing potential water generator provided in an embodiment of the present invention is further improved, and also includes a raw water tank water replenishment valve 18, and one end of the raw water tank water replenishment valve 18 is connected to the external raw water supply system, and the other end is connected to the raw water tank 21, which is used to replenish raw water to the raw water tank 21.

[0056] Specifically, in order to facilitate the remote operation of the container-type acidic oxidation potential water generator, as a further improvement of the control system of the container-type acidic oxidation potential water generator provided in the embodiment of the present invention, it also includes a cloud server 19 and a remote mobile terminal 20, the cloud server 19 is connected to the central control unit 1 for communication, and the remote mobile terminal 20 is connected to the cloud server 19 for communication. The remote mobile terminal 20 is used to remotely control the operation of the container-type acidic oxidation potential water generator;

[0057] More specifically, the remote mobile terminal 20 may be a tablet computer or a mobile phone.

[0058] More specifically, the cloud server 19 and the central control unit 1 can be connected via WiFi or 4G / 5G network communication.

[0059] More specifically, the cloud server 19 and the remote mobile terminal 20 may be connected via WiFi or a 4G / 5G network.

[0060] Embodiment 2: Embodiment 2 of the present invention provides a control method for a container-type acidic oxidation potential water generator control system, comprising the following steps:

[0061] S1. First, set the corresponding parameters for preparing oxidation potential water on the human-machine interface 101 of the central control unit 1, and then start the container-type acidic oxidation potential water generator to prepare water through the human-machine interface 101. The container-type acidic oxidation potential water generator includes a container and a raw water tank 21, a pure water tank 22, a salt water tank 23, an acid water tank 24, an alkaline water tank 25, a front-end water purification module 26, an electrolytic cell 27 and a salt barrel 28 arranged in the container. The raw water tank 21 is connected to the front-end water purification module 26, the front-end water purification module 26 is connected to the pure water tank 22, and the pure water tank 22 is respectively connected to The electrolytic cell 27 is connected to the salt barrel 28, the salt barrel 28 is connected to the salt water tank 23, the salt water tank 23 is connected to the electrolytic cell 27, the electrolytic cell 27 is connected to the acid water tank 24 and the alkaline water tank 25, the front-end water purification module 26 includes a precision filter 2601, a quartz sand tank 2602, an activated carbon tank 2603, a resin tank 2604 and an RO membrane group 2605, the precision filter 2601 is connected to the quartz sand tank 2602, the quartz sand tank 2602 is connected to the activated carbon tank 2603, the activated carbon tank 2603 is connected to the resin tank 2604, and the resin tank 2604 is connected to the RO membrane group 2605;

[0062] S2. The liquid level, pressure, flow and water production index of the container-type acidic oxidation potential water generator in the water production process are respectively monitored by the liquid level monitoring unit 2, the pressure monitoring unit 3, the flow monitoring unit 4 and the water production index monitoring unit 5, and the monitored liquid level, pressure, flow and water production index data are transmitted to the central control unit 1 in real time. The central control unit 1 controls the container-type acidic oxidation potential water generator to perform corresponding actions according to the received liquid level data. The central control unit 1 monitors the operating status of the system equipment according to the received pressure and flow data, and determines whether the system equipment has any abnormalities. The central control unit 1 determines whether the water quality of the pure water and acid-base water produced by the container-type acidic oxidation potential water generator meets the standards according to the received water production index data.

[0063] Specifically, in step S2, the liquid level in the raw water tank 21 is monitored in real time by the raw water tank liquid level meter 201 in the liquid level monitoring unit 2. When the raw water tank liquid level meter 201 detects that the raw water in the raw water tank 21 reaches a low liquid level, the raw water tank liquid level meter 201 will send the liquid level information to the central processor 102 in the central control unit 1. At this time, the central processor 102 will control the entire container-type acidic oxidation potential water generator control system to stop running, so that the container-type acidic oxidation potential water generator stops making water. At the same time, it will control the opening of the raw water tank water replenishment valve 1 7. Raw water is replenished into the raw water tank 21 through the raw water tank replenishment valve 17 from the external water supply pipeline until the raw water in the raw water tank 21 reaches a high liquid level, and then the raw water tank replenishment valve 17 is controlled to close; when the raw water tank level meter 201 detects that the raw water in the raw water tank 21 has reached a high liquid level, the raw water tank level meter 201 will send the liquid level information to the central processor 102 in the central control unit 1, and at this time the central processor 102 will control the entire container-type acidic oxidation potential water generator control system to start normally, so that the container-type acidic oxidation potential water generator can produce water normally.

[0064] Specifically, in step S2, the liquid level in the pure water tank 22 is monitored in real time by the pure water tank level gauge 202 in the liquid level monitoring unit 2. When the pure water tank level gauge 202 detects that the pure water in the pure water tank 22 has reached a low liquid level, the pure water tank level gauge 202 will send the liquid level information to the central processor 102 in the central control unit 1. At this time, the central processor 102 will control the pure water supply unit 7 and the electrolytic cell 27 to stop working, and control the raw water supply unit 6 to work normally, start preparing pure water, and replenish pure water into the pure water tank 22 until the pure water in the pure water tank 22 reaches a high liquid level, and then control the raw water supply unit 6 to stop working; when the pure water tank level gauge 202 detects that the pure water in the pure water tank 22 has reached a high liquid level, the raw water supply unit 6 is controlled by the central processor 102 to stop working.

[0065] Specifically, in step S2, the liquid level in the brine tank 23 is monitored in real time by the brine tank level gauge 203 in the liquid level monitoring unit 2. When the brine tank level gauge 203 detects that the brine in the brine tank 23 has reached a low liquid level, the brine tank level gauge 203 will send the liquid level information to the central processor 102 in the central control unit 1. At this time, the central processor 102 controls the brine valve 13 to open and replenish brine into the brine tank 23 until the brine in the brine tank 23 reaches a high liquid level, and then controls the brine valve 13 to close; when the brine tank level gauge 203 detects that the brine in the brine tank 23 has reached a high liquid level, the central processor 102 controls the brine valve 13 to close.

[0066] Specifically, in step S2, the liquid level in the acid water tank 24 is monitored in real time by the acid water tank liquid level gauge 204 in the liquid level monitoring unit 2. When the acid water tank liquid level gauge 204 detects that the acid water in the acid water tank 24 reaches a low liquid level, the acid water tank liquid level gauge 204 will send the liquid level information to the central processor 102 in the central control unit 1, and the central processor 102 controls the electrolytic cell 27 to start working; when the acid water tank liquid level gauge 204 detects that the acid water in the acid water tank 24 reaches a high liquid level, the central processor 102 controls the electrolytic cell 27 to stop working.

[0067] Specifically, in step S2, the liquid level in the alkaline water tank 25 is monitored in real time by the alkaline water tank level gauge 205 in the liquid level monitoring unit 2. When the alkaline water tank level gauge 205 detects that the acid water in the alkaline water tank 25 reaches a low liquid level, the alkaline water tank level gauge 205 will send the liquid level information to the central processor 102 in the central control unit 1. At this time, the central processor 102 controls the electrolytic cell 27 to start working; when the alkaline water tank level gauge 205 detects that the acid water in the alkaline water tank 25 reaches a high liquid level, the central processor 102 controls the electrolytic cell 27 to stop working.

[0068] Specifically, in step S2, the water inlet pressure monitoring gauge 301 in the pressure monitoring unit 3 monitors the water inlet pressure of the raw water tank 21 in real time. When the water inlet pressure is low, the control system sends out an alarm to indicate that the water inlet pressure of the raw water tank 21 is low.

[0069] Specifically, in step S2, the pressure on the water inlet side of the RO membrane group 2605 of the front-end water purification module 26 is monitored in real time by the front-end water purification module membrane front pressure monitoring gauge 302 in the pressure monitoring unit 3. The setting of the front-end water purification module membrane front pressure monitoring gauge 302 helps the user to judge the conditions of the quartz sand tank, resin tank, and activated carbon tank according to the pressure value. When the front-end water purification module membrane front pressure monitoring gauge 302 detects that the pressure is lower than a certain value, the control system will issue an alarm, indicating that the quartz sand tank, resin tank, and activated carbon tank on the front side of the RO membrane group 2605 need to be repaired or the filter material needs to be replaced.

[0070] Specifically, in step S2, the outlet side pressure of the RO membrane group 2605 of the front-end water purification module 26 is monitored in real time by the pressure monitoring unit 3 through the pressure monitoring gauge 303 after the membrane of the front-end water purification module. The setting of the pressure monitoring gauge 303 after the membrane of the front-end water purification module helps the user to judge the condition of the RO membrane group 2605 according to the pressure value. When the pressure monitoring gauge 303 after the membrane of the front-end water purification module detects that the pressure is lower than a certain value, the control system will issue an alarm, indicating that the RO membrane group 2605 may be blocked and needs to be repaired or replaced.

[0071] Specifically, in step S2, the water inlet flow rate is monitored and displayed in real time by the water inlet flow rate monitor 401 in the flow monitoring unit 4. By setting the water inlet flow rate monitor 401, the water inlet flow rate can be displayed in real time, and the water inlet flow rate used in a certain period of time can also be counted, which is convenient for users to view.

[0072] Specifically, in step S2, the actual pure water flow rate of the front-end water purification module 26 is monitored in real time by the front-end water purification module water flow rate monitoring meter 402 in the flow monitoring unit 4. The setting of the front-end water purification module water flow rate monitoring meter 402 helps the user to judge the equipment aging of the front-end water purification module 26 by comparing the actual pure water flow rate of the front-end water purification module 26 with its theoretical pure water flow rate, so as to remind the user to perform maintenance in time.

[0073] Specifically, in step S2, the actual acid-making water flow rate of the electrolytic cell 27 is monitored in real time by the electrolytic cell acid-making water flow rate monitoring meter 403 in the flow monitoring unit 4. The setting of the electrolytic cell acid-making water flow rate monitoring meter 403 helps the user to judge the aging condition of the electrolytic cell 27 by comparing the actual acid-making water flow rate of the electrolytic cell 27 with its theoretical acid-making water flow rate, so as to remind the user to perform maintenance in time.

[0074] Specifically, in step S2, the actual alkali water flow rate of the electrolytic cell 27 is monitored in real time by the electrolytic cell alkali water flow rate monitoring meter 404 in the flow monitoring unit 4. The setting of the electrolytic cell alkali water flow rate monitoring meter 404 helps the user to judge the aging condition of the electrolytic cell 27 based on the comparison between the actual alkali water flow rate of the electrolytic cell 27 and its theoretical alkali water flow rate, so as to remind the user to perform timely maintenance.

[0075] Specifically, in step S2, the actual acid water flow rate of the acid water tank 24 is monitored in real time by the acid water tank outlet flow rate monitor 405 in the flow rate monitoring unit 4. The setting of the acid water tank outlet flow rate monitor 405 helps the user to statistically understand the acid water flow rate used in a certain period of time.

[0076] Specifically, in step S2, the actual alkaline water flow rate out of the alkaline water tank 25 is monitored in real time by the alkaline water tank outlet flow rate monitoring meter 406 in the flow monitoring unit 4. The setting of the alkaline water tank outlet flow rate monitoring meter 406 helps the user to statistically understand the alkaline water flow rate used in a certain period of time.

[0077] Specifically, in step S2, the water index of the front-end water purification module 26 is monitored in real time by the pure water index monitor 501 in the water production index monitoring unit 5. The setting of the pure water index monitor 501 helps the user understand whether the pure water quality produced by the front-end water purification module 26 meets the standard, so that the user can judge whether the equipment in the front-end water purification module 26 fails.

[0078] Specifically, in step S2, the acid water index monitor 502 in the water index monitoring unit 5 monitors the acid water index of the electrolytic cell 27 in real time. The setting of the acid water index monitor 502 helps the user understand whether the acid water quality produced by the electrolytic cell 27 meets the standard.

[0079] Specifically, in step S2, the alkaline water index monitor 503 in the water index monitoring unit 5 monitors the alkaline water index of the electrolytic cell 27 in real time. The alkaline water index monitor 503 helps the user understand whether the alkaline water produced by the electrolytic cell 27 meets the water quality standards.

[0080] Finally, it should be noted that the above description is only an embodiment of the present invention, and does not limit the patent scope of the present invention. Any equivalent structure or equivalent process transformation made using the contents of the present invention specification and drawings, or directly or indirectly used in other related technical fields, are also included in the patent protection scope of the present invention.

Claims

1. A containerized acidic oxidizing potential water generator control system, characterized in that: It comprises a central control unit (1), a liquid level monitoring unit (2), a pressure monitoring unit (3), a flow monitoring unit (4), a water production index monitoring unit (5), a raw water supply unit (6), a pure water supply unit (7) and a salt water supply unit (8); The central control unit (1) comprises a human-machine interaction interface (101) and a central processing unit (102); the human-machine interaction interface (101) is electrically connected to the central processing unit (102), and the central processing unit (102) is internally embedded with a control program specifically for controlling and managing the container-type acidic oxidizing potential water generator; The liquid level monitoring unit (2) comprises a raw water tank liquid level gauge (201), a pure water tank liquid level gauge (202), a salt water tank liquid level gauge (203), an acid water tank liquid level gauge (204) and an alkaline water tank liquid level gauge (205); the raw water tank liquid level gauge (201) is arranged on the raw water tank (21) to monitor the liquid level of the raw water in the raw water tank (21); the pure water tank liquid level gauge (202) is arranged on the pure water tank (22) to monitor The liquid level of pure water in the pure water tank (22); the salt water tank liquid level meter (203) is arranged on the salt water tank (23) and is used to monitor the liquid level of salt water in the salt water tank (23); the acid water tank liquid level meter (204) is arranged on the acid water tank (24) and is used to monitor the liquid level of acid water in the acid water tank (24); the alkaline water tank liquid level meter (205) is arranged on the alkaline water tank (25) and is used to monitor the liquid level of alkaline water in the alkaline water tank (25); The pressure monitoring unit (3) comprises a water inlet pressure monitoring gauge (301), a front-end water purification module membrane front pressure monitoring gauge (302) and a front-end water purification module membrane rear pressure monitoring gauge (303); the raw water inlet pressure monitoring gauge (301) is arranged on the water inlet side of the raw water tank (21) for monitoring the water inlet pressure on the water inlet side of the raw water tank (21); the front-end water purification module membrane front pressure monitoring gauge (302) is arranged on the water inlet side of the RO membrane group (2605) of the front-end water purification module (26) for monitoring the water inlet pressure on the water inlet side of the RO membrane group (2605); the front-end water purification module membrane rear pressure monitoring gauge (303) is arranged on the water outlet side of the RO membrane group (2605) of the front-end water purification module (26) for monitoring the water outlet pressure on the water outlet side of the RO membrane group (2605); The flow monitoring unit (4) comprises a water inlet flow monitoring meter (401), a front-end water purification module water production flow monitoring meter (402), an electrolytic cell acid production water flow monitoring meter (403), an electrolytic cell alkali production water flow monitoring meter (404), an acid water tank outlet water flow monitoring meter (405) and an alkali water tank outlet water flow monitoring meter (406); the water inlet flow monitoring meter (401) is arranged on the water inlet side of the raw water tank (21) to monitor the water inlet flow on the water inlet side of the raw water tank (21); the front-end water purification module water production flow monitoring meter (402) is arranged on the water outlet side of the front-end water purification module (26) to monitor the water flow of the front-end water purification module (26). The flow rate of purified water produced; the electrolytic cell acid water flow rate monitor (403) is arranged at the acid water outlet side of the electrolytic cell (27) to monitor the flow rate of acid water produced by the electrolytic cell (27); the electrolytic cell alkali water flow rate monitor (404) is arranged at the alkali water outlet side of the electrolytic cell (27) to monitor the flow rate of alkali water produced by the electrolytic cell (27); the acid water tank outlet flow rate monitor (405) is arranged at the acid water tank (24) outlet side to monitor the flow rate of acid water produced by the acid water tank (24); the alkali water tank outlet flow rate monitor (406) is arranged at the alkali water tank (25) outlet side to monitor the flow rate of alkali water produced by the alkali water tank (25); The water production index monitoring unit (5) comprises a pure water index monitor (501), an acid water index monitor (502) and an alkaline water index monitor (503); the pure water index monitor (501) is arranged at the outlet side of the front-end water purification module (26) to monitor the outlet water quality of the front-end water purification module (26); the acid water index monitor (502) is arranged at the outlet side of the acid water of the electrolytic cell (27) to monitor the pH value and ORP value of the acid water; the alkaline water index monitor (502) is arranged at the outlet side of the alkaline water of the electrolytic cell (27) to monitor the pH value and ORP value of the alkaline water. Wherein, the raw water supply unit (6) is arranged between the raw water tank (21) and the front-end water purification module (26), and is used to supply raw water to the front-end water purification module (26); The pure water supply unit (7) is arranged between the pure water tank (22) and the electrolytic cell (27) and is used to supply pure water to the electrolytic cell (27); Wherein, the salt water supply unit (8) is arranged between the salt water tank (23) and the electrolytic cell (27) and is used to supply electrolyte to the electrolytic cell (27); Among them, the raw water tank level meter (201), the pure water tank level meter (202), the salt water tank level meter (203), the acid water tank level meter (204), the alkaline water tank level meter (205), the water inlet pressure monitor (301), the front-end water purification module membrane front pressure monitor (302), the front-end water purification module membrane rear pressure monitor (303), the water inlet flow monitor (401), the front-end water purification module water flow monitor (402), the electrolytic cell acid water flow monitor (403), the electrolytic cell alkali water flow monitor (404), the acid water tank outlet water flow monitor (405), the alkaline water tank outlet water flow monitor (406), the pure water index monitor (501), the acid water index monitor (502), the alkaline water index monitor (503), the raw water supply unit (6), the pure water supply unit (7), the salt water supply unit (8) and the electrolytic cell (27) are all electrically connected to the central processing unit (102).

2. The containerized acidic oxidizing potential water generator control system according to claim 1 is characterized in that: The raw water supply unit (6) comprises a raw water tank solenoid valve (601) and a raw water pump (602), wherein the raw water tank solenoid valve (601) and the raw water pump (602) are connected in sequence between the water outlet of the raw water tank (21) and the water inlet of the front-end water purification module (26), and are both electrically connected to the central processing unit (102).

3. The containerized acidic oxidizing potential water generator control system according to claim 1 is characterized in that: The pure water supply unit (7) comprises a pure water tank solenoid valve (701) and a pure water pump (702), wherein the pure water tank solenoid valve (701) and the pure water pump (702) are connected in sequence between the water outlet of the pure water tank (22) and the water inlet of the electrolytic cell (27), and are both electrically connected to the central processing unit (102).

4. The containerized acidic oxidizing potential water generator control system according to claim 1 is characterized in that: The brine supply unit (8) comprises a brine tank solenoid valve (801) and a brine pump (802), wherein the brine tank solenoid valve (801) and the brine pump (802) are connected in sequence between the water outlet of the brine tank (23) and the water inlet of the electrolytic cell (27), and are both electrically connected to the central processing unit (102).

5. The containerized acidic oxidizing potential water generator control system according to claim 1 is characterized in that: The invention also comprises an acid water supply unit (9) and an alkaline water supply unit (10), wherein the acid water supply unit (9) comprises an acid water tank electromagnetic valve (901) and an acid water pump (902), and the alkaline water supply unit (10) comprises an alkaline water tank electromagnetic valve (1001) and an alkaline water pump (1002), wherein the acid water tank electromagnetic valve (901) and the acid water pump (902) are sequentially connected to the water outlet of the acid water tank (24), and the alkaline water tank electromagnetic valve (1001) and the alkaline water pump (1002) are sequentially connected to the water outlet of the alkaline water tank (25), and the acid water tank electromagnetic valve (901), the alkaline water tank electromagnetic valve (1001), the acid water pump (902) and the alkaline water pump (1002) are all electrically connected to a central processing unit (102).

6. The containerized acidic oxidizing potential water generator control system according to claim 1 is characterized in that: It also comprises an electrolyte monitoring unit (11), which is an electronic scale having a preset maximum and minimum value of the salt storage amount of the salt barrel (28). The electronic scale is arranged at the bottom of the salt barrel (28) and is electrically connected to the central processor (102) for determining whether there is a lack of salt in the salt barrel (28) by weighing the weight of the salt barrel (28).

7. The containerized acidic oxidizing potential water generator control system according to claim 1 is characterized in that: The invention also comprises a booster pump (12), a salt water valve (13), an acid water valve (14), an alkaline water valve (16), an acid pump (15) and an alkaline pump (17). The booster pump (12) is arranged at the water inlet side of the RO membrane group (2605). The salt water valve (13) is arranged between the pure water tank (22) and the salt tank (28). The acid water valve (14) and the acid pump (15) are connected in sequence between the acid water tank (24) and the acid water outlet of the electrolytic cell (27). The alkaline water valve (16) and the alkaline pump (17) are connected in sequence between the alkaline water tank (25) and the alkaline water outlet of the electrolytic cell (27). The booster pump (12), the salt water valve (13), the acid water valve (14), the alkaline water valve (16), the acid pump (15) and the alkaline pump (17) are all electrically connected to the central processing unit (102).

8. The containerized acidic oxidizing potential water generator control system according to claim 1 is characterized in that: It also comprises a raw water tank water replenishment valve (18), wherein the raw water tank water replenishment valve (18) is connected to the raw water tank (21) and is used to replenish raw water into the raw water tank (21).

9. The containerized acidic oxidizing potential water generator control system according to any one of claims 1 to 8, characterized in that: It also comprises a cloud server (19) and a remote mobile terminal (20), wherein the cloud server (19) is communicatively connected to the central control unit (1), and the remote mobile terminal (20) is communicatively connected to the cloud server (19).

10. A control method based on the containerized acidic oxidizing potential water generator control system according to claim 9, characterized in that: The following steps are included: S1. First, corresponding parameters for preparing oxidation potential water are set on the human-machine interaction interface (101) of the central control unit (1), and then the container-type acidic oxidation potential water generator is started to produce water through the human-machine interaction interface (101). The container-type acidic oxidation potential water generator comprises a container and a raw water tank (21), a pure water tank (22), a salt water tank (23), an acid water tank (24), an alkaline water tank (25), a front-end water purification module (26), an electrolytic cell (27) and a salt barrel (28) arranged in the container. The raw water tank (21) is connected to the front-end water purification module (26), the front-end water purification module (26) is connected to the pure water tank (22), the pure water tank (22) is connected to the electrolytic cell (27) and the salt barrel (28), respectively. 8), the salt barrel (28) is connected to the salt water tank (23), the salt water tank (23) is connected to the electrolytic cell (27), the electrolytic cell (27) is connected to the acid water tank (24) and the alkaline water tank (25), the front end water purification module (26) comprises a precision filter (2601), a quartz sand tank (2602), an activated carbon tank (2603), a resin tank (2604) and an RO membrane group (2605), the precision filter (2601) is connected to the quartz sand tank (2602), the quartz sand tank (2602) is connected to the activated carbon tank (2603), the activated carbon tank (2603) is connected to the resin tank (2604), and the resin tank (2604) is connected to the RO membrane group (2605); S2, respectively monitoring the liquid level, pressure, flow rate and water production index of the container-type acidic oxidation potential water generator during the water production process through the liquid level monitoring unit (2), the pressure monitoring unit (3), the flow rate monitoring unit (4) and the water production index monitoring unit (5), and transmitting the monitored liquid level, pressure, flow rate and water production index data to the central control unit (1) in real time, and the central control unit (1) controls the container-type acidic oxidation potential water generator to perform corresponding actions according to the received liquid level data, and the central control unit (1) monitors the operating status of the system equipment according to the received pressure and flow rate data, and determines whether the system equipment is abnormal, and the central control unit (1) determines whether the water quality of the pure water and acid-base water produced by the container-type acidic oxidation potential water generator meets the standards according to the received water production index data.

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