Hydroxide ion machine and multi-parameter control system thereof

Abstract

The invention discloses a hydroxide ion machine and a multi-parameter control system thereof, and relates to the technical field of air purification. Through cooperation of the hydrolysis assembly and the supply assembly, the device can conveniently electrolyze water to produce hydrogen anions and spray out the hydrogen anions, the capability of purifying the environment is achieved, then through cooperation of a filter tip and a filter screen, water in a water tank is conveniently filtered, and a clean reaction environment in a hydrolysis pool is guaranteed; the voltage and current data of the battery are analyzed through the analysis module, whether the battery resistance can be adjusted or not is judged, the energy consumption value of resistance adjustment and the energy consumption value of voltage adjustment are compared, finally, an adjustment signal is generated in a low-energy-consumption-value adjustment mode, the execution module is made to conduct operation, and the equipment energy consumption is reduced while the air purification requirement is met; and the heat generated in the operation process of the equipment is correspondingly reduced, and the aging speed of elements is slowed down due to the relatively low calorific value, so that the overall service life of the equipment is prolonged, and the maintenance and replacement frequency of the equipment is reduced.

Description

Technical Field

[0001] The present invention relates to the technical field of air purification, and in particular to a hydroxide ion machine and a multi-parameter control system thereof. Background Art

[0002] A hydrogen ionizer (hydrogen-oxygen mixed gas inhaler) is a medical device that generates hydrogen and oxygen through water electrolysis and then mixes them for patients to inhale. It has broad medical applications, particularly in respiratory diseases, chronic inflammation, antioxidant therapy, and rehabilitation therapy. Hydrogen's antioxidant, anti-inflammatory, oxygen-carrying and diffusion effects, as well as its oxygen-supplementing properties, give it broad application prospects in respiratory diseases, neurological disorders, metabolic diseases, and adjuvant tumor therapy. The safety and regulatory compliance of hydrogen ion machines are crucial for their medical application. With the advancement of hydrogen-oxygen medical research, hydrogen ion machines are expected to benefit even more patients.

[0003] However, the hydrolysis cell in the existing equipment draws water directly from the water tank. Impurities in the water will be deposited on the surface of the electrode, forming a film with poor conductivity, which hinders current conduction, reduces electrolysis efficiency, affects electrolysis stability, accelerates electrode corrosion, shortens electrode life, and increases maintenance costs.

[0004] Therefore, the present invention improves the existing equipment in view of the above problems. Summary of the Invention

[0005] The purpose of the present invention is to solve the shortcomings of the prior art and to propose a hydroxide ion machine and a multi-parameter control system thereof.

[0006] In order to achieve the above-mentioned purpose, the present invention adopts the following technical solution: a hydrogen and oxygen ion machine and its multi-parameter control system, including a base plate, the bottom surface of the base plate is fixedly connected to standing feet around, the top surface of the base plate is fixedly connected to the front of the side plate, the rear of the side plate is equipped with a water tank, the top surface of the side plate is fixedly connected to an equipment shell, a supply component is provided between the base plate and the side plate, a hydrolysis component is provided in the equipment shell, an equipment cover is fixedly installed on the top surface of the equipment shell, and an air outlet is provided on the equipment cover.

[0007] Preferably, the supply component includes a battery, which is installed and fixed at the front end of the top of the bottom plate. A radiator is provided in the middle of the front end of the battery. The side panel is provided with a heat dissipation strip to cooperate with the radiator. The battery is connected to the circuit board through a wire. The circuit board is installed and fixed at the front end of the device shell. A meter and a power switch are provided at the front end of the circuit board. The back of the circuit board is connected to the hydrolysis component.

[0008] Preferably, the supply assembly includes a water tank, which is slidably inserted between the bottom plate and the equipment shell. A water inlet is provided in the middle of the top surface of the water tank. The water tank is connected to a water pump through a pumping pipe, and the water pump is installed and fixed on the bottom surface of the hydrolysis tank.

[0009] Preferably, the hydrolysis component includes a hydrolysis tank, which is installed and fixed inside the equipment shell. A hydrolysis structure is provided inside the hydrolysis tank, and an exhaust fan is installed and fixed on the top surface of the hydrolysis tank.

[0010] Preferably, the hydrolysis structure includes an electrode plate, which is coaxially mounted and fixed in the middle of the hydrolysis tank. The electrode plate is connected to a circuit board via a wire, and an ion membrane is fixed between the hydrolysis tank and the exhaust fan.

[0011] Preferably, a plug board is vertically fixed to one side of the top surface of the bottom plate, a water pump is fixed on the plug board, a filter is sleeved in the water pump, a filter is provided in the filter, and the filter is screwed and connected to one side of the front end surface of the water tank.

[0012] Preferably, the multi-parameter control system of the hydrogen ion machine includes an acquisition module, an analysis module, an execution module and a wireless transmission module; The acquisition module detects the voltage and current data of the battery, detects the amount of hydroxide ions produced, and transmits the detection data to the analysis module and the wireless transmission module; The analysis module analyzes the battery voltage and current data to determine whether the battery resistance can be adjusted. If it is determined that the battery resistance can be adjusted, the relationship between the amount of hydroxide ions generated and the current is analyzed. Then, the energy consumption values of resistance adjustment and voltage adjustment are compared. The adjustment operation is determined to be the adjustment method with the lower energy consumption value, and an adjustment signal is generated and transmitted to the execution module. The execution module receives the adjustment signal transmitted by the analysis module and performs the adjustment operation; The wireless transmission module receives the data transmitted by the acquisition module and uploads it to the cloud server. When the user remotely checks the battery status, it displays the battery voltage, current and working status; when the user remotely checks the historical data of the amount of hydroxide ion generated, it displays the historical data, and when the user remotely sends an adjustment instruction through the APP, the adjustment instruction is passed to the execution module, and the execution module adjusts the resistance or voltage after receiving the instruction.

[0013] Preferably, the analysis module performs the following steps to determine the current regulation: S1: Obtain output voltage data of the battery and current data corresponding to the output voltage data, calculate resistance data of the battery based on the output voltage data and the current data corresponding to the output voltage data, average the calculated resistance data, and calculate the difference between the calculated resistance average and the resistance data again; S2: Record the calculated value obtained by the second difference calculation, and compare the absolute value of the recorded difference data with the preset difference data. If the absolute value is greater than the preset difference data, it is determined that the resistance data fluctuates greatly, and it is determined that the battery can adjust the output current by changing the resistance value without adjusting the output voltage.

[0014] Preferably, the analysis module performs the following steps to analyze the amount of hydroxide ion generated: K1: The amount of substance that undergoes chemical reaction on the electrode , is the amount of electricity passed, is the number of electrons transferred in the electrode reaction, is the Faraday constant; the amount of substance that produces hydroxide ions The amount of electricity passed The relationship is Current The amount of electricity passed The relationship is , then the amount of hydroxide ions With the current passing The relationship is ; K2: Detect the amount of hydroxide ions produced under the same current data and calculate the detected The mean of the hydroxide ion amount data and standard deviation , to calculate the mean and standard deviation The fluctuation range of the data of the amount of hydroxide ions is established. , the number of detected hydroxide ion amount data within the fluctuation range in the detected hydroxide ion amount data Conduct statistics; K3: If the preset ratio threshold If the detected hydroxide ion amount data is stable, the average of the detected hydroxide ion amount data within the fluctuation range is calculated, and the calculated average hydroxide ion amount is used as the hydroxide ion amount generated under the current data; otherwise, it is determined that the detected hydroxide ion amount data is abnormal, and it is decided to re-detect the hydroxide ion amount data.

[0015] Preferably, the analysis module performs the following steps to distinguish the adjustment mode: M1: voltage When the resistance is adjusted, the resistance values before and after adjustment are and , the energy consumption values before and after resistance adjustment are and , , , and The current data before and after adjustment are respectively. When the same current adjustment is achieved by adjusting the resistance, the energy consumption increment is ; M2: resistor When the voltage is adjusted unchanged, the resistance values before and after adjustment are and , energy consumption value before resistance adjustment , energy consumption value after resistance adjustment , when the same current regulation is achieved by adjusting the voltage, the energy consumption increment is ; M3: Compare the energy consumption values of the two adjustment methods. If , it is determined that when the same current regulation is achieved, the effect of adjusting the resistance consumes less energy, an adjustment signal is generated, and the adjustment signal is passed to the execution module; conversely, it is determined that when the same current regulation is achieved, the effect of adjusting the voltage consumes less energy, an adjustment signal is generated, and the adjustment signal is passed to the execution module.

[0016] Compared with the prior art, the present invention has the following beneficial effects: 1. The coordination of the hydrolysis component and the supply component facilitates the electrolysis of water to produce negative hydrogen ions and spray them out, thus achieving the ability to purify the environment. The coordination of the filter nozzle and the filter screen facilitates the filtration of the water in the water tank, ensuring a clean reaction environment in the hydrolysis tank. This ultimately solves the problem of severe impurity sedimentation in the hydrolysis tank of existing equipment. 2. The analysis module analyzes the voltage and current data of the battery to determine whether the battery resistance can be adjusted, and compares the energy consumption values of resistance adjustment and voltage adjustment. Finally, an adjustment signal is generated in an adjustment method with a low energy consumption value, allowing the execution module to operate. This intelligent adjustment method avoids the waste of electricity caused by users' arbitrary adjustment of the battery. While meeting the air purification needs, it reduces the energy consumption of the equipment; and the heat generated during the operation of the equipment is correspondingly reduced. The lower heat generation helps to slow down the aging of components, which not only extends the overall service life of the equipment and reduces the frequency of equipment maintenance and replacement, but also reduces the user's use cost and improves the reliability and stability of the equipment. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] The drawings described herein are used to provide a further understanding of the present invention and constitute a part of this application. The exemplary embodiments of the present invention and their descriptions are used to explain the present invention and do not constitute an improper limitation of the present invention. In the drawings: Figure 1 This is a three-dimensional schematic diagram of the appearance of the device proposed by the present invention; Figure 2 This is a schematic diagram of the supply assembly structure proposed by the present invention; Figure 3 This is a schematic diagram of the hydrolysis component structure proposed by the present invention; Figure 4 This is a three-dimensional schematic diagram of the appearance of the water tank proposed by the present invention; Figure 5 This is a three-dimensional schematic diagram of the appearance of the filter tip proposed by the present invention; Figure 6 This is a flow chart of the system proposed by the present invention.

[0018] Serial numbers in the figure: 1. Bottom plate; 2. Side panel; 3. Water tank; 4. Equipment shell; 5. Equipment cover; 6. Battery; 7. Circuit board; 8. Plug board; 9. Suction pipe; 10. Water pump; 11. Hydrolysis tank; 12. Exhaust fan; 13. Filter tip; 14. Filter net. DETAILED DESCRIPTION

[0019] The technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments.

[0020] Example: See Figure 1-6 The present invention provides a hydrogen and oxygen ion machine and its multi-parameter control system, comprising a bottom plate 1, wherein the bottom surface of the bottom plate 1 is fixed with standing feet around, a side plate 2 is fixedly connected to the front of the top surface of the bottom plate 1, a water tank 3 is provided at the rear of the side plate 2, a device shell 4 is fixedly connected to the top surface of the side plate 2, a supply component is provided between the bottom plate 1 and the side plate 2, a hydrolysis component is provided in the device shell 4, a device cover 5 is fixedly installed on the top surface of the device shell 4, an air outlet is provided on the device cover 5, and the modular component facilitates the maintenance and upgrading of the device; the supply component includes a battery 6, which is fixed to the front end of the top surface of the bottom plate 1, a radiator is provided in the middle of the front end surface of the battery 6, the side plate 2 is provided with a heat dissipation strip opening in cooperation with the radiator, the battery 6 is connected to the circuit board 7 through a wire, the circuit board 7 is fixed to the front end inside the device shell 4, and the front end of the circuit board 7 is provided with a metering The meter and power switch, the back of the circuit board 7 is connected to the hydrolysis component, the supply component includes a water tank 3, the water tank 3 is slidably inserted between the bottom plate 1 and the equipment shell 4, and a water inlet is provided in the middle of the top surface of the water tank 3. The water tank 3 is connected to the water pump 10 through the suction pipe 9, and the water pump 10 is installed and fixed on the bottom surface of the hydrolysis tank 11. The hydrolysis component includes a hydrolysis tank 11, which is installed and fixed inside the equipment shell 4. A hydrolysis structure is provided in the hydrolysis tank 11, and an exhaust fan 12 is installed and fixed on the top surface of the hydrolysis tank 11. The hydrolysis structure includes an electrode plate, which is coaxially installed and fixed in the middle of the inside of the hydrolysis tank 11. The electrode plate is connected to the circuit board 7 through a wire. An ion membrane is fixed between the hydrolysis tank 11 and the exhaust fan 12. Through the cooperation of the hydrolysis component and the supply component, the device can electrolyze water to produce negative hydrogen ions and spray them out.

[0021] In the present invention, in order to solve the problem of serious impurity sedimentation in the hydrolysis tank 11 of the existing equipment, the following technical solution is adopted: a plug-in board 8 is vertically fixed to one side of the top surface of the bottom plate 1, and a water pumping pipe 9 is fixedly installed on the plug-in board 8. A filter tip 13 is provided in the water pumping pipe 9, and a filter screen 14 is provided in the filter tip 13. The filter tip 13 is screwed and connected to one side of the front end surface of the water tank 3. The cooperation between the filter tip 13 and the filter screen 14 facilitates the filtration of water in the water tank 3.

[0022] The circuit board 7 is also provided with an acquisition module, an analysis module, an execution module and a wireless transmission module; The acquisition module detects the voltage and current data of the battery 6, detects the amount of hydroxide ions produced, and transmits the detection data to the analysis module and the wireless transmission module; The analysis module analyzes the voltage and current data of the battery 6 to determine whether the resistance of the battery 6 can be adjusted. If it is determined that the resistance of the battery 6 can be adjusted, the analysis module analyzes the relationship between the amount of hydroxide ions generated and the current, and then compares the energy consumption values of the resistance adjustment with the voltage adjustment value to determine whether the adjustment operation should be performed in the adjustment mode with the lower energy consumption value. The analysis module generates an adjustment signal and transmits it to the execution module. The execution module receives the adjustment signal transmitted by the analysis module and performs the adjustment operation; The wireless transmission module receives the data transmitted by the acquisition module and uploads it to the cloud server. When the user remotely checks the status of the battery 6, the voltage, current and working status of the battery 6 are displayed; when the user remotely checks the historical data of the amount of hydroxide ion generated, the historical data is displayed, and the user remotely sends an adjustment instruction through the APP, and the adjustment instruction is transmitted to the execution module. After the execution module receives the instruction, the resistance or voltage adjustment operation is performed; Obtaining output voltage data of the battery 6 and current data corresponding to the output voltage data, calculating resistance data of the battery 6 using the output voltage data and the current data corresponding to the output voltage data, performing an average calculation on the calculated resistance data, performing a difference calculation again between the calculated resistance average and the resistance data, recording a calculated value obtained by the repeated difference calculation, and comparing an absolute value of the recorded difference data with a preset difference data. If the absolute value is greater than the preset difference data, it is determined that the resistance data fluctuates significantly, and it is determined that the output current of the battery 6 can be adjusted by changing the resistance value when the output voltage is not adjusted; The amount of hydroxide ions produced by the hydroxide ion machine under different conditions is tested. During the electrolysis process, the amount of substance that undergoes chemical reaction on the electrode is proportional to the amount of electricity passed. , is the amount of electricity passed, is the number of electrons transferred in the electrode reaction, is the Faraday constant; in the process of water electrolysis to produce hydroxide ions, in the process of the cathode producing hydroxide ions, the number of transferred ions is 2, then the mass of hydroxide ions produced The amount of electricity passed The relationship is Current The definition of unit time is The amount of electricity passing through the conductor cross section is , then the amount of hydroxide ions With the current passing The relationship is , the amount of hydroxide ions produced and the current Directly proportional relationship; Under the same current data, the amount of hydroxide ions produced is detected and the detected The mean of the hydroxide ion amount data and standard deviation , to calculate the mean and standard deviation The fluctuation range of the data of the amount of hydroxide ions is established. , the number of detected hydroxide ion amount data within the fluctuation range in the detected hydroxide ion amount data Perform statistics, if the preset ratio threshold If the detected hydroxide ion amount data is stable, the average of the detected hydroxide ion amount data within the fluctuation range is calculated, and the calculated average hydroxide ion amount is used as the hydroxide ion amount generated under the current data; otherwise, it is determined that the detected hydroxide ion amount data is abnormal, and it is decided to re-detect the hydroxide ion amount data; When the amount of hydroxide ions produced needs to be adjusted, the output current can be increased by reducing the resistance or increasing the voltage to increase the amount of hydroxide ions produced. When the resistance is adjusted, the resistance values before and after adjustment are and , the energy consumption values before and after resistance adjustment are and , , , and The current data before and after adjustment are respectively. When the same current adjustment is achieved by adjusting the resistance, the energy consumption increment is ;resistance When the voltage is adjusted unchanged, the resistance values before and after adjustment are and , energy consumption value before resistance adjustment , energy consumption value after resistance adjustment , when the same current regulation is achieved by adjusting the voltage, the energy consumption increment is ; Compare the energy consumption values of the two adjustment methods. , it is determined that when achieving the same current regulation, the effect achieved by adjusting the resistance consumes less energy; conversely, it is determined that when achieving the same current regulation, the effect achieved by adjusting the voltage consumes less energy.

[0023] Working principle: When the user returns home from outside, he can remotely observe the air quality at home through the APP. When the air quality is found to be low, a command can be remotely sent to the hydrogen ion machine to perform air purification operations. The analysis module calculates the required amount of negative ions according to the preset indoor space size and propagation speed, and records the negative ion amount data. Water is poured into the water inlet on the water tank 3, and then the water tank 3 is reinserted into the device. At this time, the filter 13 is aligned with the water pipe 9 on the plug board 8, and the acquisition module on the circuit board 7 starts working, obtaining the output voltage data and corresponding current data of the battery 6 in real time, and calculating the resistance data of the battery 6; at the same time, the amount of hydrogen ions generated is detected, and the detected data is transmitted to the analysis module for processing, and uploaded to the cloud server through the wireless transmission module; the analysis module receives the data from the acquisition module and analyzes the voltage and current data of the battery 6; by calculating the mean and difference of the resistance data and comparing them with the preset difference, it is determined whether the resistance of the battery 6 can be adjusted. If it can be adjusted, further analysis The relationship between the amount of hydroxide ion production and the current, compares the energy consumption values of resistance adjustment and voltage adjustment, and generates a signal for adjustment in a low energy consumption adjustment mode based on the energy consumption comparison result, and transmits it to the execution module; the execution module receives the adjustment signal from the analysis module, and if it is determined that the energy consumption of adjusting the resistance is lower, the resistance adjustment operation is executed; if the energy consumption of adjusting the voltage is lower, the voltage adjustment operation is executed, and the water in the water tank 3 is pumped into the hydrolysis tank 11 by the circuit board 7. Then, the electrode plates in the hydrolysis tank 11 are controlled by the circuit board 7 to electrolyze the water to form hydrogen ions, and then other ions are filtered out through the ion membrane, and finally discharged from the exhaust hole on the equipment cover 5 through the exhaust fan 12. Since hydrogen ions are negatively charged ions, they will absorb and capture harmful substances such as dust in the air, thereby purifying the air. During the water pumping period of the water pump 10, the filter 14 will filter out most of the solid impurities, thereby effectively avoiding solid deposition in the hydrolysis tank 11 and affecting the hydrolysis quality. When adding water to the water tank 3, the filter 13 can also be removed to clean the filter 14 to ensure the filtration quality.

[0024] The above description is only a preferred specific embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any technician familiar with the technical field, within the technical scope disclosed by the present invention, who makes equivalent replacements or changes based on the technical solution and inventive concept of the present invention, should be covered by the scope of protection of the present invention.

Claims

1. A hydroxide ion machine, comprising a bottom plate (1), characterized in that: The bottom surface of the bottom plate (1) is fixed with standing feet around it, the top surface of the bottom plate (1) is fixed with a side plate (2) in front of it, the rear of the side plate (2) is provided with a water tank (3), the top surface of the side plate (2) is fixed with an equipment shell (4), a supply component is provided between the bottom plate (1) and the side plate (2), a hydrolysis component is provided in the equipment shell (4), and an equipment cover (5) is fixedly installed on the top surface of the equipment shell (4), and an air outlet is provided on the equipment cover (5).

2. A hydroxide ion generator according to claim 1, characterized in that: The supply assembly includes a battery (6), the battery (6) is mounted and fixed on the front end of the top of the bottom plate (1), a radiator is provided in the middle of the front end of the battery (6), the side plate (2) is provided with a heat dissipation strip opening in conjunction with the radiator, the battery (6) is connected to a circuit board (7) via a wire, the circuit board (7) is mounted and fixed on the front end of the inside of the device shell (4), a meter and a power switch are provided on the front end of the circuit board (7), and the back of the circuit board (7) is connected to the hydrolysis assembly.

3. A hydroxide ion generator according to claim 2, characterized in that: The supply assembly comprises a water tank (3), the water tank (3) being slidably inserted between the bottom plate (1) and the equipment shell (4), a water inlet being provided in the middle of the top surface of the water tank (3), the water tank (3) being connected to a water pump (10) via a water pumping pipe (9), and the water pump (10) being mounted and fixed on the bottom surface of the hydrolysis tank (11).

4. A hydroxide ion generator according to claim 1, characterized in that: The hydrolysis assembly comprises a hydrolysis tank (11), which is fixedly installed inside the equipment shell (4). A hydrolysis structure is provided inside the hydrolysis tank (11), and an exhaust fan (12) is fixedly installed on the top surface of the hydrolysis tank (11).

5. A hydroxide ion generator according to claim 4, characterized in that: The hydrolysis structure comprises an electrode plate, which is coaxially mounted and fixed in the middle of the hydrolysis tank (11). The electrode plate is connected to the circuit board (7) via a wire, and an ion membrane is fixed between the hydrolysis tank (11) and the exhaust fan (12).

6. A hydroxide ion generator according to claim 1, characterized in that: A plug-in plate (8) is vertically fixedly connected to one side of the top surface of the bottom plate (1), a water pumping pipe (9) is fixedly mounted on the plug-in plate (8), a filter tip (13) is sleeved inside the water pumping pipe (9), a filter screen (14) is provided inside the filter tip (13), and the filter tip (13) is screwed and connected to one side of the front end surface of the water tank (3).

7. A multi-parameter control system for a hydroxide ion generator according to any one of claims 1 to 6, characterized in that: The multi-parameter control system of the hydrogen and oxygen ion machine includes an acquisition module, an analysis module, an execution module and a wireless transmission module; An acquisition module detects the voltage and current data of the battery (6), detects the amount of hydroxide ions produced, and transmits the detection data to the analysis module and the wireless transmission module; An analysis module analyzes the voltage and current data of the battery (6) to determine whether the resistance of the battery (6) can be adjusted; If it is determined that adjustment is possible, the relationship between the amount of hydroxide ions generated and the current is analyzed, and then the energy consumption values of resistance adjustment and voltage adjustment are compared. It is determined that the adjustment operation should be performed in the adjustment mode with the lower energy consumption value, and an adjustment signal is generated and transmitted to the execution module; The execution module receives the adjustment signal transmitted by the analysis module and performs the adjustment operation; The wireless transmission module receives the data transmitted by the acquisition module and uploads it to the cloud server. When the user remotely checks the status of the battery (6), the voltage, current and working status of the battery (6) are displayed; when the user remotely checks the historical data of the amount of hydroxide ion production, the historical data are displayed, and the user remotely sends an adjustment instruction through the APP, and transmits the adjustment instruction to the execution module. After the execution module receives the instruction, the resistance or voltage adjustment operation is performed.

8. The multi-parameter control system of the hydroxide ion machine according to claim 7, characterized in that: The analysis module performs the following steps to determine the current regulation: S1: Obtain output voltage data of the battery (6) and current data corresponding to the output voltage data, calculate resistance data of the battery (6) using the output voltage data and the current data corresponding to the output voltage data, calculate the average of the calculated resistance data, and calculate the difference between the calculated resistance average and the resistance data again; S2: Record the calculated value obtained by the difference calculation again, and compare the absolute value of the recorded difference data with the preset difference data. If the absolute value is greater than the preset difference data, it is determined that the resistance data fluctuates greatly, and it is determined that the battery (6) can adjust the output current by changing the resistance value when the output voltage is not adjusted.

9. The multi-parameter control system of the hydroxide ion machine according to claim 8, characterized in that: The analysis module performs the following steps to analyze the amount of hydroxide ion generated: K1: The amount of substance that undergoes chemical reaction on the electrode , is the amount of electricity passed, is the number of electrons transferred in the electrode reaction, is the Faraday constant; the amount of substance that produces hydroxide ions The amount of electricity passed The relationship is Current The amount of electricity passed The relationship is , then the amount of hydroxide ions With the current passing The relationship is ; K2: Detect the amount of hydroxide ions produced under the same current data and calculate the detected The mean of the hydroxide ion amount data and standard deviation , to calculate the mean and standard deviation The fluctuation range of the data of the amount of hydroxide ions is established. , the number of detected hydroxide ion amount data within the fluctuation range in the detected hydroxide ion amount data Conduct statistics; K3: If the preset ratio threshold , it is determined that the detected hydroxide ion amount data is stable, and the average of the detected hydroxide ion amount data within the fluctuation range is calculated, and the calculated average hydroxide ion amount is used as the hydroxide ion amount generated under the current data; Otherwise, it is determined that the detected hydroxide ion amount data is abnormal, and it is determined that the hydroxide ion amount data should be re-detected.

10. The multi-parameter control system of the hydroxide ion machine according to claim 9, characterized in that: The analysis module determines the adjustment method in the following steps: M1: voltage When the resistance is adjusted, the resistance values before and after adjustment are and , the energy consumption values before and after resistance adjustment are and , , , and The current data before and after adjustment are respectively. When the same current adjustment is achieved by adjusting the resistance, the energy consumption increment is ; M2: resistor When the voltage is adjusted unchanged, the resistance values before and after adjustment are and , energy consumption value before resistance adjustment , energy consumption value after resistance adjustment , when the same current regulation is achieved by adjusting the voltage, the energy consumption increment is ; M3: Compare the energy consumption values of the two adjustment methods. If , it is determined that when achieving the same current regulation, the effect achieved by regulating the resistance consumes less energy, an adjustment signal is generated, and the adjustment signal is transmitted to the execution module; On the contrary, it is determined that when the same current regulation is achieved, the effect of regulating the voltage consumes less energy, an adjustment signal is generated, and the adjustment signal is transmitted to the execution module.

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