Ceramic product cleaning apparatus and method

Abstract

The application discloses a kind of ceramic product cleaning device, including including cleaning pool, placing rack, foot support, nano bubble cleaning component, supply component and controller, wherein, the cleaning pool is fixedly installed on foot support, the placing rack is fixedly installed on the inner wall of cleaning pool, the nano bubble cleaning component is installed in cleaning pool, the supply component is fixedly installed on foot support, the controller is fixedly installed on cleaning pool.The application is cleaned to the surface of ceramic product by the nano bubble of irregular motion, the corner or the inner cavity of ceramic product is effectively cleaned, and the soft cleaning mode avoids the displacement of ceramic product, causes the security risk of ceramic product.

Description

Technical Field

[0001] This invention relates to the field of ceramic cleaning technology, and in particular to a ceramic product cleaning device and cleaning method. Background Technology

[0002] When cleaning ceramic products in the industrial process, the surface of ceramic products is often cleaned by means of disturbing water flow, ultrasonic vibration, and rinsing. During the cleaning process, the corners inside the ceramic products are not easy to clean and are prone to leaving impurities. Moreover, the methods of disturbing water flow, ultrasonic vibration, and rinsing can easily cause the ceramic products to shift, increasing the risk of damage.

[0003] Therefore, how to provide a ceramic product cleaning device and cleaning method is a problem that urgently needs to be solved by those skilled in the art. Summary of the Invention

[0004] One objective of this invention is to provide a ceramic product cleaning device and cleaning method. This invention uses randomly moving nano-sized bubbles to thoroughly clean the surface of ceramic products, effectively cleaning corners or inner cavities. The gentle cleaning method avoids displacement of ceramic products, thus preventing safety hazards.

[0005] A ceramic product cleaning device according to an embodiment of the present invention includes a cleaning tank, a placement rack, a foot support, a nanobubble cleaning component, a supply component, and a controller. The cleaning tank is fixedly installed on the foot support, the placement rack is fixedly installed on the inner wall of the cleaning tank, the nanobubble cleaning component is installed inside the cleaning tank, the supply component is fixedly installed on the foot support, and the controller is fixedly installed on the cleaning tank.

[0006] Furthermore, the nanobubble cleaning component includes a tail tube, a nanobubble generating tube, an air tube, a trigger locking assembly, and a bubble box. The top of the tail tube is fixedly installed at the bottom of the nanobubble generating tube, the top of the air tube is threadedly installed at the bottom of the nanobubble generating tube, the air tube is located inside the tail tube, the trigger locking assembly is installed inside the nanobubble generating tube, and the bubble box is fixedly installed at the top of the nanobubble generating tube.

[0007] Furthermore, the nanobubble generating tube has a converging channel inside, a reaction channel inside, and a expanding channel inside. The inner wall of the converging channel has a spiral groove. The bottom of the nanobubble generating tube has a threaded mounting groove. The nanobubble generating tube has a main gas channel inside, a gas distribution channel inside, a guide hole inside, a displacement cavity inside, and a closing groove inside. An electric air valve is provided in the middle of the air tube.

[0008] Furthermore, one end of the reaction channel is connected to the converging channel, the other end of the reaction channel is connected to the expanding channel, one end of the main gas channel is connected to the threaded mounting groove, one end of the main gas channel is connected to one end of the guide hole, the other end of the guide hole is connected to the displacement cavity, and the expanding channel, the displacement cavity, and the closing groove are interconnected.

[0009] Furthermore, the trigger locking assembly includes a rubber piston, a guide rod, a limiting ring, a return spring, a swing rod, and a sealing plate. The rubber piston is vertically slidably installed within the main air passage, the guide rod is vertically slidably installed within the guide hole, one end of the guide rod is fixedly installed on the rubber piston, the limiting ring is fixedly installed on the end of the guide rod near the rubber piston, the return spring is sleeved on the end of the guide rod near the rubber piston, the other end of the guide rod extends into the displacement cavity, one end of the swing rod is rotatably installed on the top of the guide rod, the sealing plate is slidably installed within the closing groove, and the other end of the swing rod is rotatably installed on the end of the sealing plate near the displacement cavity.

[0010] Furthermore, the supply component includes a high-pressure liquid pump, a liquid extraction pipe, a main liquid pipe, a liquid distribution pipe, a high-pressure air pump, a main air pipe, and a liquid distribution pipe. The base of the high-pressure liquid pump is fixedly mounted on a foot support. One end of the liquid extraction pipe is fixedly mounted on the input port of the high-pressure liquid pump, and the other end of the liquid extraction pipe extends into the cleaning tank. The end of the main liquid pipe is fixedly mounted on the output port of the high-pressure liquid pump. One end of the liquid distribution pipe is mounted on the main liquid pipe, and the other end of the liquid distribution pipe extends into the cleaning tank. A filter head is provided at the end of the liquid extraction pipe located in the cleaning tank.

[0011] The base of the high-pressure air pump is fixedly installed on the footrest, the end of the main air pipe is fixedly installed on the output port of the high-pressure air pump, one end of the branch air pipe is fixedly installed on the main air pipe, and the other end of the branch air pipe extends into the cleaning tank.

[0012] Furthermore, the bottom of the tail tube is fixedly installed on the liquid distribution tube, the bottom end of the air tube passes through the liquid distribution tube, and the bottom end of the air tube is fixedly installed on the gas distribution tube.

[0013] Furthermore, a rubber sealing layer is provided on the outer wall of the sealing plate.

[0014] Furthermore, the cleaning method is characterized by the following cleaning steps:

[0015] Step 1: Add cleaning solution to the cleaning tank, or add fine particles at the same time as adding cleaning solution;

[0016] Step 2: The controller controls the switching of the nanobubble cleaning components and the supply components. Nanobubble generating tubes produce nano-sized bubbles, which then enter the cleaning tank.

[0017] Step 3: After the nanobubbles enter the cleaning tank, they move randomly within the tank, causing them to collide with the surface of the ceramic product and remove the stains.

[0018] Furthermore, the effective array-type cleaning method is as follows;

[0019] Cleaning Method 1: Rectangular stepped stop cleaning. Move the arranged nanobubble cleaning components from one side to the other, gradually opening each row of nanobubble cleaning components. After opening for 4-8 seconds, stop to clean the ceramic products.

[0020] Cleaning Method 2: Diffusion cleaning from the inside out. Open the arranged nanobubble cleaning components from the center outwards, and stop after 3-5 seconds to clean the ceramic products.

[0021] Cleaning Method 3: External to Internal Retractive Cleaning. The arranged nanobubble cleaning components are opened from the outermost part and gradually retracted inward. After opening for 3-5 seconds, the process is stopped to clean the ceramic products.

[0022] Cleaning Method 4: Intermittent Cleaning. The nanobubble cleaning components are turned on every 3-5 rows for 30-60 seconds, then switched on or off to clean the ceramic products.

[0023] The beneficial effects of this invention are:

[0024] This invention uses randomly moving nanoscale bubbles to thoroughly clean the surface of ceramic products, effectively cleaning corners and inner cavities. The gentle cleaning method prevents displacement of the ceramic products, thus avoiding potential safety hazards.

[0025] This invention uses a controller to open electric air valves at various locations, thereby controlling the opening of the gradually expanding channel through high-speed airflow.

[0026] The high-speed airflow pushes up the rubber piston, which is no longer blocking the air distribution channel. The rubber piston then drives the guide rod, swing rod, and sealing plate to shift, so that the sealing plate no longer blocks the gradually expanding channel. Attached Figure Description

[0027] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used in conjunction with embodiments of the invention to explain the invention and do not constitute a limitation thereof. In the drawings:

[0028] Figure 1 This is a first-view overall structural schematic diagram of a ceramic product cleaning device proposed in this invention.

[0029] Figure 2 This is a second-view overall structural schematic diagram of a ceramic product cleaning device proposed in this invention;

[0030] Figure 3 This is a partial schematic diagram of the filter head of a ceramic product cleaning device proposed in this invention;

[0031] Figure 4 This is a schematic diagram of the structure of the nanobubble cleaning component of a ceramic product cleaning device proposed in this invention;

[0032] Figure 5 This is a cross-sectional view of the nanobubble cleaning component of a ceramic product cleaning device proposed in this invention.

[0033] Figure 6 This is a schematic diagram of the structure of a nanobubble generator tube in a ceramic product cleaning device proposed in this invention;

[0034] Figure 7 This is a schematic diagram of the triggering and locking component of a ceramic product cleaning device proposed in this invention.

[0035] In the diagram: 1. Cleaning tank; 2. Placement rack; 3. Footrest; 4. Nanobubble cleaning components; 4.1. Tailpipe; 4.2. Nanobubble generating tube; 4.2.1. Contracting channel; 4.2.2. Reaction channel; 4.2.3. Expanding channel; 4.2.4. Spiral groove; 4.2.5. Threaded mounting groove; 4.2.6. Main air channel; 4.2.7. Distribution air channel; 4.2.8. Guide hole; 4.2.9. Displacement cavity; 4.2.10. Closing groove; 4.3. Air pipe; 4.4 4.4.1 Trigger Locking Assembly; 4.4.2 Rubber Piston; 4.4.3 Guide Rod; 4.4.4 Limit Ring; 4.4.5 Return Spring; 4.4.6 Swing Rod; 4.4.7 Rubber Sealing Layer; 4.5 Bubble Box; 5. Supply Components; 5.1 High-Pressure Liquid Pump; 5.2 Liquid Suction Pipe; 5.3 Main Liquid Pipe; 5.4 Distributor Pipe; 5.5 High-Pressure Air Pump; 5.6 Main Air Pipe; 5.7 Distributor Pipe; 6. Controller; 7. Electric Air Valve; 8. Filter Head. Detailed Implementation

[0036] The present invention will now be described in further 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.

[0037] Please refer to Figures 1 to 7 The present invention provides a ceramic product cleaning device, including a cleaning tank 1, a placement rack 2, a foot support 3, a nano bubble cleaning component 4, a supply component 5, and a controller 6. The cleaning tank 1 is fixedly installed on the foot support 3, the placement rack 2 is fixedly installed on the inner wall of the cleaning tank 1, the nano bubble cleaning component 4 is installed inside the cleaning tank 1, the supply component 5 is fixedly installed on the foot support 3, and the controller 6 is fixedly installed on the cleaning tank 1.

[0038] Furthermore, cleaning liquid is poured into cleaning tank 1, and ceramic products are immersed in cleaning tank 1. The supply component 5 is controlled by controller 6, and several nanobubbles are emitted by nanobubble cleaning component 4. The irregular movement of several nanobubbles collide with the outer surface of ceramic products to remove stains from the outer surface of ceramic products.

[0039] Specifically, the supply component 5 includes a high-pressure liquid pump 5.1, a suction pipe 5.2, a main liquid pipe 5.3, a distribution pipe 5.4, a high-pressure air pump 5.5, a main air pipe 5.6, and a distribution pipe 5.7. The base of the high-pressure liquid pump 5.1 is fixedly mounted on the footrest 3. One end of the suction pipe 5.2 is fixedly mounted on the input port of the high-pressure liquid pump 5.1, and the other end of the suction pipe 5.2 extends into the cleaning tank 1. The end of the main liquid pipe 5.3 is fixedly mounted on the output port of the high-pressure liquid pump 5.1. At the outlet, one end of the liquid distribution pipe 5.4 is installed on the main liquid pipe 5.3, and the other end of the liquid distribution pipe 5.4 extends into the cleaning tank 1. The base of the high-pressure air pump 5.5 is fixedly installed on the footrest 3. The end of the main air pipe 5.6 is fixedly installed on the output port of the high-pressure air pump 5.5. One end of the air distribution pipe 5.7 is fixedly installed on the main air pipe 5.6, and the other end of the air distribution pipe 5.7 extends into the cleaning tank 1. A filter head 8 is provided at one end of the liquid extraction pipe 5.2 located in the cleaning tank 1.

[0040] Furthermore, the high-pressure liquid pump 5.1 draws the cleaning liquid from the cleaning tank 1 through the liquid extraction pipe 5.2 to form a high-speed liquid flow, which is then supplied to the distribution pipe 5.4 through the main liquid pipe 5.3, and then supplied to the nanobubble cleaning component 4 through the distribution pipe 5.4. The high-pressure air pump 5.5 draws in outside air and supplies it to the main air pipe 5.6 to form a high-speed airflow, which is then distributed to the distribution pipe 5.7 through the main air pipe 5.6, and then supplied to the nanobubble cleaning component 4 through the distribution pipe 5.7.

[0041] Please refer to Figures 4 to 7 More specifically, the nanobubble cleaning component 4 includes a tail tube 4.1, a nanobubble generating tube 4.2, an air tube 4.3, a trigger locking assembly 4.4, and a bubble box 4.5. The top of the tail tube 4.1 is fixedly installed at the bottom of the nanobubble generating tube 4.2. The tail tube 4.1 is installed on the liquid distribution tube 5.4 and is connected to the liquid distribution tube 5.4. The top of the air tube 4.3 is threadedly installed at the bottom of the nanobubble generating tube 4.2 and is located inside the tail tube 4.1. The trigger locking assembly 4.4 is installed inside the nanobubble generating tube 4.2. The bubble box 4.5 is fixedly installed at the top of the nanobubble generating tube 4.2. The bottom of the tail tube 4.1 is fixedly installed on the liquid distribution tube 5.4. The bottom end of the air tube 4.3 penetrates the liquid distribution tube 5.4 and is fixedly installed on the air distribution tube 5.7. The inner holes of the air tube 4.3 and the air distribution tube 5.7 are interconnected.

[0042] Furthermore, the high-speed liquid fluid in the liquid distribution tube 5.4 enters the tail tube 4.1 and the nanobubble generating tube 4.2, while the high-speed airflow in the gas distribution tube 5.7 enters the air tube 4.3. Under the mutual shearing and breaking of the high-speed liquid fluid and high-speed airflow in the nanobubble generating tube 4.2, a large number of nanobubbles are generated. After exiting the nanobubble generating tube 4.2, the nanobubbles enter the bubble box 4.5 and are finally ejected from the bubble box 4.5.

[0043] More specifically, the nanobubble generating tube 4.2 has a converging channel 4.2.1 inside, a reaction channel 4.2.2 inside, a expanding channel 4.2.3 inside, a spiral groove 4.2.4 on the inner wall of the converging channel 4.2.1, a threaded mounting groove 4.2.5 at the bottom of the nanobubble generating tube 4.2, which is threadedly connected to the air tube 4.3, a main gas channel 4.2.6 inside, a gas distribution channel 4.2.7 inside, a guide hole 4.2.8 inside, a displacement cavity 4.2.9 inside, and a closing groove 4.2.10 inside.

[0044] One end of reaction channel 4.2.2 is connected to the contraction channel 4.2.1, and the other end of reaction channel 4.2.2 is connected to the expansion channel 4.2.3. One end of main gas channel 4.2.6 is connected to the threaded mounting groove 4.2.5, and one end of main gas channel 4.2.6 is connected to one end of guide hole 4.2.8. The other end of guide hole 4.2.8 is connected to displacement cavity 4.2.9. The expansion channel 4.2.3, displacement cavity 4.2.9 and closing groove 4.2.10 are interconnected.

[0045] Furthermore, the high-speed liquid enters the tail tube 4.1, and then enters the narrowing channel 4.2.1 of the nanobubble generating tube 4.2 from the tail tube 4.1. The high-speed liquid then enters the reaction channel 4.2.2. The opening end of the narrowing channel 4.2.1 towards the reaction channel 4.2.2 gradually narrows, continuously accelerating the high-speed liquid before it enters the reaction channel 4.2.2.

[0046] The high-speed airflow from the gas distribution pipe 5.7 enters the air pipe 4.3, then enters the main air channel 4.2.6, and then from the main air channel 4.2.6 into the gas distribution channel 4.2.7. The gas distribution channel 4.2.7 then enters the reaction channel 4.2.2. The high-speed airflow shears and collides with each other in the reaction channel 4.2.2, causing the cleaning liquid and gas to break down and generate nano-sized bubbles. The nano-bubbles enter the gradually expanding channel 4.2.3 from the reaction channel 4.2.2, and then enter the bubble box 4.5 from the gradually expanding channel 4.2.3. A large number of nano-bubbles are then ejected from the bubble box 4.5 and move randomly in the cleaning tank 1.

[0047] More specifically, the trigger locking assembly 4.4 includes a rubber piston 4.4.1, a guide rod 4.4.2, a limiting ring 4.4.3, a return spring 4.4.4, a swing rod 4.4.5, and a sealing plate 4.4.6. The rubber piston 4.4.1 is vertically slidably installed within the main air passage 4.2.6, the guide rod 4.4.2 is vertically slidably installed within the guide hole 4.2.8, one end of the guide rod 4.4.2 is fixedly installed on the rubber piston 4.4.1, and the limiting ring 4.4.3 is fixedly installed on the end of the guide rod 4.4.2 near the rubber piston 4.4.1. The return spring... Spring 4.4.4 is sleeved on one end of guide rod 4.4.2 near rubber piston 4.4.1. The other end of guide rod 4.4.2 extends into displacement cavity 4.2.9. One end of rocker arm 4.4.5 is rotatably mounted on top of guide rod 4.4.2. The sealing plate 4.4.6 is slidably mounted in closing groove 4.2.10. The other end of rocker arm 4.4.5 is rotatably mounted on the end of sealing plate 4.4.6 near displacement cavity 4.2.9. A rubber sealing layer 4.4.7 is provided on the outer wall of sealing plate 4.4.6. An electric air valve 7 is provided in the middle of air pipe 4.3.

[0048] More specifically, when the electric air valve 7 on the air pipe 4.3 is opened, the high-speed airflow in the air pipe 4.3 enters the main air passage 4.2.6. The high-speed airflow pushes the rubber piston 4.4.1 upward, and the rubber piston 4.4.1 moves upward to above the distribution air passage 4.2.7. The high-speed airflow enters the distribution air passage 4.2.7 from the main air passage 4.2.6. During the upward movement of the rubber piston 4.4.1, the rubber piston 4.4.1 drives the guide rod 4.4.2 to move vertically upward. The rubber piston 4.4.1 compresses the return spring 4.4.4. The guide rod 4.4.2 drives the limiting ring 4.4.3, limiting the height of the guide rod 4.4.2's displacement. The guide rod 4.4.2 drives the swing rod 4.4.5, and the swing rod 4.4.5 pulls the sealing plate 4.4.6 out of the closing groove 4.2.10, so that the gradually expanding passage 4.2.3 is no longer closed by the sealing plate 4.4.6.

[0049] When the electric air valve 7 on the air pipe 4.3 is closed, the high-speed airflow no longer enters the air pipe 4.3, the air pressure inside the air pipe 4.3 decreases, the return spring 4.4.4 resets, the return spring 4.4.4 drives the rubber piston 4.4.1 to move downward, the rubber piston 4.4.1 drives the guide rod 4.4.2 to move downward, the guide rod 4.4.2 drives the swing rod 4.4.5 to move the sealing plate 4.4.6 within the closing groove 4.2.10, and the sealing plate 4.4.6 closes the gradually expanding channel 4.2.3, the high-speed liquid fluid stops flowing in the nanobubble generating tube 4.2, the electric air valve 7 closes, and the corresponding nanobubble cleaning component 4 stops working.

[0050] The controller 6 controls the opening and closing of the electric air valve 7, thereby controlling the operation or non-operation of the nano bubble cleaning component 4. When cleaning ceramic products, the nano bubble cleaning component 4 can effectively clean the ceramic products by controlling the opening and closing of several electric air valves 7.

[0051] The controller 6 controls the switching of the nanobubble cleaning components 4 distributed in various locations, so that the cleaning method can be rectangular step-like operation, or diffusion operation from the inside to the outside and contraction operation from the outside to the inside, or intermittent stop operation.

[0052] This invention provides a cleaning method for a ceramic product cleaning device;

[0053] The cleaning steps in the cleaning method are as follows:

[0054] Step 1: Add cleaning solution to cleaning tank 1, or add fine particles at the same time as adding cleaning solution;

[0055] Step 2: Controller 6 controls the switching of nanobubble cleaning component 4 and supply component 5. Nanobubble generating tube 4.2 generates nano-sized bubbles, which enter the cleaning tank 1.

[0056] Step 3: After the nanobubbles enter the cleaning tank 1, they move randomly within the tank, causing them to collide with the surface of the ceramic product and remove the stains.

[0057] The effective cleaning method using an array is as follows:

[0058] Cleaning Method 1: Rectangular stepped stop cleaning. Move the arranged nano bubble cleaning components 4 from one side to the other side, gradually opening each row of nano bubble cleaning components 4. Stop after 4-8 seconds to clean the ceramic products.

[0059] Cleaning Method 2: Diffusion cleaning from the inside out. Open the arranged nano bubble cleaning components 4 from the center outwards, and stop after 3-5 seconds to clean the ceramic products.

[0060] Cleaning Method 3: Outward-to-inward contraction cleaning. The arranged nanobubble cleaning components 4 are opened from the outermost part and gradually contracted inward. After opening for 3-5 seconds, the process is stopped to clean the ceramic products.

[0061] Cleaning Method 4: Intermittent Cleaning. The nano-bubble cleaning components 4 are turned on every 3-5 rows for 30-60 seconds, then switched on or off to clean the ceramic products.

[0062] The above are merely preferred embodiments of the present invention, but the scope of protection of the present invention is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the scope of the technology disclosed in the present invention, based on the technical solution and inventive concept of the present invention, should be covered within the scope of protection of the present invention.

Claims

1. A ceramic product cleaning device, characterized in that, The device includes a cleaning tank (1), a placement rack (2), a footrest (3), a nanobubble cleaning component (4), a supply component (5), and a controller (6). The cleaning tank (1) is fixedly installed on the footrest (3), the placement rack (2) is fixedly installed on the inner wall of the cleaning tank (1), the nanobubble cleaning component (4) is installed inside the cleaning tank (1), the supply component (5) is fixedly installed on the footrest (3), and the controller (6) is fixedly installed on the cleaning tank (1). The nanobubble cleaning component (4) includes a tail tube (4.1), a nanobubble generating tube (4.2), an air tube (4.3), a trigger locking assembly (4.4), and a bubble box (4.5). The top of the tail tube (4.1) is fixedly installed at the bottom of the nanobubble generating tube (4.2), the top of the air tube (4.3) is threadedly installed at the bottom of the nanobubble generating tube (4.2), the air tube (4.3) is located inside the tail tube (4.1), the trigger locking assembly (4.4) is installed inside the nanobubble generating tube (4.2), and the bubble box (4.5) is fixedly installed at the top of the nanobubble generating tube (4.2). The nanobubble generating tube (4.2) has a tapering channel (4.2.1) inside, a reaction channel (4.2.2) inside, a expanding channel (4.2.3) inside, a spiral groove (4.2.4) on the inner wall of the tapering channel (4.2.1), a threaded mounting groove (4.2.5) at the bottom of the nanobubble generating tube (4.2.5), a main gas channel (4.2.6) inside, a gas distribution channel (4.2.7) inside, a guide hole (4.2.8) inside, and a displacement cavity (4.2.8) inside. .2.9), the inside of the nanobubble generating tube (4.2) is provided with a closed groove (4.2.10), and an electric air valve (7) is provided in the middle of the air tube (4.3); One end of the reaction channel (4.2.2) is connected to the converging channel (4.2.1), and the other end of the reaction channel (4.2.2) is connected to the expanding channel (4.2.3). One end of the main gas channel (4.2.6) is connected to the threaded mounting groove (4.2.5), and one end of the main gas channel (4.2.6) is connected to one end of the guide hole (4.2.8). The other end of the guide hole (4.2.8) is connected to the displacement cavity (4.2.9). The expanding channel (4.2.3), the displacement cavity (4.2.9), and the closing groove (4.2.10) are interconnected. The trigger locking assembly (4.4) includes a rubber piston (4.4.1), a guide rod (4.4.2), a limiting ring (4.4.3), a return spring (4.4.4), a swing rod (4.4.5), and a sealing plate (4.4.6). The rubber piston (4.4.1) is vertically slidably installed within the main air passage (4.2.6). The guide rod (4.4.2) is vertically slidably installed within the guide hole (4.2.8). One end of the guide rod (4.4.2) is fixedly installed on the rubber piston (4.4.1). The limiting ring (4.4.3) is fixedly installed on the end of the guide rod (4.4.2) near the rubber piston (4.4.1). The return spring (4.4.4) is sleeved on the guide rod (4.4.2) near the rubber piston (4.4.1). .1) One end of the guide rod (4.4.2) extends into the displacement cavity (4.2.9), one end of the swing rod (4.4.5) is rotatably mounted on the top of the guide rod (4.4.2), the closing plate (4.4.6) is slidably mounted in the closing groove (4.2.10), and the other end of the swing rod (4.4.5) is rotatably mounted on the end of the closing plate (4.4.6) near the displacement cavity (4.2.9).

2. The ceramic product cleaning device according to claim 1, characterized in that, The supply component (5) includes a high-pressure liquid pump (5.1), a suction pipe (5.2), a main liquid pipe (5.3), a distribution pipe (5.4), a high-pressure air pump (5.5), a main air pipe (5.6), and a distribution pipe (5.7). The base of the high-pressure liquid pump (5.1) is fixedly mounted on a footrest (3). One end of the suction pipe (5.2) is fixedly mounted on the input port of the high-pressure liquid pump (5.1), and the other end of the suction pipe (5.2) extends into the cleaning tank (1). The end of the main liquid pipe (5.3) is fixedly mounted on the output port of the high-pressure liquid pump (5.1). One end of the distribution pipe (5.4) is mounted on the main liquid pipe (5.3), and the other end of the distribution pipe (5.7) is fixedly mounted on the main liquid pipe (5.6). The other end of the .4) extends into the cleaning tank (1), and the end of the liquid extraction pipe (5.2) located in the cleaning tank (1) is provided with a filter head (8); the base of the high-pressure air pump (5.5) is fixedly installed on the footrest (3), the end of the main air pipe (5.6) is fixedly installed on the output port of the high-pressure air pump (5.5), one end of the branch air pipe (5.7) is fixedly installed on the main air pipe (5.6), and the other end of the branch air pipe (5.7) extends into the cleaning tank (1).

3. The ceramic product cleaning device according to claim 2, characterized in that, The bottom of the tail tube (4.1) is fixedly installed on the liquid distribution tube (5.4), the bottom end of the air tube (4.3) passes through the liquid distribution tube (5.4), and the bottom end of the air tube (4.3) is fixedly installed on the gas distribution tube (5.7).

4. A ceramic product cleaning device according to claim 3, characterized in that, A rubber sealing layer (4.4.7) is provided on the outer wall of the sealing plate (4.4.6).

5. The cleaning method of the ceramic product cleaning device according to claim 4, characterized in that, The cleaning steps in the cleaning method are as follows: Step 1: Add cleaning solution to the cleaning tank (1) or add fine particles at the same time as adding cleaning solution; Step 2: The controller (6) controls the switching of the nanobubble cleaning component (4) and the supply component (5), and the nanobubble generating tube (4.2) generates nano-sized bubbles, which enter the cleaning tank (1). Step 3: After the nanobubbles enter the cleaning tank (1), they move randomly in the cleaning tank (1), causing them to collide with the surface of the ceramic product and remove the stains from the surface of the ceramic product.

6. The cleaning method of the ceramic product cleaning device according to claim 5, characterized in that, The effective cleaning method using an array is as follows: Cleaning 1: Rectangular step-by-step stop cleaning, move the arranged nano bubble cleaning components (4) from one side to the other side, gradually open each row of nano bubble cleaning components (4), stop after 4-8 seconds, and clean the ceramic products; Cleaning 2: Diffusion cleaning from the inside out. Open the arranged nano bubble cleaning components (4) from the middle and gradually open them outwards. Stop after 3-5 seconds to clean the ceramic products. Cleaning 3: External to internal contraction cleaning, the arranged nano bubble cleaning components (4) are opened from the outermost part and gradually contracted inward. After opening for 3-5 seconds, the ceramic products are cleaned. Cleaning Method 4: Intermittent cleaning. The nano bubble cleaning components (4) are turned on every 3-5 rows for 30-60 seconds, and then switched on or off to clean the ceramic products.

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