An automatic water quality regulating system

Abstract

The utility model provides a kind of water quality automatic regulating system, including a water quality detector, a control panel and a generator;The salinity probe and ORP probe on water quality detector can detect the salinity and ORP value of water body in real time, and then the detection data is wirelessly transmitted to the control panel by wireless transmission device, and the water quality can be obtained in real time according to the detection data, so as to control the efficiency of the generator producing chlorine or sodium hypochlorite, realize the full-automatic control of water quality detection and adjustment, and continuous monitoring and adjustment of water quality can be realized without manual intervention, so as to significantly improve the detection efficiency and adjustment efficiency of water quality, and ensure the stability of water quality and the safety of user use.In addition, the water quality detector has simple structure and is powered by power supply battery, which is conducive to improving production efficiency and reducing production cost.

Description

Technical Field

[0001] This utility model relates to the field of bathtub water quality adjustment technology, and in particular to an automatic water quality adjustment system. Background Technology

[0002] In water use scenarios such as swimming pools and bathtubs, the quality of water directly affects user experience and health and safety, so it is necessary to monitor and regulate water quality.

[0003] Traditional operating methods that rely on manual water sampling and testing, and manual activation of chemical dosing devices, are significantly lagging. Water quality parameters may change dynamically during user operation, and exceeding safe limits requires rapid response. Manual intervention cannot meet the timeliness requirements and poses health and safety hazards. At the same time, the precision of manually activating chemical dosing devices is poor, easily leading to overdosing or underdosing. The former results in resource waste and secondary pollution, while the latter fails to effectively inhibit pathogenic microorganisms.

[0004] Therefore, achieving real-time, continuous monitoring and precise, rapid adaptive adjustment of water quality parameters is crucial and is an essential requirement for ensuring stable, safe, and economical water quality operation. It is necessary to provide an automatic water quality adjustment system to meet this need. Utility Model Content

[0005] Based on the existing technology's need for automatic detection and regulation of water quality in swimming pools, bathtubs, and other water bodies, this utility model provides an automatic water quality regulation system.

[0006] An automatic water quality adjustment system includes a water quality detector, a control panel, and a generator for electrolyzing sodium hypochlorite or chlorine gas. The water quality detector includes a device body and a sealing cover, with one end of the device body open and a mounting cavity communicating with the opening formed within the device body. The sealing cover is detachably fitted onto the opening. The mounting cavity includes an upper cavity and a lower cavity disposed away from the opening; the upper cavity and the lower cavity communicate with each other. A power supply battery and a wireless transmission device electrically connected to the power supply battery are fixedly installed in the upper cavity. A salinity probe for detecting the salinity of the water and an O2 probe for detecting the salinity of the water are provided in the lower cavity. An ORP probe with a salinity value; the connection end of the ORP probe extends into the upper cavity, and both the connection ends of the ORP probe and the salinity probe are electrically connected to the wireless transmission device; the test ends of the ORP probe and the salinity probe penetrate the lower cavity and extend to the outside; the wireless transmission device is wirelessly connected to the control panel; the power supply battery is electrically connected to the wireless transmission device; the wireless transmission device is used to acquire the detection data of the salinity probe and the ORP probe and wirelessly transmit it to the control panel; the control panel is electrically connected to the generator; the control panel is used to adjust the electrolysis efficiency of the generator according to the detection data.

[0007] Furthermore, the control panel is equipped with several indicator lights for indicating the working status of the generator and several on / off buttons.

[0008] Furthermore, the generator includes a base, an electrode insert, and a cover. The base has a first receiving cavity. The electrode insert includes an insert body and a plurality of electrode plates mounted on the insert body. The insert body is detachably mounted in the first receiving cavity. The cover is fixedly mounted on the insert body, and the electrode plates communicate with the outside through through holes in the cover body. An MCU controller is provided inside the insert body. The electrode plates are electrically connected to the control panel through the MCU controller, and the control panel is electrically connected to an external power supply. The MCU controller is used to control the current on the electrode plates according to the detection data received by the control panel, thereby controlling the electrolysis efficiency of the generator.

[0009] Furthermore, the plug-in body also includes a wireless power receiving device, which is electrically connected to the electrode plate via the MCU controller; a second receiving cavity extends from the side of the base opposite to the first receiving cavity, and a wireless power transmitting device corresponding to the wireless power receiving device is provided in the second receiving cavity, which is electrically connected to the control panel; the control panel is used to generate a corresponding wireless transmission signal based on the detection data, and then transmit it to the wireless power receiving device via the wireless power transmitting device; the wireless power receiving device is used to receive the wireless transmission signal and generate electrical energy output to power the electrode plate; the MCU controller is used to control the current on the electrode plate according to the wireless transmission signal.

[0010] Furthermore, the outer side of the opening of the device body is provided with a first external thread, and the inner side of the sealing cover is provided with a first internal thread that matches the first external thread. The sealing cover is placed on the opening and is threadedly connected to the device body through the first internal thread and the first external thread. A first silicone sealing ring is embedded and fixed on the outer periphery of the device body. The first silicone sealing ring is located below the first external thread. When the sealing cover is threadedly connected to the device body, the inner and outer rings of the first silicone sealing ring abut against the outer periphery of the device body and the inner side of the sealing cover, respectively.

[0011] Furthermore, the generator includes a turbulence channel, which includes a first channel that passes through the base and a second channel that passes through the plug body, and the first channel and the second channel are connected.

[0012] Furthermore, a mounting base is installed on the top of the upper cavity, and the power supply battery is installed on the side of the mounting base near the opening, and the power supply battery is covered with an embellishment cover.

[0013] Furthermore, a partition is provided in the lower cavity along the direction of the test end of the ORP probe, the partition dividing the lower cavity into a first cavity and a second cavity, the ORP probe being housed in the first cavity and the salinity probe being housed in the second cavity.

[0014] Furthermore, the ORP probe is fitted with an O-ring seal, which is located below the connection end of the ORP probe and abuts against the inner wall of the first cavity; the test end of the ORP probe is fitted with a second silicone seal, which is located at the bottom of the first cavity and abuts against the inner wall of the first cavity; the salinity probe is fitted with a silicone sealing sleeve, which is located at the bottom of the second cavity and abuts against the inner wall of the second cavity.

[0015] Furthermore, the outer periphery of the connecting end of the ORP probe is provided with a second external thread, and the inner wall of the first cavity is provided with a second internal thread that matches the second external thread. The ORP probe is threadedly connected to the first cavity through the second external thread and the second internal thread.

[0016] The beneficial effects of this utility model are as follows: This utility model provides an automatic water quality adjustment system, including a water quality detector, a control panel, and a generator. The salinity and ORP values ​​of the water body can be detected in real time via a salinity probe and an ORP probe on the water quality detector. The detection data is then wirelessly transmitted to the control panel via a wireless transmission device. The control panel can then obtain the water quality in real time based on the detection data, thereby controlling the efficiency of the generator in producing chlorine or sodium hypochlorite. This achieves fully automated control of water quality detection and adjustment, allowing for continuous monitoring and adjustment of water quality without manual intervention. This significantly improves the efficiency of water quality detection and adjustment, ensuring water quality stability and user safety. Furthermore, the water quality detector has a simple structure and is powered by a battery, which helps improve production efficiency and reduce production costs. Attached Figure Description

[0017] Figure 1 A schematic diagram of the overall structure of an automatic water quality adjustment system provided by this utility model;

[0018] Figure 2 A schematic diagram of the principle of an automatic water quality adjustment system provided by this utility model;

[0019] Figure 3 A schematic diagram of the overall structure of a water quality detector provided by this utility model;

[0020] Figure 4 A schematic diagram of the cross-sectional structure of a water quality detector provided by this utility model;

[0021] Figure 5 A simplified schematic diagram of the exploded structure of a water quality detector provided by this utility model;

[0022] Figure 6 A simplified cross-sectional schematic diagram of the generator provided by this utility model;

[0023] Figure 7 A simplified schematic diagram of the explosion structure of the generator provided by this utility model.

[0024] Attached Figure

[0025] Water quality detector; 11. Device body; 101. First external thread; 102. First silicone sealing ring; 103. Upper cavity; 104. Lower cavity; 1041. First cavity; 1042. Second cavity; 105. O-ring; 106. Second silicone sealing ring; 107. Silicone sealing sleeve; 12. Sealing cover; 13. Wireless transmission device; 14. Power supply battery; 15. Salinity probe; 16. ORP probe; 161. Second external thread; 17. Mounting base; 171. 18. Cover; 19. Partition; 10. Fixing component; 111. Fixing clip; 112. Connector; 2. Control panel; 21. Indicator light; 22. On / off button; 3. Generator; 31. Base; 311. First receiving cavity; 312. Second receiving cavity; 32. Cover body; 33. Insert body; 34. Electrode plate; 35. MCU controller; 36. Wireless power receiving device; 37. Wireless power transmitting device; 38. Turbulence channel; 381. First channel; 382. Second channel. Detailed Implementation

[0026] To provide a more detailed description of this utility model, the following description is provided in conjunction with the accompanying drawings. It should be noted that the embodiments described below are merely some, not all, of the embodiments of this utility model. All other embodiments obtained by those skilled in the art based on the embodiments of this utility model without inventive effort are within the scope of protection of this utility model.

[0027] refer to Figure 1 and Figure 2 As shown, an automatic water quality adjustment system includes a water quality detector 1, a control panel 2, and a generator 3.

[0028] Specifically, the water quality detector 1 includes a device body 11 and a sealing cover 12, and the device body 11 has an opening at one end, and an installation cavity communicating with the opening is formed inside the device body 11; the sealing cover 12 is used to detachably cover the opening.

[0029] Specifically, refer to Figure 3 , Figure 4 and Figure 5 As shown, the outer side of the opening of the device body 11 is provided with a first external thread 101, and the inner side of the sealing cover 12 is provided with a first internal thread that matches the first external thread 101. The sealing cover 12 is placed on the opening and is threadedly connected to the device body 11 through the first internal thread and the first external thread 101.

[0030] The sealing cover 12 is connected to the device body 11 by a thread, which allows the sealing cover 12 to be disassembled and assembled, and the inside of the device body 11 can be inspected by opening the sealing cover 12.

[0031] A first silicone sealing ring 102 is embedded and fixed on the outer periphery of the device body 11. The first silicone sealing ring 102 is located below the first external thread 101. When the sealing cover 12 is threadedly connected to the device body 11, the inner ring and outer ring of the first silicone sealing ring 102 abut against the outer periphery of the device body 11 and the inner side of the sealing cover 12, respectively.

[0032] By providing the first silicone sealing ring 102, after the sealing cover 12 is threadedly connected to the device body 11, the first silicone sealing ring 102 will seal the connection gap between the sealing cover 12 and the device body 11, thereby providing waterproof protection for the internal components of the device body 11. Alternatively, the first silicone sealing ring 102 can be provided on the inner top surface of the sealing cover 12, which will also seal the connection gap between the sealing cover 12 and the device body 11 after the threaded connection.

[0033] The mounting cavity includes an upper cavity 103 and a lower cavity 104 disposed away from the opening; the upper cavity 103 and the lower cavity 104 are connected; a wireless transmission device 13 and a power supply battery 14 are fixedly installed in the upper cavity 103; the wireless transmission device 13 is electrically connected to the power supply battery 14; a salinity probe 15 for detecting the salinity of water and an ORP probe 16 for detecting the ORP value of water are provided in the lower cavity 104; the connection end of the ORP probe 16 extends into the upper cavity 103, and the connection ends of the ORP probe 16 and the salinity probe 15 are respectively electrically connected to the wireless transmission device 13; the test ends of the ORP probe 16 and the salinity probe 15 both penetrate the lower cavity 104 and extend to the outside; the wireless transmission device 13 is used to acquire the detection data of the salinity probe 15 and the ORP probe 16 and wirelessly transmit them to the control panel 2. In this embodiment, the power supply battery 14 is a lithium battery, and a charging port can be provided on the top of the device body 11 to charge the lithium battery.

[0034] Salinity is the total amount of dissolved salts in water. Excessive salinity reduces water solubility, leading to impurity deposition and equipment corrosion, while insufficient salinity affects disinfection effectiveness. ORP (oxidation-reduction potential) reflects the oxidizing capacity of water, ensuring that disinfectants such as chlorine effectively kill bacteria and preventing bacterial growth at low ORP levels. Therefore, by acquiring salinity and ORP values ​​from salinity probe 15 and ORP probe 16 respectively, water quality can be effectively assessed. Both salinity probe 15 and ORP probe 16 are existing equipment names, and their operating principles will not be elaborated upon here.

[0035] The device body 11 is immersed in the water body to be tested. The test ends of the salinity probe 15 and the ORP probe 16 are in direct contact with the water body to detect the salinity and redox potential of the water body, respectively. These are then converted into electrical signals and sent to the wireless transmission device 13. The wireless transmission device 13 processes the electrical signals from the two probes and transmits them wirelessly to the control panel 2. The wireless receiver module in the control panel 2 receives the signals and performs further processing. The lithium battery serves as the energy source, converting chemical energy into electrical energy through circuitry to power the wireless transmission device 13 and other circuits.

[0036] The upper cavity 103 has a mounting base 17 on its top. The power supply battery 14 is mounted on the mounting base 17 near the opening, and a cover 171 is fitted over the power supply battery 14. The cover 171 conceals the complex wiring within the upper cavity 103 and, by mounting the power supply battery 14 on the mounting base 17, prevents the battery from compressing the wiring, reducing the risk of physical damage. In practical use, the cover 171 has several wire-passing holes, allowing the wiring to be electrically connected to the power supply battery 14.

[0037] A partition 18 is provided inside the lower cavity 104 along the direction extending from the test end of the ORP probe 16. The partition 18 divides the lower cavity 104 into a first cavity 1041 and a second cavity 1042. The ORP probe 16 is housed in the first cavity 1041, and the salinity probe 15 is housed in the second cavity 1042. The isolation design of the partition 18 physically isolates the working areas of the salinity probe 15 and the ORP probe 16, providing them with independent measurement environments. This helps to avoid mutual interference between the two during detection, thereby improving the accuracy and reliability of the data.

[0038] The ORP probe 16 has a second external thread 161 on the outer periphery of the connecting end, and the inner wall of the first cavity 1041 is provided with a second internal thread that matches the second external thread 161. The ORP probe 16 is threadedly connected to the first cavity 1041 through the second external thread 161 and the second internal thread.

[0039] By setting the second internal thread on the first cavity 1041, the ORP probe 16 is threadedly connected to the first cavity 1041 through the second external thread 161 of its connecting end, and thus fixedly installed inside the first cavity 1041.

[0040] The ORP probe 16 is fitted with an O-ring 105. The O-ring 105 is located below the connection end of the ORP probe 16 and is in close contact with the inner wall of the first cavity 1041, thereby sealing the gap between the first cavity 1041 and the upper cavity 103 and isolating the first cavity 1041 from the upper cavity 103.

[0041] The ORP probe 16 is fitted with a second silicone sealing ring 106 at the test end. The second silicone sealing ring 106 is located at the bottom of the first cavity 1041 and is in close contact with the inner wall of the first cavity 1041. This seals the gap between the first cavity 1041 and the outside, preventing external moisture from entering through the gap between the first cavity 1041 and the test end of the ORP probe 16 during testing, thus providing waterproof protection for the ORP probe 16 inside the first cavity 1041.

[0042] The salinity probe 15 is covered with a silicone sealing sleeve 107, which is located at the bottom of the second cavity 1042 and in close contact with the inner wall of the second cavity 1042. This seals the gap between the second cavity 1042 and the outside, preventing external moisture from entering through the gap between the second cavity 1042 and the test end of the salinity probe 15 during testing, thus providing waterproof protection for the salinity probe 15 inside the second cavity 1042.

[0043] The device body 11 is provided with a fixing member 19, which is used to install the device body 11 in a preset position. The fixing member 19 includes at least one fixing clip 191 sleeved on the device body 11, and the fixing clip 191 is provided with a connector 192 for fixed installation with the preset position.

[0044] By installing the connector 192 at a preset position, such as the wall of a pool, the end of the device body 11 away from the opening is immersed in the water, thereby achieving the installation and fixation of the device body 11 during testing.

[0045] In some embodiments, a temperature probe for detecting water temperature is also provided in the lower cavity 104. The connection end of the temperature probe is electrically connected to the wireless transmission device 13, and the test end of the temperature probe passes through the lower cavity 104 and extends to the outside.

[0046] Temperature changes alter the rate and equilibrium of chemical reactions in aqueous solutions. Generally, as temperature increases, the rate of redox reactions accelerates, causing ORP measurements to drift. In practical applications, a temperature probe can measure water temperature in real time to obtain the current water temperature. Simultaneously, the measured temperature value can automatically correct and compensate for the original ORP probe 16 reading, ultimately yielding a more accurate water ORP value.

[0047] refer to Figure 1 , Figure 2 As shown, the control panel 2 is electrically connected to the generator 3; the control panel 2 is used to adjust the efficiency of the generator 3 in producing chlorine gas according to the detection data of the ORP probe 16 and the salinity probe 15.

[0048] Among them, reference Figure 6 and Figure 7 As shown, the generator 3 includes a base 31, an electrode insert, and a cover 32. The base 31 has a first receiving cavity 311. The electrode insert includes an insert body 33 and a plurality of electrode plates 34 mounted on the insert body 33. The insert body 33 is detachably installed in the first receiving cavity 311. The cover 32 is fixedly installed on the insert body 33, and the electrode plates 34 are connected to the outside through through holes in the cover 32. An MCU controller 35 is provided inside the insert body 33. The electrode plates 34 are electrically connected to the control panel 2 through the MCU controller 35, and the control panel 2 is electrically connected to an external power supply. The MCU controller 35 is used to control the current on the electrode plates 34 according to the control signal generated by the control panel 2 based on the measurement data received from the control panel 2, thereby controlling the electrolysis efficiency of the generator 3.

[0049] Control panel 2 calculates the required amount of chlorine or sodium hypochlorite based on detection data and a preset algorithm, and then dynamically adjusts the current intensity of the electrode plates via the MCU controller. A higher current results in a faster electrolysis reaction rate and a higher yield of chlorine or sodium hypochlorite, thus increasing electrolysis efficiency. Control panel 2 receives detection data and outputs corresponding control signals to the MCU controller 35. The MCU controller 35 acts as a current regulation center, adjusting the current output to the electrode plates 34 according to the control signals, thereby changing the efficiency of chlorine or sodium hypochlorite production by the electrode plates 34. The efficiency of chlorine or sodium hypochlorite production is controlled according to different salinity and ORP values, ensuring stable salinity and ORP values ​​in the water body and maintaining long-term stable water quality.

[0050] Specifically, the plug-in body 33 is also provided with a wireless power receiving device 36, and the wireless power receiving device 36 is electrically connected to the electrode plate 34 through the MCU controller 35; the base 31 extends a second receiving cavity 312 on the side opposite to the first receiving cavity 311, and the second receiving cavity 312 is provided with a wireless power transmitting device 37 corresponding to the wireless power receiving device 36, and the wireless power transmitting device 37 is electrically connected to the control panel 2;

[0051] The control panel 2 is used to generate a corresponding wireless power transmission signal based on the detection data, and then transmit it to the wireless power receiving device 36 via the wireless power transmitting device 37; the wireless power receiving device 36 is used to receive the wireless power transmission signal and generate power output to power the electrode plate 34; the MCU controller 35 is used to control the current on the electrode plate 34 according to the wireless power transmission signal.

[0052] For example, after receiving the detection data, the control panel 2 generates a control signal for the electrolysis efficiency of the generator 3. This control signal and the corresponding high-frequency signal are then modulated to generate a wireless transmission signal, which is output through the wireless power transmitter 37. The wireless power receiver 36 receives the wireless transmission signal and generates a fixed-frequency electromagnetic field and a signal electromagnetic field. The wireless power receiver 36 utilizes near-field transmission characteristics to receive the fixed-frequency electromagnetic field and convert it into electrical energy, which powers the electrode plate 34. Simultaneously, the wireless power receiver 36 also utilizes near-field transmission characteristics to receive the fixed-frequency signal electromagnetic field and convert it into signal electrical energy, which is output to the MCU controller 35. Finally, the MCU controller 35 extracts the control signal contained in the wireless transmission signal carried in the signal electrical energy through its built-in detection circuit, and then controls the current on the electrode plate 34 accordingly, thereby controlling the electrolysis efficiency of the generator 3.

[0053] The wireless power transmitting device 37 includes a transmitting coil, and the wireless power receiving device 36 includes a receiving coil. The transmitting coil and the receiving coil can transmit wireless power through electromagnetic coupling resonance.

[0054] The generator 3 also includes a turbulence channel 38, which includes a channel 381 that passes through the base 31 and a second channel 382 that passes through the plug body 33, and the channel 381 and the second channel 382 are connected.

[0055] The turbulence channel 38 uses an external water source as a turbulence source to flow into the working space where the electrode plate 34 is located, dispersing the sodium hypochlorite or chlorine gas generated by electrolysis in the working space of the electrode plate 34, so that the sodium hypochlorite or chlorine gas diffuses to the outside of the generator 3, thereby achieving a better disinfection effect. At the same time, it can also prevent the generator 3 from being corroded due to excessively high local concentrations of sodium hypochlorite or chlorine gas.

[0056] In some embodiments, the control panel 2 is provided with a plurality of indicator lights 21, which are used to indicate the working status of the generator for easy viewing by the user. The control panel 2 is also provided with an on / off button 22 for turning the control panel 2 on and off.

[0057] This invention provides an automatic water quality regulation system. Through the salinity probe 15 and ORP probe 16 on the water quality detector 1, the salinity and ORP values ​​of the water body can be detected in real time. The detection data is then wirelessly transmitted to the control panel 2 via a wireless transmission device. The control panel 2 can then obtain the water quality in real time based on the detection data, thereby controlling the efficiency of the regulating generator 3 in producing sodium hypochlorite or chlorine gas. This achieves fully automated control of water quality detection and regulation, allowing for continuous monitoring and regulation of water quality without manual intervention. This significantly improves the efficiency of water quality detection and regulation, ensuring water quality stability and user safety. Furthermore, the water quality detector 1 has a simple structure and is powered by a battery, which helps improve production efficiency and reduce production costs.

[0058] The preferred embodiments of this utility model disclosed above are merely illustrative of the present utility model and do not limit the utility model to the specific implementations described. Obviously, other modifications and variations can be made based on the content of this specification. The embodiments selected and specifically described in this specification are intended to better explain the principles and practical applications of this utility model, thereby enabling those skilled in the art to better understand and utilize it. They are not intended to limit the utility model, and any simple modifications to this utility model fall within the protection scope of this utility model.

Claims

1. An automatic water quality regulation system, characterized in that, It includes a water quality detector, a control panel, and a generator for electrolysis to produce sodium hypochlorite or chlorine gas; The water quality detector includes a device body and a sealing cover, wherein one end of the device body is open and a mounting cavity communicating with the opening is formed inside the device body; the sealing cover is used to detachably cover the opening. The mounting cavity includes an upper cavity and a lower cavity disposed away from the opening; the upper cavity is in communication with the lower cavity; a power supply battery and a wireless transmission device electrically connected to the power supply battery are fixedly installed in the upper cavity; a salinity probe for detecting the salinity of water and an ORP probe for detecting the ORP value of water are provided in the lower cavity; the connection end of the ORP probe extends into the upper cavity, and the connection ends of the ORP probe and the salinity probe are respectively electrically connected to the wireless transmission device; the test ends of the ORP probe and the salinity probe both penetrate the lower cavity and extend to the outside. The wireless transmission device is wirelessly connected to the control panel; the power supply battery is electrically connected to the wireless transmission device; the wireless transmission device is used to acquire the detection data of the salinity probe and the ORP probe and wirelessly transmit them to the control panel. The control panel is electrically connected to the generator; the control panel is used to adjust the efficiency of the generator's electrolysis based on the detection data.

2. The automatic water quality adjustment system according to claim 1, characterized in that, The control panel is equipped with several indicator lights to indicate the working status of the generator and several on / off buttons.

3. The automatic water quality adjustment system according to claim 1, characterized in that, The generator includes a base, an electrode insert, and a cover. The base has a first receiving cavity. The electrode insert includes an insert body and several electrode plates mounted on the insert body. The insert body is detachably mounted in the first receiving cavity. The cover is fixedly mounted on the insert body, and the electrode plates communicate with the outside through through holes in the cover body. An MCU controller is provided inside the insert body. The electrode plates are electrically connected to the control panel through the MCU controller, and the control panel is electrically connected to an external power supply. The MCU controller is used to control the current on the electrode plates according to the detection data received by the control panel, thereby controlling the electrolysis efficiency of the generator.

4. The automatic water quality adjustment system according to claim 3, characterized in that, The plug body is also provided with a wireless power receiving device, and the wireless power receiving device is electrically connected to the electrode plate through the MCU controller; the base extends to a second receiving cavity on the side opposite to the first receiving cavity, and the second receiving cavity is provided with a wireless power transmitting device corresponding to the wireless power receiving device, and the wireless power transmitting device is electrically connected to the control panel respectively. The control panel is used to generate a corresponding wireless transmission signal based on the detection data, and then transmit it to the wireless power receiving device via the wireless power transmitting device. The wireless power receiving device is used to receive the wireless power transmission signal and generate electrical power output to power the electrode plate; the MCU controller is used to control the magnitude of the current on the electrode plate according to the wireless power transmission signal.

5. The automatic water quality adjustment system according to claim 3, characterized in that, The generator includes a turbulence channel, which includes a first channel that passes through the base and a second channel that passes through the plug body, and the first channel and the second channel are connected.

6. The automatic water quality adjustment system according to claim 1, characterized in that, The device body has a first external thread on the outside of the opening, and the sealing cover has a first internal thread that matches the first external thread on the inside. The sealing cover is placed on the opening and is threadedly connected to the device body through the first internal thread and the first external thread. A first silicone sealing ring is embedded and fixed on the outer periphery of the device body. The first silicone sealing ring is located below the first external thread. When the sealing cover is threadedly connected to the device body, the inner and outer rings of the first silicone sealing ring abut against the outer periphery of the device body and the inner side of the sealing cover, respectively.

7. The automatic water quality adjustment system according to claim 1, characterized in that, A mounting base is installed on the top of the upper cavity, and the power supply battery is installed on the side of the mounting base near the opening. The power supply battery is covered with a cover.

8. The automatic water quality adjustment system according to claim 1, characterized in that, A partition is provided in the lower cavity along the direction of the test end of the ORP probe. The partition divides the lower cavity into a first cavity and a second cavity. The ORP probe is housed in the first cavity, and the salinity probe is housed in the second cavity.

9. The automatic water quality adjustment system according to claim 8, characterized in that, The ORP probe is fitted with an O-ring seal, which is located below the connection end of the ORP probe and abuts against the inner wall of the first cavity. The test end of the ORP probe is fitted with a second silicone seal, which is located at the bottom of the first cavity and abuts against the inner wall of the first cavity. The salinity probe is fitted with a silicone sealing sleeve, which is located at the bottom of the second cavity and abuts against the inner wall of the second cavity.

10. The automatic water quality adjustment system according to claim 8, characterized in that, The ORP probe has a second external thread on the outer periphery of its connection end, and the inner wall of the first cavity has a second internal thread that matches the second external thread. The ORP probe is threadedly connected to the first cavity through the second external thread and the second internal thread.

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