A nano ionic water generating device and a working method thereof

Abstract

The application relates to the technical field of chemical electrolysis, and discloses a nano ionic water generating device which comprises a reverse osmosis pure water unit, a pure water storage tank, a main ionization reaction device, an auxiliary ionization reaction device, a nano ionic water storage tank and a water pump; the reverse osmosis pure water unit is connected with the pure water storage tank; the pure water storage tank is connected with the main ionization reaction device through the water pump; the main ionization reaction device is connected with the auxiliary ionization reaction device and the nano ionic water storage tank respectively. The nano ionic water can be quickly prepared; the electrolysis speed of each electrolytic plate is about 50 L / h; the preparation speed can be improved in the parallel connection mode of the electrolytic plates; the number of the electrolytic plates is proportional to the preparation speed; the auxiliary ionization reaction device can accurately control the concentration of the salt aqueous solution participating in the auxiliary ionization reaction, and the electrolysis quality of the nano ionic water can be ensured.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of chemical electrolysis, in particular to a nano-ionic water generating device and its working method. BACKGROUND

[0002] Nanomaterials and ionic water are increasingly widely used in various fields, including drinking water purification, food processing, medical care, etc. Nanomaterials have large specific surface area, high reactivity and special physical and chemical properties, which can improve the performance and function of materials. Ionic water refers to a water solution containing high concentration of specific ions, which can adjust the acid-base balance, provide trace elements needed by the body, and has the effects of antibacterial, cleaning and repair, etc. However, there are some problems in the existing nano-ionic water generating device that need to be solved.

[0003] Firstly, the traditional nano-ionic water generating device is composed of multiple components, which has complex structure, large space occupation, and is not conducive to simplifying the equipment and reducing the manufacturing cost. The existing device often needs electrolytic plate, electrolytic negative electrode, electrolytic positive electrode and other components, which increases the cost and operation difficulty of the device.

[0004] Secondly, in terms of adjusting the concentration of nano-ionic water, the existing device usually adopts a simple solution dilution method, which cannot accurately control the concentration of nano-ionic water. In actual application, different fields have different requirements for the concentration of nano-ionic water, so a flexible and adjustable concentration adjustment method is needed.

[0005] In addition, in terms of ionization auxiliary reaction, the existing device often does not assist the ionization reaction, resulting in low ionization efficiency. The hydrogen gas after ionization is not completely discharged, which may affect the safety and high efficiency of the device.

[0006] Therefore, it is necessary to develop a nano-ionic water generating device with simple structure, easy operation, accurate adjustment of nano-ionic water concentration and auxiliary ionization reaction. The device should have the characteristics of simplified structure, space saving, energy saving, and be able to accurately adjust the concentration of nano-ionic water according to the needs of different fields, while providing auxiliary ionization reaction to improve the ionization efficiency. Such a device will be widely used in drinking water purification, food processing, medical care and other fields, meeting the needs of different users, promoting the development and application of nano-ionic water technology. SUMMARY

[0007] The purpose of the present application is to provide a nano-ionic water generating device and its working method to solve the problems raised in the background art.

[0008] To achieve the above object, the application provides the following technical scheme: a nano ionic water generating device is a device for converting tap water into nano ionic water by using advanced technology, which comprises a reverse osmosis pure water unit, a pure water storage tank, an ionization main reaction device, an ionization auxiliary reaction device, a nano ionic water storage tank and a water pump.

[0009] Specifically, the reverse osmosis pure water unit converts tap water into pure water through the filtration of activated carbon and quartz sand, and is connected to the ionization main reaction device through the water pump, so as to avoid the damage of calcium and magnesium and other substances in tap water to the electrolytic plate.

[0010] The pure water storage tank is used for collecting the filtered pure water for subsequent use.

[0011] The ionization main reaction device comprises an electrolytic plate, a transition water tank, a self-priming pump, a pressurizing tank, a nano ionic water concentration adjusting cup, a proportional valve, a hydrogen outlet and a fan; the electrolytic plate is composed of an anode and a cathode, the anode circulates low-concentration water, and the cathode generates nano ionic water; the salt additive added in the low-concentration water affects the water ionization efficiency; the cathode electrolyzes water into hydrogen and hydroxyl ions, among which the hydrogen is discharged through the outlet, and the alkaline hydroxyl ion water mixture becomes nano ionic water, which has the effect of sterilization and disinfection.

[0012] The transition water tank is connected to the water pump and is used for providing pure water for the cathode in the ionization main reaction device and the nano ionic water concentration adjusting cup; the self-priming pump and the pressurizing tank jointly provide the power for the water flow in the ionization main reaction device and the ionization auxiliary reaction device.

[0013] The nano ionic water concentration adjusting cup is connected to the transition water tank and the electrolytic plate respectively, and controls the target pH value of the nano ionic water concentration adjustment through the proportional valve; the nano ionic water concentration adjusting cup is used for adjusting the concentration of the nano ionic water generated by the cathode.

[0014] The fan is used for discharging the hydrogen accumulated in the nano ionic water concentration adjusting cup out of the device, so as to prevent the explosion risk caused by the accumulation of a large amount of hydrogen.

[0015] The nano ionic water generating device converts tap water into nano ionic water, and the water has stronger sterilization and disinfection capacity.

[0016] Specifically, the ionization auxiliary reaction device is part of the nano ionic water generating device, which plays an auxiliary role for the ionization main reaction device; the device comprises a low-concentration water tank, a high-concentration water tank, a stirrer, a concentration detector, an additive, an overflow pipe, a water inlet pipe and a water outlet pipe.

[0017] The low-concentration water tank and the high-concentration water tank are each provided with a stirrer and a concentration detector; the stirrer is used to ensure that the water solution in the water tank is uniformly mixed, and the concentration detector is used to monitor the concentration change of the water solution in real time; when the positive electrode of the electrolytic plate performs electrolysis, water is circulated from the low-concentration water tank into the electrolysis device through the water inlet pipe and the water outlet pipe, so that the concentration of the water solution in the low-concentration water tank gradually decreases.

[0018] In order to keep the concentration of the water solution in the low-concentration water tank constant, a high-concentration water tank is arranged on one side of the low-concentration water tank; the user adds a substance that can increase the concentration of the water solution into the high-concentration water tank through an additive; the water solution in the low-concentration water tank is pumped into the high-concentration water tank through a self-priming pump; as the water solution enters, the water level of the high-concentration water tank rises and automatically flows back into the low-concentration water tank through the overflow pipe, thereby adjusting the concentration of the water solution in the low-concentration water tank.

[0019] The concentration of the water solution in the low-concentration water tank of the ionization auxiliary reaction device is controlled to be between 7-9 mS / cm, and the concentration of the water solution in the high-concentration water tank is controlled to be between 70-90 mS / cm.

[0020] The nano-ion water storage tank is a container for storing nano-ion water, which is provided with a taking outlet to facilitate users to conveniently take the required nano-ion water;

[0021] These components together form an ionization auxiliary reaction device in the nano-ion water generating device, which can accurately adjust and store the concentration of nano-ion water.

[0022] A working method of a nano-ion water generating device, comprising the following steps:

[0023] Step 1:

[0024] 11. Tap water is purified by a reverse osmosis water purification unit and stored in a pure water storage tank;

[0025] 12. The water pump pumps the pure water from the pure water storage tank into the transition water tank.

[0026] Step 2:

[0027] 21. The self-priming pump pumps the pure water in the transition water tank into the negative electrode of the electrolytic plate and the nano-ion water concentration adjusting cup, respectively;

[0028] 22. The required concentration of nano-ion water is determined by adjusting the proportional valve 36;

[0029] 23. The electrolytic plate starts to work to electrolyze water into hydrogen and hydroxide ions to generate nano-ion water in the nano-ion water;

[0030] 24. The hydrogen after ionization is discharged from the hydrogen discharge outlet through the suction of the fan.

[0031] Step 3:

[0032] 31. The stirrer starts to work to ensure that the concentration of the water solution in the water tank is uniformly mixed;

[0033] 32. The concentration detector monitors the concentration of the water solution in the low-concentration water tank and the high-concentration water tank in real time.

[0034] Step 4:

[0035] 41. The self-priming pump pumps the water solution in the anode of the electrolytic plate into the low-concentration water tank through the water inlet pipe;

[0036] 42. The self-priming pump pumps the water solution in the low-concentration water tank into the anode of the electrolytic plate through the water outlet pipe, forming a cycle.

[0037] Step 5:

[0038] 51. The self-priming pump pumps the water solution in the low-concentration water tank into the high-concentration water tank until the water solution in the high-concentration water tank reaches the set concentration;

[0039] 52. When the concentration of the water solution in the high-concentration water tank is lower than 70 mS / cm, manually add an appropriate amount of additives to the high-concentration water tank to increase the concentration of the water solution;

[0040] 53. When the concentration of the water solution in the low-concentration water tank is too high, the self-priming pump reduces the self-priming speed; when the concentration of the water solution in the low-concentration water tank is too low, the self-priming pump increases the self-priming speed; until the concentration is controlled at about 8 mS / cm, the self-priming pump returns to the original speed.

[0041] The entire working process is continuously cycled, and the operations of steps 1 to 5 are performed simultaneously. The concentration of the nano-ionic water is dynamically adjusted in the continuous cycle and stored in the nano-ionic water storage tank for the convenience of users.

[0042] The nano-ionic water generating device and the working method thereof have the following beneficial effects:

[0043] 1. The present application can quickly prepare nano-ionic water, and the electrolysis speed of each electrolytic plate is about 50 L / h. The preparation speed can be increased by connecting the electrolytic plates in parallel, and the number of electrolytic plates is proportional to the preparation speed.

[0044] 2. The ionization auxiliary reaction device of the present application can accurately control the concentration of the salt water solution participating in the ionization auxiliary reaction, and can ensure the electrolysis quality of the nano-ionic water.

[0045] 3. The nano-ionic water generating device produces an alkaline, non-toxic, colorless, and odorless water solution, which is more environmentally friendly than ordinary detergents. The water solution contains hydroxyl ions, which can combine with bacteria / viruses to destroy their structure and achieve sterilization and disinfection. BRIEF DESCRIPTION OF DRAWINGS

[0046] Figure 1 is a schematic diagram of the overall layout of the present application;

[0047] Figure 2 is a working schematic diagram of the ionization auxiliary reaction device of the present application;

[0048] Figure 3 is a working method flowchart of the nanometer ionized water generating device of the present application;

[0049] Figure 4 is a working flowchart of the ionization auxiliary reaction device of the present application.

[0050] In the figure: 1, reverse osmosis pure water unit; 11, tap water pipe; 2, pure water storage tank; 3, ionization main reaction device; 31, electrolytic plate; 311, positive electrode of electrolytic plate; 312, negative electrode of electrolytic plate; 32, transition water tank; 33, self-priming pump; 34, pressurized tank; 35, nanometer ionized water concentration adjusting cup; 36, proportional valve; 37, hydrogen gas exhaust port; 38, fan; 4, ionization auxiliary reaction device; 41, low-concentration water tank; 411, stirrer; 412, concentration detector; 42, high-concentration water tank; 43, additive; 44, overflow pipe; 45, water inlet pipe; 46, water outlet pipe; 5, nanometer ionized water storage tank; 51, taking outlet; 6, water pump. DETAILED DESCRIPTION

[0051] The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, rather than all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative labor fall within the scope of protection of the present application.

[0052] Embodiment, please refer to Figures 1-4 The present application provides a technical solution: a nanometer ionized water generating device, comprising: a reverse osmosis pure water unit 1, a pure water storage tank 2, an ionization main reaction device 3, an ionization auxiliary reaction device 4, a nanometer ionized water storage tank 5, and a water pump 6;

[0053] The reverse osmosis pure water unit 1 is connected to the pure water storage tank 2, the pure water storage tank 2 is connected to the ionization main reaction device 3 through the water pump 6, and the ionization main reaction device 3 is connected to the ionization auxiliary reaction device 4 and the nanometer ionized water storage tank 5, respectively;

[0054] The reverse osmosis pure water unit 1 further comprises a tap water pipe 11 connected thereto;

[0055] The reverse osmosis pure water unit 1 is used to form pure water after the tap water is filtered by activated carbon and quartz sand, so as to facilitate the subsequent ionization and prevent the calcium and magnesium substances in the tap water from damaging the electrolytic plate 31.

[0056] The pure water storage tank 2 is used to collect the pure water filtered by the reverse osmosis pure water unit 1 for standby use.

[0057] The ionization main reaction device 3 further comprises an electrolytic plate 31, a transition water tank 32, a self-priming pump 33, a pressurizing tank 34, a nano-ion water concentration adjusting cup 35, a proportional valve 36, a hydrogen gas exhaust port 37 and a fan 38.

[0058] The electrolytic plate 31 is composed of an electrolytic plate anode 311 and an electrolytic plate cathode 312.

[0059] The transition water tank 32 is connected with the water pump 6, and the transition water tank 32 is used to provide pure water for the electrolytic plate cathode 312 in the ionization main reaction device 3 and the nano-ion water concentration adjusting cup 35.

[0060] The self-priming pump 33 is connected with the transition water tank 32, and the self-priming pump 33 and the pressurizing tank 34 jointly constitute a power source for the water flow of the ionization main reaction device 3 and the ionization auxiliary reaction device 4.

[0061] The ionization main reaction device 3 is connected with the self-priming pump 33, the electrolytic plate anode 311 performs low-concentration water circulation, the electrolytic plate cathode 312 generates nano-ion water, the low-concentration water required by the electrolytic plate anode 311 is mixed with a salt additive 43 which can promote water ionization, the concentration of the salt additive 43 mixed with water affects the efficiency of water ionization, the electrolytic plate cathode 312 electrolyzes water into hydrogen and hydroxyl ions, the hydrogen gas is finally discharged out of the device, and the water mixed with the hydroxyl ions is alkaline, that is, nano-ion water, which can kill bacteria and disinfect.

[0062] The nano-ion water concentration adjusting cup 35 is connected with the transition water tank 32 and the electrolytic plate 31 respectively, and the nano-ion water concentration adjusting cup 35 is provided with the proportional valve 36 and the transition water tank, which is used to control the target pH value of the nano-ion water concentration adjusting cup 35 participating in the nano-ion water concentration adjustment, and the nano-ion water concentration adjusting cup 35 is used to adjust the concentration of the nano-ion water ionized by the electrolytic plate cathode 312.

[0063] The fan 38 is used to extract the accumulated hydrogen gas generated by the nano-ion water concentration adjusting cup 35 out of the device, so as to prevent the explosion caused by the large accumulation of hydrogen gas.

[0064] The ionization auxiliary reaction device 4 further comprises a low-concentration water tank 41, a high-concentration water tank 42, a stirrer 411, a concentration detector 412, an additive 43, an overflow pipe 44, a water inlet pipe 45 and a water outlet pipe 46.

[0065] Low concentration water tank 41 and high concentration water tank 42 each have a stirrer 411 and a concentration detector 412, the stirrer 411 stirs the water tank to ensure that the concentration of the water solution in the tank is uniform, and the concentration detector 412 detects the concentration of the water solution in the tank in real time. The positive electrode 311 of the electrolytic plate is connected to the low concentration water tank 41 through the water inlet pipe 45 and the water outlet pipe 46. During the electrolytic reaction, the water inlet pipe 45 and the water outlet pipe 46 continuously circulate water, and the concentration of the water solution in the low concentration water tank 41 gradually decreases. In order to ensure the concentration of the water in the low concentration water tank 41, a high concentration water tank 42 is also provided on one side of the low concentration water tank 41. The additive 43 for increasing the concentration of the water solution can be manually added to the high concentration water tank 42. The self-priming pump 33 pumps the water solution in the low concentration water tank 41 into the high concentration water tank 42, and the water level in the high concentration water tank 42 rises and automatically flows into the low concentration water tank 41 through the overflow pipe 44, thereby adjusting the concentration of the water solution in the low concentration water tank 41. The concentration of the water solution in the low concentration water tank 41 of the ionization auxiliary reaction device 4 is controlled to be 7-9 mS / cm, and the concentration of the water solution in the high concentration water tank 42 is controlled to be 70-90 mS / cm.

[0066] The nano ionic water storage tank 5 also includes a taking outlet 51 connected thereto.

[0067] As shown in Figure 3 , a working method of a nano ionic water generating device, comprising the following steps:

[0068] Step 1: start the system, and purified tap water enters the transition water tank 32;

[0069] S1: tap water enters the reverse osmosis water purification unit 1 from the tap water pipe 11 for water purification, and the prepared pure water is stored in the pure water storage tank 2;

[0070] S2: the pure water is pumped from the pure water storage tank 2 into the transition water tank 32 through the water pump 6;

[0071] Step 2: electrolyze the nano ionic water by the ionization main reaction device 3;

[0072] S1: the self-priming pump 33 pumps the pure water in the transition water tank 32 into the electrolytic plate negative electrode 312 and the nano ionic water concentration adjusting cup 35;

[0073] S2: adjust the proportional valve 36 to determine the required concentration of the nano ionic water;

[0074] S3: the electrolytic plate 31 starts to work;

[0075] S4: the hydrogen gas after ionization is discharged from the hydrogen gas discharge outlet 37 by the suction of the fan 38;

[0076] Step 3: the ionization auxiliary reaction device 4 assists in completing the ionization reaction;

[0077] Step 4: The electrolyzed nano water is stored in the nano water storage tank 5 and can be flexibly taken from the taking outlet 51;

[0078] Step 2 is synchronized with Step 3, and the workflow of Steps 1-4 continues.

[0079] As shown in Figure 4 the specific workflow of the ionization auxiliary reaction device 4 in Step 3 is as follows:

[0080] Step 1: The stirrer 411 works, the concentration detector 412 detects the concentration, and the display shows the reading.

[0081] Step 2: The self-priming pump 33 pumps the water solution in which the auxiliary electrolysis of the positive electrode 311 of the electrolytic plate is completed into the low-concentration water tank 41 through the water inlet pipe 45, and the self-priming pump 33 pumps the water solution in the low-concentration water tank 41 into the positive electrode 311 of the electrolytic plate through the water outlet pipe 46, thereby forming a cycle.

[0082] Step 3: The self-priming pump 33 pumps the water solution in the low-concentration water tank 41 into the high-concentration water tank 42, and when the high-concentration water tank 42 reaches the high liquid level, it automatically flows into the low-concentration water tank 41 through the overflow pipe.

[0083] Step 4: When the concentration of the water solution in the high-concentration water tank 42 is lower than 70 mS / cm, the additive 43 is manually added to the high-concentration water tank 42 until the concentration of the water solution in the high-concentration water tank 42 reaches 90 mS / cm.

[0084] Step 5: When the concentration of the water solution in the low-concentration water tank 41 is too high, the self-priming pump 33 reduces the self-priming speed; when the concentration of the water solution in the low-concentration water tank 41 is too low, the self-priming pump 33 increases the self-priming speed; until the concentration is controlled at about 8 mS / cm, the self-priming pump 33 returns to the original speed.

[0085] Steps 1-5 are performed simultaneously, and dynamic adjustment is performed in continuous circulation.

[0086] Although embodiments of the present application have been shown and described, it will be understood by those of ordinary skill in the art that various changes, modifications, substitutions and alterations can be made thereto without departing from the principles and spirit of the present application, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A nano-ion water generator, characterized in that, include: Reverse osmosis pure water unit (1), pure water storage tank (2), ionization main reaction device (3), ionization auxiliary reaction device (4), nano-ionized water storage tank (5) and water pump (6); The reverse osmosis pure water unit (1) is connected to the pure water storage tank (2), and the pure water storage tank (2) is connected to the ionization main reaction device (3) through the water pump (6). The ionization main reaction device (3) is connected to the ionization auxiliary reaction device (4) and the nano-ionized water storage tank (5) respectively. The ionization main reaction device (3) also includes an electrolysis plate (31), a transition water tank (32), a self-priming pump (33), a pressurizing tank (34), a sodium ionized water concentration regulating cup (35), a proportional valve (36), a hydrogen exhaust port (37), and a fan (38). The self-priming pump (33) and the pressurizing tank (34) together form the power source for the water flow in the main ionization reaction device (3) and the auxiliary ionization reaction device (4); The electrolytic plate (31) is composed of an electrolytic plate positive electrode (311) and an electrolytic plate negative electrode (312); The transition water tank (32) is connected to the water pump (6). The transition water tank (32) is used to provide pure water to the negative electrode (312) of the ionization plate and the nano-ionized water concentration adjustment cup (35) in the ionization main reaction device (3). The self-priming pump (33) is connected to the transition water tank (32), and the self-priming pump (33) delivers the pure water in the transition water tank (32) to the negative electrode (312) of the electrolysis plate. The ionization main reaction device (3) is connected to the self-priming pump (33). The positive electrode (311) of the electrolysis plate circulates low-concentration water, and the negative electrode (312) of the electrolysis plate electrolyzes water into hydrogen and hydroxide ions. The hydrogen gas is finally discharged from the device, and the alkaline hydroxide ion water mixture becomes nano-ion water, i.e., nano-ion water. The nano-ionized water concentration regulating cup (35) is connected to the transition water tank (32) and the electrolysis plate (31) respectively, and a proportional valve (36) is provided between the nano-ionized water concentration regulating cup (35) and the transition water tank (32). The nano-ionized water concentration regulating cup (35) is used to regulate the concentration of nano-ionized water ionized by the negative electrode (312) of the electrolysis plate. The fan (38) is used to extract the accumulated hydrogen gas generated by the ionization of the sodium water concentration adjustment cup (35) from the device to prevent the large accumulation of hydrogen gas from causing an explosion hazard. The reverse osmosis pure water unit (1) also includes a tap water pipe (11) connected to it. The ionization-assisted reaction device (4) also includes a low-concentration water tank (41), a high-concentration water tank (42), a stirrer (411), a concentration detector (412), an additive (43), an overflow pipe (44), an inlet pipe (45), and an outlet pipe (46). A self-priming pump (33) is installed between the low-concentration water tank (41) and the high-concentration water tank (42). Each of the low-concentration water tank (41) and the high-concentration water tank (42) contains a stirrer (411) and a concentration detector (412). The stirrer (411) stirs the water tank to ensure that the concentration of the aqueous solution in the tank is uniform. The concentration detector (412) detects the concentration of the aqueous solution in the tank in real time. The positive electrode (311) of the electrolysis plate is connected to the low-concentration water tank (41) through the water inlet pipe (45) and the water outlet pipe (46). When the electrolysis reaction is in progress, the water inlet pipe (45) and the water outlet pipe (46) continuously circulate water, and the concentration of the aqueous solution in the low-concentration water tank (41) gradually increases. The concentration gradually decreases; in order to ensure the water concentration in the low-concentration water tank (41), a high-concentration water tank (42) is set up on one side of the low-concentration water tank (41). An additive (43) to increase the concentration of the aqueous solution can be added to the high-concentration water tank (42) by an artificial person. The self-priming pump (33) pumps the aqueous solution in the low-concentration water tank (41) into the high-concentration water tank (42). As a result, the water level in the high-concentration water tank (42) rises and flows automatically into the low-concentration water tank (41) through the overflow pipe (44), thereby adjusting the concentration of the aqueous solution in the low-concentration water tank (41).

2. The nano-ion water generator according to claim 1, characterized in that, The concentration of the aqueous solution in the low-concentration water tank (41) of the ionization auxiliary reaction device (4) is controlled at 7~9 mS / cm, and the concentration of the aqueous solution in the high-concentration water tank (42) is controlled at 70~90 mS / cm.

3. The nano-ion water generator according to claim 2, characterized in that, The nano-water storage tank (5) also includes an access outlet (51) connected thereto.

4. The operating method of the nano-ion water generator according to claim 3, characterized in that, Includes the following steps: Step 1: After purification treatment, tap water enters the transition water tank (32); S11: Tap water enters the reverse osmosis pure water unit (1) from the tap water pipe (11) for purification, and the prepared pure water is stored in the pure water storage tank (2); S12: Pure water is pumped from the pure water storage tank (2) into the transition water tank (32) via the water pump (6); Step 2: Ionize the main reaction device (3) Electrolyze sodium water; S21: The self-priming pump (33) pumps the pure water in the transition water tank (32) into the negative electrode of the electrolysis plate (312) and the sodium ionized water concentration adjustment cup (35), respectively; S22: Adjust the proportional valve (36) to determine the required concentration of the dissolved water; S23: Electrolysis plate (31) starts working; S24: The ionized hydrogen gas is discharged from the device through the hydrogen outlet (37) by the suction action of the fan (38); Step 3: Ionization-assisted reaction device (4) assists in completing the ionization reaction; Step 4: The electrolyzed nano-ionized water is stored in the nano-ionized water storage tank (5) and can be flexibly taken out from the access port (51); Steps 2 and 3 are performed simultaneously, and the workflow of steps 1 to 4 continues.

5. The operating method of the nano-ion water generator according to claim 4, characterized in that, The specific working process of the ionization-assisted reaction device (4) is as follows: Step 1: The stirrer (411) operates, the concentration detector (412) detects the concentration, and the display shows the reading; Step 2: The self-priming pump (33) pumps the aqueous solution that has been electrolyzed in the positive electrode (311) of the electrolysis plate into the low-concentration water tank (41) through the inlet pipe (45), and the self-priming pump (33) pumps the aqueous solution in the low-concentration water tank (41) into the positive electrode (311) of the electrolysis plate through the outlet pipe (46), thereby forming a cycle; Step 3: The self-priming pump (33) pumps the aqueous solution in the low-concentration water tank (41) into the high-concentration water tank (42). After the high-concentration water tank (42) reaches the high liquid level, it automatically flows into the low-concentration water tank (41) through the overflow pipe. Step 4: When the concentration of the aqueous solution in the high-concentration water tank (42) is lower than 70 mS / cm, the additive (43) is manually added to the high-concentration water tank (42) until the concentration of the aqueous solution in the high-concentration water tank (42) reaches 90 mS / cm; Step 5: When the concentration of the aqueous solution in the low-concentration water tank (41) is too high, the self-priming pump (33) reduces its self-priming speed; when the concentration of the aqueous solution in the low-concentration water tank (41) is too low, the self-priming pump (33) increases its self-priming speed; until the concentration is controlled at 8 mS / cm, the self-priming pump (33) resumes its original speed. Steps one through five are performed simultaneously, with dynamic adjustments made during the continuous cycle.

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