Electrolyzed water cleaning device and atomization control method thereof

Abstract

The invention discloses an electrolyzed water cleaning device and an atomization control method thereof.The electrolyzed water cleaning device comprises a main body, the main body comprises a bearing box and a cleaning assembly arranged in the bearing box, the cleaning assembly comprises a driving wheel and a turbine, and the side face of the driving wheel is provided with a plurality of wheel teeth and a smooth face; the turbine comprises a machine shell, a grid-shaped base, an inner turbine and a driven wheel, the grid-shaped base is fixed to the inner bottom end of the bearing box, the machine shell is fixed to the grid-shaped base, a water outlet is formed in the side wall of the bearing box, one end of the machine shell is in butt joint with the water outlet, the interior of the machine shell is communicated with the water outlet, and the driven wheel is fixed to the inner bottom end of the bearing box. The inner turbine is arranged in the machine shell, the driven wheel is arranged on the side, away from the grid-shaped base, of the machine shell and fixed to one end of the inner turbine, the electrolysis efficiency of the electrolyzed water cleaning device is improved, the cleaning effect of the electrolyzed water cleaning device is enhanced, the attractive degree of the electrolyzed water cleaning device is optimized, and a prompt is given in time when cleaning is completed.

Description

Technical Field

[0001] This invention relates to the field of cleaning device technology, specifically to an electrolytic water cleaning device and its atomization control method. Background Technology

[0002] An electrolytic water cleaning device is used to clean fruits, vegetables, clothes, or other daily necessities. It primarily utilizes water electrolysis technology to ionize water into hydrogen, oxygen, hydrogen ions, and hydroxide ions. The hydrogen and oxygen gases rise as small bubbles. This process removes impurities from the surface of the items being cleaned.

[0003] Everyday tap water contains residual chlorine gas used for disinfection at water treatment plants. When hydroxide ions encounter chlorine gas, they produce hypochlorous acid, which has a strong bactericidal effect and can disinfect washed items to a certain extent, improving their cleanliness. Furthermore, hydroxide ions can also destroy the cell walls of common hormones and pesticide residues, rendering them inactive and thus achieving the effect of removing hormones and eliminating pesticide residues.

[0004] Most common water electrolysis cleaning devices focus on electrolysis to produce hydrogen, thereby improving the cleaning effect. For example, the invention patent with publication number CN105725865A aims to use an electrolysis device to change the acidity or alkalinity of the washing liquid, thereby achieving the purpose of cleaning and disinfection.

[0005] However, the simple electrolytic hydrogen production cleaning method cannot ensure that the particles formed will completely clean all parts of the item being cleaned. The particles formed are in a free state, making it difficult to clean the dead corners or contact surfaces of the item being cleaned. Furthermore, it cannot provide timely notification when the cleaning is complete. Therefore, users cannot be completely sure whether the item being cleaned has been cleaned. Summary of the Invention

[0006] Based on the above-mentioned problems existing in the prior art, the purpose of this invention is to provide an electrolytic water cleaning device and its atomization control method, so as to improve the electrolysis efficiency of the electrolytic water cleaning device, enhance its cleaning effect, optimize its aesthetics, and provide timely prompts when cleaning is completed.

[0007] The technical solution adopted by the present invention to solve its technical problem is: an electrolytic water cleaning device, comprising a main body, the main body including a carrier box and a cleaning component disposed in the carrier box, the cleaning component including a drive wheel and a turbine, the drive wheel having a plurality of teeth and a smooth surface on its side, the turbine including a housing, a grid-shaped base, an inner turbine, and a driven wheel, the grid-shaped base being fixed to the inner bottom end of the carrier box, the housing being fixed to the grid-shaped base, a water outlet being opened on the side wall of the carrier box, one end of the housing being connected to the water outlet and the interior of the housing communicating with the water outlet, the inner turbine being disposed inside the housing, the driven wheel being disposed on the side of the housing away from the grid-shaped base and fixed to one end of the inner turbine, and the axis of the driven wheel being coincident with the axis of the inner turbine, the driven wheel being meshed with the drive wheel.

[0008] Furthermore, the drive wheel is provided with multiple through slots, which are equidistantly arranged along the circumference of the drive wheel.

[0009] Furthermore, a vortex groove is formed at the bottom of the carrier box, and a fixing rod is fixed at the bottom of the carrier box. The fixing rod is located in the center of the vortex groove. The main body includes an electrolysis assembly, which includes an electrode and a clamping part. The electrode is vortex-shaped and inserted into the inside of the vortex groove. The clamping part is fixed to the top of the fixing rod and has a widening part that abuts against the top of the electrode.

[0010] Furthermore, the electrolysis assembly includes an atomizing plate, and the pressing part has an embedded groove, in which the atomizing plate is disposed.

[0011] Furthermore, the bottom of the carrier box is provided with a plurality of small lights, which are located at the slot intervals of the vortex groove.

[0012] Furthermore, the carrier box is equipped with a sealing cover and a storage battery. The storage battery is embedded in the inner bottom of the carrier box. The sealing cover covers the storage battery and is fixedly connected to the carrier box. Two wiring holes are opened at the bottom of the carrier box. A motor is provided on the drive wheel and the motor is fixed to the sealing cover.

[0013] Furthermore, the main body is provided with a cover, and the cover has multiple through holes.

[0014] Furthermore, the cleaning assembly includes a rotating assembly and a connecting rod. The rotating assembly is located on one side of the rotating assembly and includes a rotating shaft, multiple fan blades, a disc, and a rotating rod one. One end of the rotating shaft is rotatably connected to the inner bottom end of the carrier box. The multiple fan blades are fixed to the side of the rotating shaft and are equidistantly arranged along the circumference of the rotating shaft. The disc is fixed to the end of the rotating shaft away from the inner bottom end of the carrier box. The rotating rod one is fixed to the end face of the disc opposite to the rotating shaft and is located at a non-center position on the end face of the disc. A rotating rod two is fixed to the end of the driven wheel away from the inner turbine and is located at a non-center position on the end face of the driven wheel. Both the rotating rod one and the rotating rod two are rotatably connected to the connecting rod.

[0015] Furthermore, it also includes an atomizing processor, which is mounted on a fixed rod and includes multiple heating modules, a time control module, a computing module, and a power control unit;

[0016] The heating module includes a heating unit and a temperature measuring unit. The heating unit heats a fixed amount of liquid, and the temperature measuring unit records the initial temperature and the temperature of the liquid after heating.

[0017] The time control module controls the start-up time interval of the multiple heating modules;

[0018] The calculation module includes a calculation unit and a judgment unit. The calculation unit compares the temperature after heating recorded by each temperature measuring unit with the initial temperature of the liquid and obtains the difference. The judgment unit sets a temperature change standard K and judges the temperature change.

[0019] The power control unit directly controls the output power of the atomizing plate based on the determination result of the determination unit.

[0020] A method for controlling the atomization of an electrolytic water cleaning device, comprising the following steps:

[0021] S1: The time control module sets the start interval time for multiple heating modules;

[0022] S2: The first heating module starts up, its temperature recording unit records the initial temperature of the liquid, its heating unit heats a fixed amount of liquid with constant heat, its temperature recording unit records the temperature of the liquid after heating, and the first heating module stops.

[0023] S3: The second heating module starts, its temperature recording unit records the initial temperature of the liquid, its heating unit heats a fixed amount of liquid with constant heat, its temperature recording unit records the temperature of the liquid after heating, the second heating module stops, and so on;

[0024] S4: The calculation unit calculates the difference between the initial liquid temperature and the heated liquid temperature measured by each heating module, and records the temperature change value according to the start-up sequence. Δ t、 Δ t、 Δ t……, and so on, the determination unit obtains the difference T between the recorded subsequent temperature change value and the previous temperature change value;

[0025] S5: The determination unit determines whether T is greater than the temperature change standard K. If T is greater than the temperature change standard K, the power control unit controls the output power of the atomizing plate to increase. If the temperature change T is less than the temperature change standard K, the power control unit controls the output power of the atomizing plate to decrease. If T is less than the temperature change standard K, the power control unit controls the atomizing plate to stop operating.

[0026] Compared with the prior art, the beneficial effects achieved by the present invention are:

[0027] 1. It efficiently utilizes various particles generated by electrolysis to enhance the cleaning effect of the electrolytic water cleaning device on items;

[0028] 2. Use the swirling detergent to tumble the items being cleaned, cleaning the hard-to-reach corners and the parts where items are in contact with each other.

[0029] 3. The atomization and lighting effects make the electrolytic water cleaning device more aesthetically pleasing during use;

[0030] 4. By controlling the output power of the atomizing plate, the changes in the state of the item being cleaned can be intuitively displayed, and the user can be notified when the cleaning is complete. Attached Figure Description

[0031] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0032] In the picture:

[0033] Figure 1 This is a three-dimensional schematic diagram of the electrolytic water cleaning device of the present invention;

[0034] Figure 2 This is an exploded schematic diagram of the electrolytic water cleaning device of the present invention;

[0035] Figure 3 yes Figure 1 A schematic diagram of the explosion of the main body in the image;

[0036] Figure 4 yes Figure 3 An exploded view of the carrier box in the image;

[0037] Figure 5 yes Figure 3 An explosion diagram of the electrolysis components in the process;

[0038] Figure 6 yes Figure 3 A three-dimensional schematic diagram of the cleaning components in the process;

[0039] Figure 7 yes Figure 6 A schematic diagram of the turbine explosion in the image;

[0040] Figure 8 yes Figure 6 A three-dimensional schematic diagram of the rotating component in the diagram;

[0041] Figure 9 This is a schematic diagram of the atomization control method of an electrolytic water cleaning device.

[0042] In the picture:

[0043] 1. Main body;

[0044] 11. Carrier box; 12. Electrolysis assembly; 13. Cleaning assembly;

[0045] 111. Vortex tank; 112. Small light; 113. Fixing rod; 114. Water outlet; 115. Wiring hole; 116. Sealing cover; 117. Battery;

[0046] 121. Electrode; 122. Pressing part; 123. Atomizing plate;

[0047] 1220. Embedded groove; 1221. Widened section;

[0048] 131. Drive wheel; 132. Turbine; 133. Rotating assembly; 134. Connecting rod;

[0049] 1310. Through groove; 1311. Gear tooth; 1312. Smooth surface; 1313. Motor;

[0050] 1321. Housing; 1322. Grid-shaped base; 1323. Internal turbine; 1324. Driven wheel; 1325. Rotary rod II;

[0051] 1331. Shaft; 1332. Fan blade; 1333. Disc; 1334. Rotating rod one;

[0052] 2. Cover;

[0053] 20. Through hole. Detailed Implementation

[0054] The present invention will now be described in detail with reference to the accompanying drawings. These drawings are simplified schematic diagrams, illustrating only the basic structure of the invention, and therefore only show the components relevant to the invention.

[0055] Please see Figure 1-9 The present invention provides the following technical solution:

[0056] Example 1:

[0057] An electrolytic water cleaning device includes a main body 1 and a cover 2. The main body 1 includes a carrier box 11 and a cleaning component 13 disposed in the carrier box 11. The cleaning component 13 includes a drive wheel 131 and a turbine 132. The cover 2 has a plurality of through holes 20.

[0058] The side of the drive wheel 131 is provided with several teeth 1311 and a smooth surface 1312.

[0059] The turbine 132 includes a housing 1321, a grid-shaped base 1322, an inner turbine 1323, and a driven wheel 1324. The grid-shaped base 1322 is fixed to the inner bottom end of the support box 11, and the housing 1321 is fixed on the grid-shaped base 1322. An outlet 114 is provided on the side wall of the support box 11. One end of the housing 1321 is connected to the outlet 114, and the interior of the housing 1321 communicates with the outlet 114. The inner turbine 1323 is located inside the housing 1321. The driven wheel 1324 is located on the side of the housing 1321 away from the grid-shaped base 1322 and is fixed to one end of the inner turbine 1323. The axis of the driven wheel 1324 coincides with the axis of the inner turbine 1323. The driven wheel 1324 is meshed with the driving wheel 131.

[0060] Multiple through slots 1310 are provided on the drive wheel 131, and the multiple through slots 1310 are equidistantly arranged along the circumference of the drive wheel 131.

[0061] The carrier box 11 is equipped with a sealing cover 116, and the drive wheel 131 is equipped with a motor 1313, which is fixed on the sealing cover 116.

[0062] The bottom of the carrier box 11 is provided with a vortex groove 111. A fixing rod 113 is fixed to the bottom of the carrier box 11. The fixing rod 113 is located in the center of the vortex groove 111. The main body 1 includes an electrolysis component 12. The electrolysis component 12 includes an electrode 121 and a clamping part 122. The electrode 121 is vortex-shaped and inserted into the vortex groove 111. The clamping part 122 is fixed to the top of the fixing rod 113. The clamping part 122 is provided with a widening part 1221, which abuts against the top of the electrode 121.

[0063] The carrier box 11 is equipped with a storage battery 117, which is embedded in the inner bottom of the carrier box 11. A sealing cover 116 is placed on the storage battery 117 and fixedly connected to the carrier box 11. Two wiring holes 115 are opened at the bottom of the carrier box 11.

[0064] When using the electrolytic water cleaning device, place the item to be cleaned in the container, inject the cleaning solution into the container, and then place the electrolytic water cleaning device directly in the container, ensuring that the cleaning solution covers the electrolytic water cleaning device. The cleaning solution enters the main body 1 through the through hole 20 on the cover 2, and some of the cleaning solution enters the housing 1321 through the grid-shaped base 1322.

[0065] When the motor 1313 is powered on, it drives the drive wheel 131 to rotate. The drive wheel 131 drives the driven wheel 1324, which meshes with it, to rotate through the gear teeth 1311. The driven wheel 1324 drives the inner turbine 1323 inside the housing 1321 to rotate. The rotating inner turbine 1323 continuously and rapidly pushes the washing liquid inside the housing 1321 to the outlet 114. When the washing liquid is pushed out, it has a certain kinetic energy, causing the washing liquid in the container to churn. The churning washing liquid can quickly rinse the items being cleaned and cause the items to tumble, exposing the dead corners of the items and the parts that are in contact with each other, which are then rinsed by the washing liquid.

[0066] The wiring hole 115 reserved at the bottom of the carrier box 11 can be used to electrically connect the electrode 121 and the battery 117.

[0067] When electrode 121 is energized, the washing solution is electrolyzed.

[0068] In some embodiments, the washing liquid is tap water. After being electrolyzed, the tap water produces hydrogen, oxygen, hydrogen ions, and hydroxide ions. The hydrogen and oxygen appear as small bubbles that rise to the surface. This process removes impurities from the surface of the item being cleaned.

[0069] Everyday tap water contains residual chlorine gas used for disinfection at water treatment plants. When hydroxide ions encounter chlorine gas, they produce hypochlorous acid, which has a strong bactericidal effect and can disinfect washed items to a certain extent, improving their cleanliness. Furthermore, hydroxide ions can also destroy the cell walls of common hormones and pesticide residues, rendering them inactive and thus achieving the effect of removing hormones and eliminating pesticide residues.

[0070] When electrode 121 and motor 1313 are connected to power at the same time, the particles generated by the electrolysis of the washing liquid by electrode 121 will enter the housing 1321 along with the washing liquid. Under the rotation of the inner turbine 1323, they will be pushed out of the outlet 114. The particles generated by the electrolysis of the washing liquid can quickly clean the items. In addition, the turbulent washing liquid pushes the items to roll, and the particles generated by the electrolysis of the washing liquid will also quickly clean the dead corners of the items and the parts where the items are stuck together, improving the cleaning efficiency.

[0071] In addition, the drive wheel 131 is provided with a smooth surface 1312. As the drive wheel 131 rotates, the smooth surface 1312 will rotate to the side of the driven wheel 1324, and it will not be able to mesh with the driven wheel 1324. At this time, the driven wheel 1324 will stop rotating, and the inner turbine 1323 will stop rotating accordingly. Under this setting, the rotation of the driven wheel 1324 is intermittent, which allows the items being rinsed to stand still when the driven wheel 1324 stops rotating. The particles generated by the electrolytic washing liquid can adhere to the items being rinsed and take away the impurities on the surface of the items.

[0072] Example 2:

[0073] The electrolysis assembly 12 includes an atomizing plate 123, and an embedded groove 1220 is provided on the pressing part 122, in which the atomizing plate 123 is disposed.

[0074] Multiple small lights 112 are provided at the bottom of the inner side of the carrier box 11, and the small lights 112 are located at the slot intervals of the vortex groove 111.

[0075] When the atomizing plate 123 and the small light 112 are connected to the power, the washing liquid inside the main body 1 will be atomized. The resulting mist will drift out through the through hole 20 of the cover 2. The light from the small light 112 shines on the mist, and the water vapor in the mist refracts the light, making the mist more beautiful overall.

[0076] Furthermore, since the electrode 121 is located in the vortex groove 111, the electrode 121 is also bent into a vortex shape, and the position of the small lamp 112 is at the groove interval of the vortex groove 111. The electrode 121 concentrates the light emitted by the small lamp 112, and the light shines on the fog through the through hole 20 more effectively.

[0077] In some embodiments, the light from the small lamp 112 can be of different colors, making the fog more beautiful when illuminated.

[0078] Example 3:

[0079] The cleaning assembly 13 includes a rotating assembly 133 and a connecting rod 134.

[0080] The rotating assembly 133 is located on one side of the rotating assembly 133. The rotating assembly 133 includes a rotating shaft 1331, multiple fan blades 1332, a disk 1333, and a rotating rod 1334.

[0081] One end of the rotating shaft 1331 is rotatably connected to the inner bottom end of the carrier box 11. Multiple fan blades 1332 are fixed to the side of the rotating shaft 1331 and are equidistantly arranged along the circumference of the rotating shaft 1331. The disc 1333 is fixed to the end of the rotating shaft 1331 away from the inner bottom end of the carrier box 11. The rotating rod 1334 is fixed to the end face of the disc 1333 away from the rotating shaft 1331 and is located at a non-center position on the end face of the disc 1333.

[0082] A rotating rod 1325 is fixed at the end of the driven wheel 1324 away from the inner turbine 1323, and the rotating rod 1325 is located at a non-center position on the end face of the driven wheel 1324. Both the rotating rod 1334 and the rotating rod 1325 are rotatably connected to the connecting rod 134.

[0083] When the driven wheel 1324 rotates with the driving wheel 131, the rotating rod 1325 on top of it rotates in a circular motion. The rotating rod 1325 drives the rotating rod 1334 to rotate in a circular motion through the connecting rod 134. The disc 1333 rotates accordingly, and the disc 1333 drives the rotating shaft 1331 and the fan blade 1332 to rotate. The agitated washing liquid washes the electrode 121, causing the particles generated by electrolysis in the electrode 121 to be quickly dispersed and then enter the turbine 132, thereby improving the utilization rate of the particles generated by electrolysis.

[0084] Example 4:

[0085] An electrolytic water cleaning device further includes an atomizing processor (not shown), which is mounted on a fixed rod 113 and includes multiple heating modules, a time control module, a calculation module, and a power control unit.

[0086] The heating module includes a heating unit and a temperature measuring unit. The heating unit heats a fixed amount of liquid, and the temperature measuring unit records the initial temperature and the temperature of the liquid after heating.

[0087] The time control module controls the start-up time interval of multiple heating modules;

[0088] The calculation module includes a calculation unit and a judgment unit. The calculation unit compares the temperature after heating recorded by each temperature measuring unit with the initial temperature of the liquid and obtains the difference. The judgment unit sets the temperature change standard K and judges the temperature change.

[0089] The power control unit directly controls the output power of the atomizing plate 123 based on the judgment result of the judgment unit.

[0090] Example 5:

[0091] A method for controlling the atomization of an electrolytic water cleaning device, comprising the following steps:

[0092] S1: The time control module sets the start interval time for multiple heating modules;

[0093] S2: The first heating module starts up, its temperature recording unit records the initial temperature of the liquid, its heating unit heats a fixed amount of liquid with constant heat, its temperature recording unit records the temperature of the liquid after heating, and the first heating module stops.

[0094] S3: The second heating module starts, its temperature recording unit records the initial temperature of the liquid, its heating unit heats a fixed amount of liquid with constant heat, its temperature recording unit records the temperature of the liquid after heating, the second heating module stops, and so on;

[0095] S4: The calculation unit calculates the difference between the initial liquid temperature and the heated liquid temperature measured by each heating module, and records the temperature change value according to the start-up sequence. Δ t1、 Δ t2、 Δ t3……, and so on, the determination unit obtains the difference T between the recorded subsequent temperature change value and the previous temperature change value;

[0096] S5: The determination unit determines whether T is greater than the temperature change standard K. If T is greater than the temperature change standard K, the power control unit controls the output power of the atomizing plate 123 to increase. If the temperature change T is less than the temperature change standard K, the power control unit controls the output power of the atomizing plate 123 to decrease. If T is 0, the power control unit controls the atomizing plate 123 to stop operating.

[0097] In this embodiment, the time of the time control module can be preset to start the heating modules one by one.

[0098] In some embodiments, the time control module is set to 1 second.

[0099] The calculation unit subtracts the initial temperature of the liquid recorded by the temperature recording unit from the temperature after the liquid is heated to obtain the temperature change value.

[0100] Because liquids have different densities, their specific heat capacities also differ. When washing items, impurities from the items gradually diffuse into the washing liquid, causing the density of the washing liquid to gradually increase and the specific heat capacity of the liquid to decrease. Consequently, the temperature change before and after heating becomes greater.

[0101] When the heating unit heats a fixed amount of liquid with constant heat, the greater the density of the washing liquid, the greater the temperature change before and after heating. The determination unit then calculates the difference T between the recorded temperature change value and the previous temperature change value.

[0102] Therefore, the temperature change value of each heating module activated sequentially will increase as the density of the washing liquid increases until the washing liquid cleans the items and the density of the washing liquid no longer changes. The temperature change value of the heating modules activated subsequently will no longer change too much. However, the density of the washing liquid is not uniform, so the temperature T after stabilization will have a certain fluctuation range. Therefore, a temperature change standard K is set in the judgment unit. By comparing T with K, when T is greater than K and gradually increases, the power control unit controls the output power of the atomizing plate 123 to increase. When T is less than K, the power control unit controls the atomizing plate 123 to stop operating.

[0103] In some embodiments, the value of K is set to 0.5.

[0104] As the electrolytic water cleaning device cleans the items in the container, impurities gradually fall off the items and enter the washing liquid, increasing the density of the washing liquid. At this time, the output power of the atomizing plate 123 increases until all the impurities are completely removed, at which point the density of the washing liquid will no longer change, and the atomizing plate 123 will stop operating.

[0105] The power output of the atomizing plate indicates changes in the cleaning status. When cleaning is complete, the atomizing plate stops operating, atomization stops, and the user is notified that cleaning is complete.

[0106] Based on the above-described preferred embodiments of the present invention, and through the foregoing description, those skilled in the art can make various changes and modifications without departing from the scope of the present invention. The technical scope of this invention is not limited to the contents of the specification, but must be determined according to the scope of the claims.

Claims

1. An electrolytic water cleaning device, characterized in that: The device includes a main body, which comprises a carrier box and a cleaning assembly disposed within the carrier box. The cleaning assembly includes a drive wheel and a turbine. The drive wheel has several teeth and a smooth surface on its side. The turbine includes a housing, a grid-like base, an inner turbine, and a driven wheel. The grid-like base is fixed to the inner bottom of the carrier box, and the housing is fixed to the grid-like base. A water outlet is provided on the side wall of the carrier box. One end of the housing is connected to the water outlet, and the interior of the housing communicates with the water outlet. The inner turbine is disposed inside the housing. The driven wheel is disposed on the side of the housing away from the grid-like base and fixed to one end of the inner turbine. The axis of the driven wheel coincides with the axis of the inner turbine, and the driven wheel meshes with the drive wheel.

2. The electrolytic water cleaning device according to claim 1, characterized in that: The drive wheel has multiple through slots, which are equidistantly arranged along the circumference of the drive wheel.

3. The electrolytic water cleaning device according to claim 1, characterized in that: The bottom of the carrier box is provided with a vortex groove, and a fixing rod is fixed to the bottom of the carrier box. The fixing rod is located in the center of the vortex groove. The main body includes an electrolysis assembly, which includes an electrode and a clamping part. The electrode is vortex-shaped and inserted into the inside of the vortex groove. The clamping part is fixed to the top of the fixing rod and has a widening part that abuts against the top of the electrode.

4. The electrolytic water cleaning device according to claim 3, characterized in that: The electrolysis assembly includes an atomizing plate, and the pressing part has an embedded groove, in which the atomizing plate is disposed.

5. The electrolytic water cleaning device according to claim 3, characterized in that: The bottom of the carrier box is equipped with multiple small lights, which are located at the slot intervals of the vortex groove.

6. The electrolytic water cleaning device according to claim 1, characterized in that: The carrier box contains a sealing cover and a battery. The battery is embedded in the bottom of the carrier box. The sealing cover covers the battery and is fixedly connected to the carrier box. The bottom of the carrier box has two wiring holes. The drive wheel is equipped with a motor, which is fixed to the sealing cover.

7. The electrolytic water cleaning device according to claim 1, characterized in that: The main body is provided with a cover, and the cover has multiple through holes.

8. The electrolytic water cleaning device according to claim 3, characterized in that: The cleaning assembly includes a rotating component and a connecting rod. The rotating component is located on one side of the rotating assembly and includes a rotating shaft, multiple fan blades, a disc, and a rotating rod. One end of the rotating shaft is rotatably connected to the inner bottom end of the carrier box. The multiple fan blades are fixed to the side of the rotating shaft and are equidistantly arranged along the circumference of the rotating shaft. The disc is fixed to the end of the rotating shaft away from the inner bottom end of the carrier box. The rotating rod is fixed to the end face of the disc opposite to the rotating shaft and is located at a non-center position on the end face of the disc. A rotating rod is fixed to the end of the driven wheel away from the inner turbine and is located at a non-center position on the end face of the driven wheel. Both the rotating rod and the rotating rod are rotatably connected to the connecting rod.

9. The electrolytic water cleaning device according to claim 4, characterized in that: It also includes an atomizing processor, which is mounted on a fixed rod and includes multiple heating modules, a time control module, a computing module, and a power control unit; The heating module includes a heating unit and a temperature measuring unit. The heating unit heats a fixed amount of liquid, and the temperature measuring unit records the initial temperature and the temperature of the liquid after heating. The time control module controls the start-up time interval of the multiple heating modules; The calculation module includes a calculation unit and a judgment unit. The calculation unit compares the temperature after heating recorded by each temperature measuring unit with the initial temperature of the liquid and obtains the difference. The judgment unit sets a temperature change standard K and judges the temperature change. The power control unit directly controls the output power of the atomizing plate based on the determination result of the determination unit.

10. A method for atomization control in an electrolytic water cleaning device, using the electrolytic water cleaning device as described in claim 9, characterized in that: The steps for atomization control are as follows: S1: The time control module sets the start interval time for multiple heating modules; S2: The first heating module starts up, its temperature recording unit records the initial temperature of the liquid, its heating unit heats a fixed amount of liquid with constant heat, its temperature recording unit records the temperature of the liquid after heating, and the first heating module stops. S3: The second heating module starts, its temperature recording unit records the initial temperature of the liquid, its heating unit heats a fixed amount of liquid with constant heat, its temperature recording unit records the temperature of the liquid after heating, the second heating module stops, and so on; S4: The calculation unit calculates the difference between the initial liquid temperature and the heated liquid temperature measured by each heating module, and records the temperature change value according to the start-up sequence. Δ t1、 Δ t2、 Δ t3……, and so on, the determination unit obtains the difference T between the recorded subsequent temperature change value and the previous temperature change value; S5: The determination unit determines whether T is greater than the temperature change standard K. If T is greater than the temperature change standard K, the power control unit controls the output power of the atomizing plate to increase. If the temperature change T is less than the temperature change standard K, the power control unit controls the output power of the atomizing plate to decrease. If T is 0, the power control unit controls the atomizing plate to stop operating.

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