A ceramic aerogel insulation sheet water washing device and process

Abstract

The present invention relates to the technical field of water washing of thermal insulation sheets, and in particular to a device and process for washing ceramic aerogel thermal insulation sheets. It comprises a base frame, an overflow water washing part is installed on the base frame, a first hydraulic telescopic rod is fixedly connected to the base frame, a first connecting rod is fixedly connected to the telescopic end of the first hydraulic telescopic rod, the overflow water washing part is rotatably connected and connected to a rotating ring distributed in a linear array, a first hole is provided on the rotating ring, and a second hole is provided on the drainage pipe. The present invention drives the first connecting rod to move downward through the telescopic end of the first hydraulic telescopic rod. When the surface of the thermal insulation board with different surface roughness is washed with water, the rotating ring drives the first hole thereon to rotate, and adjusts the flow area between the first hole and the adjacent second hole, thereby preventing the thermal insulation sheet from being insufficiently washed due to its rough surface, and preventing the thermal insulation sheet with a smooth surface from being unable to move or even being damaged due to excessive impact of the water flow.

Description

Technical Field

[0001] The present invention relates to the technical field of thermal insulation sheet water washing, and in particular to a ceramic aerogel thermal insulation sheet water washing device and process. Background Art

[0002] The ceramic aerogel insulation sheet washing device is a device that cleans the insulation sheet by overflow water washing, which mainly includes overflow water washing, cotton roller drying and wind drying processes. The ceramic aerogel insulation sheet is a high-performance thermal insulation material. The ceramic aerogel insulation sheet is mostly rectangular during production and use, and the surface roughness of the ceramic aerogel insulation sheet in different use environments is different, and it can be divided into various styles such as smooth surface and frosted surface.

[0003] When washing ceramic aerogel insulation sheets with water, the existing water washing device delivers the ceramic aerogel insulation sheets through rollers. This form of delivery relies too much on friction. If the surface of the ceramic aerogel insulation sheet is rough, it will cause its travel speed to be faster and reduce the water washing time. The ceramic aerogel insulation sheet with a rough surface usually has a large amount of impurities adhered in the grooves, which will result in insufficient impurity cleaning efficiency of the ceramic aerogel insulation sheet with a rough surface. The ceramic aerogel insulation sheet with a smooth surface has a slow travel speed, which will result in a long water washing time, affecting the normal travel of the ceramic aerogel insulation sheet, and even causing the insulation sheet to break and be damaged due to excessive water washing. Summary of the invention

[0004] In order to overcome the shortcomings of insufficient impurity cleaning efficiency of ceramic aerogel insulation sheets with rough surfaces and normal movement of ceramic aerogel insulation sheets with smooth surfaces, the present invention provides a ceramic aerogel insulation sheet water washing device and process.

[0005] The technical solution is: a ceramic aerogel insulation sheet water washing device, comprising a base frame, on which rotating rollers distributed in a linear array are rotatably connected, and adjacent rotating rollers are driven by a transmission belt, and rollers distributed in a linear array are fixedly connected to the rotating rollers, and an overflow water washing component is installed on the base frame, and a first hydraulic telescopic rod is fixedly connected to a position of the base frame near the overflow water washing component, and a first connecting rod is fixedly connected to the telescopic end of the first hydraulic telescopic rod, and the overflow water washing component is rotatably connected and connected to a rotating ring distributed in a linear array through its drainage pipe, and the rotating ring and the first connecting rod are driven by a first transmission member, and a drainage pipe is rotatably connected to the rotating ring, a first hole is provided on the rotating ring, and a second hole that is connected and matched with the adjacent first hole is provided on the drainage pipe, and a force storage component for driving the first hydraulic telescopic rod to extend and retract is provided on the base frame.

[0006] Furthermore, the lower sides of the drainage pipes distributed in a linear array are fixedly connected and communicated with a drainage box, and the lower side of the drainage box is provided with drainage outlets distributed in a linear array. The flow area of ​​the drainage box remains unchanged from top to bottom, and the width of the drainage outlet on the drainage box is greater than the inner diameter of the adjacent drainage pipes.

[0007] Further, the force storage component includes a first motor, the first motor is fixedly connected to the base frame, the output shaft of the first motor is fixedly connected to the adjacent rotating roller, the base frame is rotatably connected to a rotating shaft, the output shaft of the first motor and the rotating shaft are transmitted through a second transmission member, the rotating shaft is rotatably connected to a rotating disk in an upper limit position, the rotating disk is fixedly connected to a gear ring, a spring is fixedly connected to a side of the rotating disk close to the base frame, one end of the spring is fixedly connected to the rotating shaft, a threaded telescopic rod is fixedly connected to a side of the rotating disk away from the base frame, the telescopic end of the threaded telescopic rod is limitedly slidably connected to the rotating shaft, a sliding frame is rotatably connected to the rotating shaft, the telescopic end of the threaded telescopic rod is fixedly connected to a cylindrical rod that slides with the sliding frame in a limited position, a second hydraulic telescopic rod connected to the first hydraulic telescopic rod is fixedly connected to the base frame, the telescopic end of the second hydraulic telescopic rod is fixedly connected to the sliding frame, and a trigger component for limiting the gear ring is provided on the base frame.

[0008] Further, the trigger assembly includes a first electrically-controlled telescopic rod, which is fixed to the base frame at a position close to the rotating disk, and the telescopic end of the first electrically-controlled telescopic rod is fixed to a limit rod, and a limit block that is squeezed and matched with the limit rod is slidably connected to the base frame at a position close to the first electrically-controlled telescopic rod, and an elastic member is fixed between the limit block and the base frame, and the limit block is limitedly matched with the gear ring, wherein two non-adjacent rotating rollers are each provided with a pressure sensor, one of the pressure sensors is located below the drainage box, and the other of the pressure sensors is located below the drainage box close to the sliding frame.

[0009] Furthermore, a first wedge block evenly distributed circumferentially is fixedly connected to the rotating shaft, and a second wedge block evenly distributed circumferentially is fixedly connected to a position in the gear ring close to the first wedge block. The second wedge blocks evenly distributed circumferentially are squeezed and matched with the first wedge blocks evenly distributed circumferentially, and the first wedge block and the second wedge block are both made of flexible materials.

[0010] Furthermore, a first trigger rod is fixedly connected to one side of the sliding frame close to the base frame, a first sliding rheostat is fixedly connected to one side of the base frame close to the first trigger rod, the first trigger rod is fixedly connected to a sliding piece of the first sliding rheostat, a drying component is installed on the base frame at a position away from the overflow water washing component, and the first sliding rheostat is electrically connected to the drying component.

[0011] Furthermore, it also includes fixed frames distributed in a linear array, the fixed frames distributed in a linear array are all fixedly connected to the base frame at a position close to the sliding frame, the fixed frames are rotatably connected to a rotating frame, the base frame is slidably connected to symmetrically distributed electromagnetic sliders at a position close to the rotating frame distributed in a linear array, the symmetrically distributed electromagnetic sliders are commonly fixedly connected to sliding rods, the sliding rods are fixedly connected to limit pins distributed in a linear array, the limit pins are rotatably and slidably connected to adjacent rotating frames, the distance between adjacent rotating frames gradually decreases from a side away from the fixed frame to a side close to the fixed frame, the distance between adjacent fixed frames gradually decreases from a side close to the rotating frame to a side away from the rotating frame, and the maximum width of the rotating frame is the same as the minimum width of the adjacent fixed frames.

[0012] Furthermore, it also includes a second electrically-controlled telescopic rod, which is fixedly connected to the overflow water washing part, and a sealing shell is fixedly connected to the telescopic end of the second electrically-controlled telescopic rod, and the sealing shell is matched with the drain outlet of the drain box to seal the drain box, and a flow port connected to the drain box is provided on the sealing shell, and a second trigger rod is fixedly connected to the sealing shell, and a second sliding rheostat is fixedly connected to the overflow water washing part, and the sliding plate of the second sliding rheostat is pressed and matched with the second trigger rod, and a water pump connected to the sealing shell is fixedly connected to the overflow water washing part, and the second sliding rheostat is electrically connected to the water pump.

[0013] Furthermore, a symmetrically distributed third hydraulic telescopic rod is fixedly connected to the overflow water washing part, and the telescopic end of the third hydraulic telescopic rod is fixedly connected to the sealing shell, and a linear array of water-absorbing rollers is rotatably and slidably connected to the base frame, and the linear array of water-absorbing rollers are all located between the overflow water washing part and the drying part, and the adjacent water-absorbing rollers are driven by a transmission belt, and a second motor is slidably connected in the base frame, and the output shaft of the second motor is fixedly connected to the adjacent water-absorbing roller, and a symmetrically distributed fourth hydraulic telescopic rod is fixedly connected to the position near the water-absorbing roller in the base frame and is connected to the adjacent third hydraulic telescopic rod, and the telescopic end of the fourth hydraulic telescopic rod is fixedly connected to a second connecting rod, and the second connecting rod is rotatably connected to the water-absorbing roller through a swivel, and the second motor is fixedly connected to the adjacent second connecting rod.

[0014] Furthermore, a ceramic aerogel insulation sheet water washing process is provided, based on the above-mentioned ceramic aerogel insulation sheet water washing device, and the specific steps are as follows:

[0015] Step 1: Put the heat shield on the rotating roller and make the rotating roller rotate, the heat shield moves and squeezes the first pressure sensor first;

[0016] Step 2: Before washing the heat insulation board, the telescopic end of the second electrically controlled telescopic rod drives the blocking shell to partially block several drain ports on the drain box. The blocking shell drives the sliding piece of the second sliding rheostat to move through the second trigger rod. Water flows into the drain box through the flow port of the blocking shell and then is discharged through the drain port of the drain box. The movement of the blocking shell drives the telescopic end of the third hydraulic telescopic rod to move. The height of the corresponding water suction roller is adjusted between the third hydraulic telescopic rod and the adjacent fourth hydraulic telescopic rod through hydraulic transmission.

[0017] Step 3: After the heat insulation board passes through the first pressure sensor, the telescopic end of the first electrically controlled telescopic rod contracts, and the telescopic end of the first electrically controlled telescopic rod drives the limit rod to penetrate into the limit block, and the gear ring is limited by the limit block and cannot rotate;

[0018] Step 4: When the heat shield moves to the position of the rotating frame, the electromagnetic slider drives several limit pins to move back and forth synchronously through the sliding rod, the limit pins drive the adjacent rotating frame to move back and forth, the rotating frame rotates slightly around the adjacent fixed frame, and the heat shield moves from left to right along the inclined surface of the rotating frame and the adjacent fixed frame;

[0019] Step 5: When the gear ring cannot rotate, the telescopic end of the threaded telescopic rod rotates relative to its fixed part, so that the telescopic end of the threaded telescopic rod extends, and the telescopic end of the threaded telescopic rod drives the sliding frame to move, and the sliding frame squeezes the telescopic end of the second hydraulic telescopic rod to move. During the movement of the sliding frame, the sliding frame drives the sliding piece of the first sliding rheostat to move through the first trigger rod;

[0020] Step 6: When the telescopic end of the second hydraulic telescopic rod contracts, the hydraulic oil inside it is squeezed into the first hydraulic telescopic rod through the conduit, and the telescopic end of the first hydraulic telescopic rod drives the adjacent first hole to rotate through the first connecting rod, the first transmission member and the rotating ring;

[0021] Step 7: The water flows through the drain pipe of the overflow water washing part, the first hole, the second hole and the drain port of the drain box in sequence and is discharged to the surface of the heat insulation sheet;

[0022] Step 8: When the heat insulation sheet moves to contact the pressure sensor on the right, the telescopic end of the first electrically controlled telescopic rod is reset to drive the limit rod to gradually reset, so that the limit block and the limit rod gradually lose their limit, the clockwork drives the rotating disk to reset, the rotating disk drives the fixed part of the threaded telescopic rod to rotate and reset, the telescopic end of the threaded telescopic rod drives the telescopic end of the second hydraulic telescopic rod to reset through the sliding frame, and the hydraulic transmission between the second hydraulic telescopic rod and the first hydraulic telescopic rod drives the first hole to rotate and reset and seal it again with the adjacent second hole;

[0023] Step 9: After the insulation board moves to the position of the water absorption roller, the output shaft of the second motor drives the adjacent water absorption rollers to rotate, so that several water absorption rollers are driven by the transmission belt and rotate synchronously, and then the water stains on the insulation board are dried by the drying element;

[0024] Step 10: After the insulation sheet has been washed, wiped dry and dried, remove and collect the insulation sheet. If the other side of the insulation board needs to be washed, turn the insulation board over and repeat the above steps for washing. After using the device, turn off the power of the device and clean the device.

[0025] The beneficial effects are as follows: 1. The present invention drives the first connecting rod to move downward through the telescopic end of the first hydraulic telescopic rod. When the surface of the heat insulation board with different surface roughness is washed with water, the rotating ring drives the first hole thereon to rotate, and the flow area between the first hole and the adjacent second hole is adjusted, thereby preventing the heat insulation sheet from having insufficient water washing force due to the rough surface thereof, and preventing the heat insulation sheet with a smooth surface from being unable to move or even being damaged due to excessive impact of the water flow;

[0026] 2. The flow volume and flow area of ​​the drainage box outlet are adjusted by moving the blocking shell, and the thicker insulation board is cleaned with higher intensity to prevent the overflow water washing efficiency from being insufficient, and to avoid excessive water washing force affecting the movement of the thinner insulation board or even causing it to break;

[0027] 3. The telescopic end of the fourth hydraulic telescopic rod drives the adjacent second connecting rod to move, and the height of the water-absorbing roller is adjusted to prevent the position of the water-absorbing roller from being too low to affect the movement of the thick insulation board, and to prevent the position of the water-absorbing roller from being too high to affect the wiping strength of the thin insulation board. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] Figure 1 It is a schematic diagram of the three-dimensional structure of the present invention;

[0029] Figure 2 It is a schematic diagram of the three-dimensional structure of the rotating roller of the present invention;

[0030] Figure 3 It is a schematic diagram of the three-dimensional structure of the overflow water washing unit of the present invention;

[0031] Figure 4 It is a schematic diagram of the three-dimensional structure of the rotating ring of the present invention;

[0032] Figure 5 It is a three-dimensional structural exploded diagram of the rotating ring and the drainage pipe of the present invention;

[0033] Figure 6 It is a schematic diagram of the three-dimensional structure of the sliding frame of the present invention;

[0034] Figure 7 It is a three-dimensional structural cross-sectional view of the rotating disk of the present invention;

[0035] Figure 8 It is a three-dimensional structural cross-sectional view of the limit block of the present invention;

[0036] Fig. 9 It is a three-dimensional structure explosion diagram of the rotating shaft and the rotating disk of the present invention;

[0037] Fig.10 It is a schematic diagram of the three-dimensional structure of the fixing frame of the present invention;

[0038] Fig.11 It is a schematic diagram of the three-dimensional structure of the drying element of the present invention;

[0039] Fig.12 It is a three-dimensional structural cross-sectional view of the sealing shell of the present invention;

[0040] Fig.13 It is a three-dimensional structural cross-sectional view of the water-absorbing roller of the present invention.

[0041] The markings in the figure are: 1-base frame, 101-rotating roller, 102-overflow washing part, 103-first hydraulic telescopic rod, 104-first connecting rod, 105-rotating ring, 106-drainage pipe, 107-first hole, 108-second hole, 2-drainage box, 3-power storage component, 301-first motor, 302-rotating shaft, 303-rotating disk, 304-gear ring, 305-spring, 306-threaded telescopic rod, 307-sliding frame, 308-second hydraulic telescopic rod, 4-trigger component, 401-first electric telescopic rod, 402-limit rod, 403- Limit block, 5-pressure sensor, 6-first wedge block, 601-second wedge block, 7-first trigger rod, 701-first sliding rheostat, 702-drying piece, 8-fixed frame, 801-rotating frame, 802-electromagnetic slider, 803-sliding rod, 804-limit pin, 9-second electrically controlled telescopic rod, 901-sealing shell, 902-second trigger rod, 903-second sliding rheostat, 904-water pump, 10-third hydraulic telescopic rod, 1001-water suction roller, 1002-second motor, 1003-fourth hydraulic telescopic rod, 1004-second connecting rod. DETAILED DESCRIPTION

[0042] The present invention is described in detail below with reference to the accompanying drawings and specific embodiments, but is not intended to limit the present invention.

[0043] The existing water washing device delivers the ceramic aerogel insulation sheet by rollers. If the surface of the ceramic aerogel insulation sheet is rough, it will cause its travel speed to be faster and reduce the water washing time, while the ceramic aerogel insulation sheet with a smooth surface will travel slower, which will result in insufficient water washing force on the rough surface of the insulation sheet, resulting in incomplete removal of impurities, and the insulation board with a smooth surface will be too affected by the impact of the water flow and cannot move normally.

[0044] Embodiment 1: A ceramic aerogel insulation sheet washing device, such as Figure 1-Figure 5 As shown, it includes a base frame 1, a control panel is installed on the base frame 1, a plurality of rotating rollers 101 distributed in a linear array are rotatably connected to the base frame 1, adjacent rotating rollers 101 are driven by a transmission belt, a plurality of rollers distributed in a linear array are fixedly connected to the rotating rollers 101, and the friction between the rollers and the heat insulation sheet causes the heat insulation sheet to be delivered to the right, an overflow water washing component 102 electrically connected to the control panel is installed on the base frame 1, wherein the overflow water washing component 102 is an existing structure, and its principle is roughly to connect a water storage tank through a water inlet pipe with a smaller inner diameter and a drainage pipe with a larger inner diameter at the same time, the water inlet pipe is on the top, and the drainage pipe is on the bottom, so that when water is inletted, the water flow overflows through the drainage pipe on the lower side synchronously, so that the water flow can continuously and slowly wash the surface of the heat insulation board to prevent the heat insulation board from being damaged, and the base frame 1 A first hydraulic telescopic rod 103 is fixedly connected to a position near the overflow water washing part 102, and a first connecting rod 104 is fixedly connected to the telescopic end of the first hydraulic telescopic rod 103. The overflow water washing part 102 is rotatably connected through its drainage pipe and communicated with a plurality of rotating rings 105 distributed in a linear array. The rotating ring 105 and the first connecting rod 104 are transmitted through a first transmission member, wherein the first transmission member is a gear rack structure that meshes with each other, the gear is fixedly connected to the adjacent rotating ring 105, and the rack is fixedly connected to the first connecting rod 104. A drainage pipe 106 is rotatably connected to the rotating ring 105, and a first hole 107 is provided on the rotating ring 105. A circular second hole 108 that communicates and cooperates with the adjacent first hole 107 is provided on the drainage pipe 106, wherein the first hole 107 is arc-shaped, and if it is Figure 5 When the front view is a rotation angle of view, the width of the first hole 107 gradually narrows in the counterclockwise direction, and is used to gradually reduce the flow area between the first hole 107 and the adjacent second hole 108 during the counterclockwise rotation of the first hole 107. A force storage component 3 for transmitting the extension and retraction of the first hydraulic telescopic rod 103 is provided on the base frame 1.

[0045] like Figure 4 As shown, the lower sides of the drainage pipes 106 distributed in a linear array are fixedly connected and communicated with a drainage box 2. A plurality of drainage outlets distributed in a linear array are provided on the lower side of the drainage box 2. The flow area of ​​the drainage box 2 from top to bottom remains unchanged. The width of the upper drainage outlet of the drainage box 2 is larger than the inner diameter of the adjacent drainage pipe 106, which is used to increase the front-to-rear width of the water flow when flowing out of the upper drainage outlet of the drainage box 2, thereby increasing the contact area between the water flow and the insulation board, thereby avoiding dead corners for water washing on the surface of the insulation board.

[0046] like Figure 2 , Figure 6 , Figure 7 and Fig. 9As shown, the power storage component 3 includes a first motor 301 electrically connected to the control panel, the first motor 301 is fixedly connected to the base frame 1, the output shaft of the first motor 301 is fixedly connected to the adjacent rotating roller 101, and a rotating shaft 302 is rotatably connected to the base frame 1, and the output shaft of the first motor 301 and the rotating shaft 302 are transmitted through a second transmission member, wherein the second transmission member is two mutually meshing spur gears, one spur gear is fixedly connected to the rotating shaft 302, and the other spur gear is fixedly connected to the output shaft of the first motor 301, and the rotating shaft 302 is rotated. 02 upper limit rotationally connected with a rotating disk 303, a plurality of first wedge blocks 6 evenly distributed in the circumferential direction are fixedly connected to the rotating shaft 302, and a position close to the first wedge blocks 6 in the gear ring 304 is fixedly connected with second wedge blocks 601 evenly distributed in the circumferential direction, and the second wedge blocks 601 evenly distributed in the circumferential direction are pressed and matched with the first wedge blocks 6 evenly distributed in the circumferential direction. When the rotating disk 303 cannot rotate, the first wedge blocks 6 are pressed against the inclined surfaces of the adjacent second wedge blocks 601 during the rotation process, so that the rotating shaft 302 and the rotating disk 303 are not rotated. The rotating disk 303 can generate relative rotation, and when the rotating shaft 302 is reversed and reset, the first wedge block 6 drives the rotating disk 303 to rotate through the second wedge block 601 during the rotation process. The first wedge block 6 and the second wedge block 601 are both made of flexible materials. A gear ring 304 is fixedly connected to the rotating disk 303, a spring 305 is fixedly connected to the rear side of the rotating disk 303, the outer ring of the spring 305 is fixedly connected to the rotating disk 303, the inner ring of the spring 305 is fixedly connected to the rotating shaft 302, and a screw is fixedly connected to the front side of the rotating disk 303. A threaded telescopic rod 306, the telescopic end of the threaded telescopic rod 306 is connected to the rotating shaft 302 for limiting sliding, the rotating shaft 302 is rotatably connected with a sliding frame 307, the telescopic end of the threaded telescopic rod 306 is fixedly connected to a cylindrical rod that is limited in sliding with the sliding frame 307, a second hydraulic telescopic rod 308 connected to the first hydraulic telescopic rod 103 through a conduit is fixedly connected to the base frame 1, the telescopic end of the second hydraulic telescopic rod 308 is fixedly connected to the sliding frame 307, and a trigger component 4 for limiting the gear ring 304 is provided on the base frame 1.

[0047] like Figure 2 , Figure 6 and Figure 8As shown, the trigger assembly 4 includes a first electrically controlled telescopic rod 401 electrically connected to the control panel, the first electrically controlled telescopic rod 401 is fixedly connected to the front side of the base frame 1, the telescopic end of the first electrically controlled telescopic rod 401 is fixedly connected to a limit rod 402, the limit rod 402 is L-shaped, and the rear portion of the lower side of the limit rod 402 is provided with an inclined surface, the front side of the base frame 1 is slidably connected to a limit block 403 that is pressed and matched with the limit rod 402, and the limit block 403 is provided with a through hole with an inclined surface, and the inclined surface of the limit rod 402 presses the inclined surface of the limit block 403 and passes through it The upper through hole is used to move the limit block 403 to the left. An elastic member is fixed between the limit block 403 and the base frame 1, wherein the elastic member is a tension spring. The limit block 403 is limited in cooperation with the toothed ring 304. A protrusion is provided on the left side of the limit block 403, and the protrusion is used to be inserted into the toothed ring 304 to prevent the toothed ring 304 from rotating. Pressure sensors 5 are provided on two non-adjacent rotating rollers 101. The pressure sensor 5 on the right is located below the drainage box 2, and the pressure sensor 5 on the left is located below the drainage box 2 close to the sliding frame 307.

[0048] like Figure 6 and Fig.11 As shown, a first trigger rod 7 is fixedly connected to the rear side of the sliding frame 307, and a first sliding rheostat 701 electrically connected to the control panel is fixedly connected to the front side of the base frame 1. When the sliding piece of the first sliding rheostat 701 moves backward, its resistance increases, thereby reducing the amount of current flowing in the drying member 702. If the sliding piece of the first sliding rheostat 701 moves forward, its resistance decreases, thereby increasing the amount of current flowing in the drying member 702. The first trigger rod 7 is fixedly connected to the sliding piece of the first sliding rheostat 701, and a drying member 702 electrically connected to the control panel is installed on the base frame 1 away from the overflow water washing member 102, and the first sliding rheostat 701 is electrically connected to the drying member 702.

[0049] When the operator needs to use the device to wash the heat insulation sheet, the operator first places the heat insulation sheet on the roller of the rotating roller 101, and simultaneously turns on the first motor 301. The output shaft of the first motor 301 drives the adjacent rotating rollers 101 to rotate. The rotating rollers 101 are driven by a transmission belt, so that several rotating rollers 101 rotate and drive the heat insulation sheet to the right through several rollers. When the heat insulation sheet moves to contact the pressure sensor 5 on the left, the pressure sensor 5 is stressed and feeds back the signal to the control panel. The control panel controls the telescopic end of the first electrically-controlled telescopic rod 401 to retract, and the telescopic end of the first electrically-controlled telescopic rod 401 drives the limit rod. 402 moves backward, the limit rod 402 squeezes the limit block 403 to move to the left, the elastic part of the limit block 403 is gradually stretched, and then when the limit rod 402 passes through the limit block 403, the limit block 403 moves and limits the gear ring 304, and when the heat insulation plate moves to contact with the pressure sensor 5 on the right, the pressure sensor 5 is subjected to force and feeds back the signal to the control panel, and the control panel controls the telescopic end of the first electrically-controlled telescopic rod 401 to stop contracting and start to extend and reset. Since the movement of the heat insulation plate depends on the friction between the roller, the smoother the surface of the heat insulation plate, the longer it takes to move from the pressure sensor 5 on the left to the pressure sensor 5 on the right.

[0050] When the heat insulation plate moves toward the first pressure sensor 5 on the left, the first motor 301 drives the rotating shaft 302 to rotate through the second transmission member, the rotating shaft 302 drives the rotating disk 303 to rotate through a plurality of first wedge blocks 6 and a plurality of second wedge blocks 601, the rotating disk 303 drives the gear ring 304 to rotate, the rotating disk 303 drives the spring 305 and the fixed part of the threaded telescopic rod 306 to rotate, and the rotating shaft 302 drives the telescopic end of the threaded telescopic rod 306 to rotate.

[0051] In the process of the heat insulation plate moving from the pressure sensor 5 on the left to the pressure sensor 5 on the right, the limit block 403 limits the gear ring 304. At this time, the gear ring 304 and the rotating disk 303 cannot rotate. In the process of the rotation of the shaft 302, the first wedge blocks 6 and the second wedge blocks 601 squeeze each other, so that the shaft 302 continues to rotate and drives the mainspring 305 to rotate and store force. At this time, the rotating disk 303 cannot drive the fixed part of the threaded telescopic rod 306 to rotate, and the shaft 302 drives the telescopic end of the threaded telescopic rod 306 to rotate and contract. The telescopic end drives the sliding frame 307 to move backward, and the sliding frame 307 drives the telescopic end of the second hydraulic telescopic rod 308 to move backward. The second hydraulic telescopic rod 308 squeezes the internal hydraulic oil into the first hydraulic telescopic rod 103 through the conduit, so that the telescopic end of the first hydraulic telescopic rod 103 extends and drives the first connecting rod 104 to move downward. The first connecting rod 104 drives several rotating rings 105 to rotate simultaneously through several first transmission parts, and the rotating ring 105 drives the first hole 107 thereon to rotate (the first hole 107 and the adjacent second hole 108 are offset and blocked in the initial state).

[0052] When the rotating ring 105 drives the first hole 107 thereon to start rotating, the widest part of the first hole 107 first rotates to align with the adjacent second hole 108. The smoother the surface of the heat insulation sheet is, the longer it takes for it to travel from the pressure sensor 5 on the left to the pressure sensor 5 on the right, resulting in a longer distance for the telescopic end of the threaded telescopic rod 306 to contract, so that the telescopic end of the first hydraulic telescopic rod 103 drives the first connecting rod 104 to move downward. The rotating ring 105 drives the first hole 107 thereon to rotate at a larger angle, thereby making the first hole 107 aligned with the adjacent second hole 108. The smaller the flow area of ​​the second hole 108, the operator turns on the overflow water washing component 102 through the control panel, and then the water flows through the drain pipe of the overflow water washing component 102, the first hole 107, the second hole 108 and the drain port of the drainage box 2 to be discharged to the surface of the insulation sheet, and the insulation sheets with different smoothness are washed with water to prevent the insulation sheets from having rough surfaces such as frosted surfaces, which may lead to insufficient washing force, resulting in impurities on the surface of the insulation sheets, and at the same time prevent the insulation sheets with smooth surfaces from being impacted by too much water flow and unable to move, which may cause the insulation sheets to be damaged by the water flow impact for too long.

[0053] During the process of the sliding frame 307 moving backward, the sliding frame 307 drives the first trigger rod 7 to move backward, and the first trigger rod 7 drives the sliding piece of the first sliding rheostat 701 to move backward, so that the resistance of the first sliding rheostat 701 increases, and the operator turns on the drying component 702 through the control panel, and the flow of current in the drying component 702 decreases, thereby reducing the drying intensity of the drying component 702 in advance, so that the smoother the surface of the insulation board, the lower the drying temperature, and the rougher the surface of the insulation board, the higher the drying temperature, so as to prevent the insulation board from being deformed due to excessive drying intensity, and at the same time prevent the residual water stains in the surface grooves of the insulation board from being difficult to dry when the surface of the insulation board is rough.

[0054] When the heat insulation sheet moves to contact the pressure sensor 5 on the right, the pressure sensor 5 is stressed and feeds back the signal to the control panel, and the control panel controls the telescopic end of the first electrically-controlled telescopic rod 401 to stop contracting and start to extend and reset, and the telescopic end of the first electrically-controlled telescopic rod 401 resets and drives the limit rod 402 to gradually reset, so that the limit block 403 and the limit rod 402 gradually lose their limit, and the elastic part of the limit block 403 drives it to reset, and the limit block 403 and the gear ring 304 lose their limit, and the clockwork 305 drives the rotating disk 303 to reset, and the rotating disk 303 drives the screw The fixed part of the threaded telescopic rod 306 rotates and resets, the telescopic end of the threaded telescopic rod 306 drives the telescopic end of the second hydraulic telescopic rod 308 to reset through the sliding frame 307, the second hydraulic telescopic rod 308 extracts the hydraulic oil in the first hydraulic telescopic rod 103, the telescopic end of the first hydraulic telescopic rod 103 drives the plurality of rotating rings 105 to reset through the first connecting rod 104 and the plurality of first transmission members, so that the first hole 107 rotates and resets and is blocked again with the adjacent second hole 108, the above steps are repeated, and the thermal insulation sheet is continuously washed in batches.

[0055] After the heat insulation sheet is washed and dried, the operator removes and collects the heat insulation sheet. After finishing using the device, the operator turns off the overflow water washing component 102, the first motor 301, the first electrically controlled telescopic rod 401 and the drying component 702 through the control panel, and cleans the device for the next use.

[0056] Embodiment 2: Based on embodiment 1, Figure 2 , Figure 3 and Fig.10As shown, it also includes a plurality of fixed frames 8 distributed in a linear array, the number of the fixed frames 8 is the same as the number of the drainage outlets of the drainage box 2, the fixed frames 8 distributed in the linear array are all fixedly connected to the base frame 1, the fixed frames 8 are located at the lower side of the adjacent drainage outlets on the drainage box 2, the fixed frames 8 are rotatably connected to the rotating frame 801, the base frame 1 is slidably connected to two symmetrically distributed electromagnetic sliders 802 electrically connected to the control panel at a position close to the rotating frame 801 distributed in the linear array, the two electromagnetic sliders 802 are commonly fixedly connected to a sliding rod 803, and the sliding rod 803 is fixedly connected to There are a number of limit pins 804, the number of which is the same as the number of rotating frames 801. The limit pins 804 are rotatably and slidably connected to adjacent rotating frames 801, so as to provide the limit pins 804 with a margin for left and right movement when the rotating frames 801 rotate. The distance between adjacent rotating frames 801 gradually decreases from left to right, the distance between adjacent fixed frames 8 gradually decreases from left to right, and the distance between two adjacent rotating frames 801 is greater than the side length of the heat insulation board, and the maximum width in the front-to-back direction of the rotating frame 801 is the same as the minimum width in the front-to-back direction of the adjacent fixed frames 8.

[0057] When the heat insulation board moves to the position of the rotating frame 801, the operator turns on the electromagnetic slider 802 through the control panel. The electromagnetic slider 802 drives several limit pins 804 to move back and forth synchronously through the sliding rod 803. The limit pins 804 drive the adjacent rotating frame 801 to move back and forth. The rotating frame 801 rotates slightly around the adjacent fixed frame 8. The heat insulation board first squeezes in and passes between the two adjacent rotating frames 801, and then enters between the two adjacent fixed frames 8. As the heat insulation board moves from left to right, the heat insulation board is limited by the rotating frames 801 on the front and rear sides and the adjacent fixed frames 8 and is gradually straightened. The heat insulation board passing here is straightened to prevent the heat insulation board from being excessively deflected, causing it to face the right side at a right angle and be distorted downward by the water flow, thereby causing the heat insulation board to be stuck between the two adjacent rotating rollers 101. After using this device, the operator turns off the electromagnetic slider 802 through the control panel.

[0058] Embodiment 3: Based on embodiment 2, Figure 4 and Fig.12As shown, it also includes a second electrically controlled telescopic rod 9 electrically connected to the control panel, the second electrically controlled telescopic rod 9 is fixedly connected to the overflow water washing part 102, and the telescopic end of the second electrically controlled telescopic rod 9 is fixedly connected to a blocking shell 901, and the blocking shell 901 cooperates with the drain outlet of the drain box 2 to block the drain box 2. When the blocking shell 901 moves to the left, the drain outlet of the drain box 2 is gradually blocked, so that the water pressure of the drain outlet of the drain box 2 is increased, and a flow port connected to the drain box 2 is provided on the blocking shell 901, and a second trigger rod 902 is fixedly connected to the overflow water washing part 102. 02 is fixedly connected with a second sliding rheostat 903. When the sliding piece of the second sliding rheostat 903 moves to the left, the resistance of the second sliding rheostat 903 decreases, thereby increasing the current flow in the water pump 904 and increasing the water supply of the water pump 904. The sliding piece of the second sliding rheostat 903 is squeezed and matched with the second trigger rod 902. The overflow water washing part 102 is fixedly connected with a water pump 904 connected to the blocking shell 901. The water pump 904 is electrically connected to the control panel and connected to the external water source through a pipeline. The second sliding rheostat 903 is electrically connected to the water pump 904.

[0059] like Figure 4 and Figure 11-13 As shown, the overflow washing part 102 is fixedly connected with a third hydraulic telescopic rod 10 which is symmetrically distributed frontward and rearward, and the telescopic end of the third hydraulic telescopic rod 10 is fixedly connected to the blocking shell 901. A plurality of water-absorbing rollers 1001 distributed in a linear array are rotatably and slidably connected to the bottom frame 1. The water-absorbing rollers 1001 distributed in the linear array are all located between the overflow washing part 102 and the drying part 702. The water-absorbing rollers 1001 are cotton rollers, and the adjacent water-absorbing rollers 1001 are driven by a transmission belt. A second motor 1002 which is electrically connected to the control panel is slidably connected in the bottom frame 1, and the output shaft of the second motor 1002 is fixedly connected to the adjacent water-absorbing rollers 1001. Next, a fourth hydraulic telescopic rod 1003 is fixedly connected to a position near the water-absorbing roller 1001 in the base frame 1, which is symmetrically distributed and connected to the adjacent third hydraulic telescopic rod 10 through a conduit. A second connecting rod 1004 is fixedly connected to the telescopic end of the fourth hydraulic telescopic rod 1003. The second connecting rod 1004 is used to synchronously drive a plurality of water-absorbing rollers 1001 to move upward. The second connecting rod 1004 is rotatably connected to the water-absorbing roller 1001 through a swivel. The second motor 1002 is fixedly connected to the adjacent second connecting rod 1004. During the up and down movement of the second connecting rod 1004, the second motor 1002 is driven to move up and down synchronously.

[0060] Before the operator washes the insulation board, he first manually measures the thickness of the insulation board and adjusts the extension amount of the telescopic end of the second electric telescopic rod 9 through the control panel, so that the thicker the insulation board, the greater the extension amount of the telescopic end of the second electric telescopic rod 9. The telescopic end of the second electric telescopic rod 9 drives the blocking shell 901 to partially block several drainage ports on the drainage box 2, and the blocking shell 901 drives the sliding piece of the second sliding rheostat 903 to move through the second trigger rod 902, and the resistance of the second sliding rheostat 903 is reduced. The flow rate of the current of the water pump 904 increases. The operator turns on the water pump 904, and the water pump 904 injects external water into the sealing shell 901. The water flows into the drainage box 2 through the flow port of the sealing shell 901, and then is discharged through the drainage port of the drainage box 2, so that the flow area of ​​the drainage port of the drainage box 2 is reduced while its flow rate is increased, so that the thicker insulation board is cleaned with higher intensity to prevent the overflow water washing from being inefficient, and at the same time avoid the water washing force being too strong to affect the movement of the thinner insulation board or even cause it to break.

[0061] During the movement of the blocking shell 901, the blocking shell 901 drives the telescopic ends of the two third hydraulic telescopic rods 10 to move, and the third hydraulic telescopic rod 10 squeezes the internal hydraulic oil into the adjacent fourth hydraulic telescopic rod 1003 through the conduit, so that the telescopic end of the fourth hydraulic telescopic rod 1003 extends, and the telescopic end of the fourth hydraulic telescopic rod 1003 drives the adjacent second connecting rod 1004 to move, and several second connecting rods 1004 synchronously drive all the water-absorbing rollers 1001 to move upward, so that when the thickness of the insulation board is large, the height of the water-absorbing roller 1001 is synchronously adjusted to prevent the position of the water-absorbing roller 1001 from being too low to affect the movement of the thick insulation board, and at the same time prevent the position of the water-absorbing roller 1001 from being too high to affect the wiping strength of the thin insulation board. During the movement of the insulation board, the operator turns on the second motor 1002 through the control panel, and the output shaft of the second motor 1002 drives the adjacent water-absorbing rollers 1001 to rotate, so that several water-absorbing rollers 1001 are driven by the transmission belt and rotate synchronously to wipe the water stains on the surface of the insulation board.

[0062] After the insulation sheet has been washed, wiped and dried, the operator removes and collects the insulation sheet. If the other side of the insulation board needs to be washed, the insulation board is turned over and the above steps are repeated for washing. After using the device, the operator turns off the overflow washing part 102, the first motor 301, the first electrically-controlled telescopic rod 401, the drying part 702, the electromagnetic slider 802, the second electrically-controlled telescopic rod 9, the water pump 904 and the second motor 1002 through the control panel, and cleans the device for the next use.

[0063] Embodiment 4: Based on the embodiment 3, Figure 1-Figure 13 As shown, a ceramic aerogel insulation sheet water washing process is based on the above-mentioned ceramic aerogel insulation sheet water washing device, and the specific steps are as follows:

[0064] Step 1: Place the heat insulation board on the rotating roller 101, and rotate the rotating roller 101, so that the heat insulation board moves and first presses the first pressure sensor 5;

[0065] Step 2: Before washing the heat insulation board, the telescopic end of the second electrically controlled telescopic rod 9 drives the blocking shell 901 to partially block several drain ports on the drain box 2. The blocking shell 901 drives the sliding piece of the second sliding rheostat 903 to move through the second trigger rod 902. Water flows into the drain box 2 through the flow port of the blocking shell 901, and then is discharged through the drain port of the drain box 2. The movement of the blocking shell 901 drives the telescopic end of the third hydraulic telescopic rod 10 to move. The height of the corresponding water suction roller 1001 is adjusted by hydraulic transmission between the third hydraulic telescopic rod 10 and the adjacent fourth hydraulic telescopic rod 1003.

[0066] Step 3: After the heat insulation board passes through the first pressure sensor 5, the telescopic end of the first electrically controlled telescopic rod 401 contracts, and the telescopic end of the first electrically controlled telescopic rod 401 drives the limiting rod 402 to penetrate into the limiting block 403, and the gear ring 304 is limited by the limiting block 403 and cannot rotate;

[0067] Step 4: When the heat shield moves to the position of the rotating frame 801, the electromagnetic slider 802 drives a plurality of limit pins 804 to move back and forth synchronously through the sliding rod 803, and the limit pins 804 drive the adjacent rotating frame 801 to move back and forth, and the rotating frame 801 rotates slightly around the adjacent fixed frame 8, and the heat shield moves from left to right along the inclined surfaces of the rotating frame 801 and the adjacent fixed frame 8;

[0068] Step 5: When the gear ring 304 cannot rotate, the telescopic end of the threaded telescopic rod 306 rotates relative to its fixed part, so that the telescopic end of the threaded telescopic rod 306 extends, and the telescopic end of the threaded telescopic rod 306 drives the sliding frame 307 to move, and the sliding frame 307 squeezes the telescopic end of the second hydraulic telescopic rod 308 to move. During the movement of the sliding frame 307, the sliding frame 307 drives the sliding piece of the first sliding rheostat 701 to move through the first trigger rod 7;

[0069] Step 6: When the telescopic end of the second hydraulic telescopic rod 308 contracts, the hydraulic oil inside it is squeezed into the first hydraulic telescopic rod 103 through the conduit, and the telescopic end of the first hydraulic telescopic rod 103 drives the adjacent first hole 107 to rotate through the first connecting rod 104, the first transmission member and the rotating ring 105;

[0070] Step 7: The water flows through the drain pipe of the overflow water washing part 102, the first hole 107, the second hole 108 and the drain port of the drain box 2 to the surface of the heat insulation sheet in sequence;

[0071] Step 8: When the heat insulation sheet moves to contact the pressure sensor 5 on the right, the telescopic end of the first electrically controlled telescopic rod 401 is reset, driving the limit rod 402 to gradually reset, so that the limit block 403 and the limit rod 402 gradually lose their limit, the clockwork 305 drives the rotating disk 303 to reset, the rotating disk 303 drives the fixed part of the threaded telescopic rod 306 to rotate and reset, the telescopic end of the threaded telescopic rod 306 drives the telescopic end of the second hydraulic telescopic rod 308 to reset through the sliding frame 307, and the hydraulic transmission between the second hydraulic telescopic rod 308 and the first hydraulic telescopic rod 103 drives the first hole 107 to rotate and reset and block the adjacent second hole 108 again;

[0072] Step 9: After the heat insulation board moves to the position of the water absorption roller 1001, the output shaft of the second motor 1002 drives the adjacent water absorption rollers 1001 to rotate, so that several water absorption rollers 1001 are driven by the transmission belt and rotate synchronously, and then the water stains on the heat insulation board are dried by the drying element 702;

[0073] Step 10: After the insulation sheet has been washed, wiped dry and dried, remove and collect the insulation sheet. If the other side of the insulation board needs to be washed, turn the insulation board over and repeat the above steps for washing. After using the device, turn off the power of the device and clean the device.

[0074] The above is only a preferred embodiment of the present invention. It should be pointed out that for ordinary technicians in this technical field, several improvements and modifications can be made without departing from the principle of the present invention. These improvements and modifications should also be regarded as the scope of protection of the present invention.

Claims

1. A ceramic aerogel heat insulation sheet washing device, comprising a base frame (1), the base frame (1) being rotatably connected to rotating rollers (101) distributed in a linear array, adjacent rotating rollers (101) being driven by a transmission belt, the rotating rollers (101) being fixedly connected to rollers distributed in a linear array, the base frame (1) being installed with an overflow washing member (102), wherein: It also comprises a first hydraulic telescopic rod (103), the first hydraulic telescopic rod (103) being fixedly connected to a position on the base frame (1) close to the overflow water washing component (102), the telescopic end of the first hydraulic telescopic rod (103) being fixedly connected to a first connecting rod (104), the overflow water washing component (102) being rotatably connected to and connected to a rotating ring (105) distributed in a linear array through its drainage pipe, the rotating ring (105) and the first connecting rod (104) being transmitted via a first transmission member, the rotating ring (105) being rotatably connected to a drainage pipe (106), the rotating ring (105) being provided with a first hole (107), the drainage pipe (106) being provided with a second hole (108) communicating and cooperating with the adjacent first hole (107), and the base frame (1) being provided with a force storage component (3) for driving the first hydraulic telescopic rod (103) to extend and retract; The lower sides of the drainage pipes (106) distributed in a linear array are fixedly connected to and communicated with a drainage box (2), the lower side of the drainage box (2) is provided with drainage outlets distributed in a linear array, the flow area of ​​the drainage box (2) is constant from top to bottom, and the width of the upper drainage outlet of the drainage box (2) is greater than the inner diameter of the adjacent drainage pipe (106); The power storage component (3) comprises a first motor (301), the first motor (301) being fixedly connected to the base frame (1), the output shaft of the first motor (301) being fixedly connected to the adjacent rotating roller (101), a rotating shaft (302) being rotatably connected to the base frame (1), the output shaft of the first motor (301) and the rotating shaft (302) being transmitted via a second transmission member, a rotating disk (303) being rotatably connected to the upper limit position of the rotating shaft (302), a gear ring (304) being fixedly connected to the rotating disk (303), a spring (305) being fixedly connected to a side of the rotating disk (303) close to the base frame (1), one end of the spring (305) being fixedly connected to the rotating shaft (302), A threaded telescopic rod (306) is fixedly connected to a side of the rotating disk (303) away from the base frame (1); the telescopic end of the threaded telescopic rod (306) is connected to the rotating shaft (302) in a limited sliding manner; a sliding frame (307) is rotatably connected to the rotating shaft (302); the telescopic end of the threaded telescopic rod (306) is fixedly connected to a cylindrical rod that is limited and slidable with the sliding frame (307); a second hydraulic telescopic rod (308) that is connected to the first hydraulic telescopic rod (103) is fixedly connected to the base frame (1); the telescopic end of the second hydraulic telescopic rod (308) is fixedly connected to the sliding frame (307); and a trigger component (4) for limiting the position of the gear ring (304) is provided on the base frame (1); The trigger assembly (4) comprises a first electrically controlled telescopic rod (401), the first electrically controlled telescopic rod (401) being fixedly connected to a position of the base frame (1) close to the rotating disk (303), a telescopic end of the first electrically controlled telescopic rod (401) being fixedly connected to a limit rod (402), a limit block (403) being slidably connected to a position of the base frame (1) close to the first electrically controlled telescopic rod (401) and being pressed and matched with the limit rod (402), an elastic member being fixedly connected between the limit block (403) and the base frame (1), the limit block (403) being limitedly matched with the gear ring (304), wherein two non-adjacent rotating rollers (101) are both provided with pressure sensors (5), one of the pressure sensors (5) being located below the drainage box (2), and the other of the pressure sensors (5) being located below the drainage box (2) close to the sliding frame (307); The rotating shaft (302) is fixedly connected with a first wedge block (6) evenly distributed in the circumferential direction, and a second wedge block (601) evenly distributed in the circumferential direction is fixedly connected to a position in the gear ring (304) close to the first wedge block (6). The second wedge blocks (601) evenly distributed in the circumferential direction are squeezed and matched with the first wedge blocks (6) evenly distributed in the circumferential direction, and the first wedge block (6) and the second wedge block (601) are both made of flexible material.

2. A ceramic aerogel insulation sheet washing device according to claim 1, characterized in that: A first trigger rod (7) is fixedly connected to one side of the sliding frame (307) close to the base frame (1); a first sliding rheostat (701) is fixedly connected to one side of the base frame (1) close to the first trigger rod (7); the first trigger rod (7) is fixedly connected to a sliding piece of the first sliding rheostat (701); a drying component (702) is installed on the base frame (1) at a position away from the overflow washing component (102); and the first sliding rheostat (701) is electrically connected to the drying component (702).

3. A ceramic aerogel insulation sheet washing device according to claim 2, characterized in that: The invention also comprises a fixed frame (8) distributed in a linear array, wherein the fixed frames (8) distributed in a linear array are all fixedly connected to a position on the base frame (1) close to the sliding frame (307), the fixed frame (8) is rotatably connected to a rotating frame (801), and a position on the base frame (1) close to the rotating frame (801) distributed in a linear array is slidably connected to symmetrically distributed electromagnetic sliders (802), the symmetrically distributed electromagnetic sliders (802) are commonly fixedly connected to a sliding rod (803), and the sliding rod (803) is fixedly connected to a linear array. Limit pins (804) are arranged in a row, the limit pins (804) are rotatably and slidably connected to adjacent rotating frames (801), the distance between adjacent rotating frames (801) gradually decreases from a side away from the fixed frame (8) to a side close to the fixed frame (8), the distance between adjacent fixed frames (8) gradually decreases from a side close to the rotating frame (801) to a side away from the rotating frame (801), and the maximum width of the rotating frame (801) is the same as the minimum width of the adjacent fixed frames (8).

4. A ceramic aerogel insulation sheet water washing device according to claim 3, characterized in that: The invention also comprises a second electrically controlled telescopic rod (9), the second electrically controlled telescopic rod (9) being fixedly connected to the overflow water washing part (102), a sealing shell (901) being fixedly connected to the telescopic end of the second electrically controlled telescopic rod (9), the sealing shell (901) being in sealing cooperation with the drainage outlet of the drainage box (2), the sealing shell (901) being provided with a flow port connected with the drainage box (2), a second triggering rod (902) being fixedly connected to the sealing shell (901), a second sliding rheostat (903) being fixedly connected to the overflow water washing part (102), a sliding plate of the second sliding rheostat (903) being pressed and cooperated with the second triggering rod (902), a water pump (904) connected with the sealing shell (901) being fixedly connected to the overflow water washing part (102), and the second sliding rheostat (903) being electrically connected with the water pump (904).

5. A ceramic aerogel insulation sheet washing device according to claim 4, characterized in that: The overflow water washing part (102) is fixedly connected to a symmetrically distributed third hydraulic telescopic rod (10), and the telescopic end of the third hydraulic telescopic rod (10) is fixedly connected to the blocking shell (901). The bottom frame (1) is rotatably and slidably connected to water absorbing rollers (1001) distributed in a linear array, and the water absorbing rollers (1001) distributed in a linear array are all located between the overflow water washing part (102) and the drying part (702). The adjacent water absorbing rollers (1001) are driven by a transmission belt. A second motor (1002) is slidably connected to the bottom frame (1). The output shafts of the two motors (1002) are fixedly connected to the adjacent water-absorbing roller (1001); fourth hydraulic telescopic rods (1003) which are symmetrically distributed and connected to the adjacent third hydraulic telescopic rods (10) are fixedly connected to the positions of the base frame (1) near the water-absorbing roller (1001); the telescopic ends of the fourth hydraulic telescopic rods (1003) are fixedly connected to second connecting rods (1004); the second connecting rods (1004) are rotatably connected to the water-absorbing roller (1001) via a swivel; and the second motor (1002) is fixedly connected to the adjacent second connecting rods (1004).

6. A water washing process for a ceramic aerogel insulation sheet, characterized in that: According to the ceramic aerogel insulation sheet water washing device according to claim 5, the specific use method is as follows: Step 1: placing the heat shield on the rotating roller (101), and rotating the rotating roller (101), the heat shield moves forward and first presses the first pressure sensor (5); Step 2: Before washing the heat insulation board, the telescopic end of the second electrically controlled telescopic rod (9) drives the blocking shell (901) to partially block a plurality of drain openings on the drain box (2). The blocking shell (901) drives the sliding plate of the second sliding rheostat (903) to move through the second trigger rod (902). Water flows into the drain box (2) through the flow port of the blocking shell (901) and then is discharged through the drain opening of the drain box (2). The movement of the blocking shell (901) drives the telescopic end of the third hydraulic telescopic rod (10) to move. The height of the corresponding water suction roller (1001) is adjusted through hydraulic transmission between the third hydraulic telescopic rod (10) and the adjacent fourth hydraulic telescopic rod (1003); Step 3: After the heat insulation board passes through the first pressure sensor (5), the telescopic end of the first electrically controlled telescopic rod (401) contracts, and the telescopic end of the first electrically controlled telescopic rod (401) drives the limiting rod (402) to penetrate into the limiting block (403), and the gear ring (304) is limited by the limiting block (403) and cannot rotate; Step 4: When the heat insulation plate moves to the position of the rotating frame (801), the electromagnetic slider (802) drives a plurality of limit pins (804) to move back and forth synchronously through the sliding rod (803), the limit pins (804) drive the adjacent rotating frame (801) to move back and forth, the rotating frame (801) rotates slightly around the adjacent fixed frame (8), and the heat insulation plate moves from left to right along the inclined surfaces of the rotating frame (801) and the adjacent fixed frame (8); Step 5: When the gear ring (304) cannot rotate, the telescopic end of the threaded telescopic rod (306) rotates relative to its fixed portion, so that the telescopic end of the threaded telescopic rod (306) extends, and the telescopic end of the threaded telescopic rod (306) drives the sliding frame (307) to move, and the sliding frame (307) squeezes the telescopic end of the second hydraulic telescopic rod (308) to move. During the movement of the sliding frame (307), the sliding frame (307) drives the sliding piece of the first sliding rheostat (701) to move through the first trigger rod (7); Step 6: When the telescopic end of the second hydraulic telescopic rod (308) contracts, the hydraulic oil inside it is squeezed into the first hydraulic telescopic rod (103) through the conduit, and the telescopic end of the first hydraulic telescopic rod (103) drives the adjacent first hole (107) to rotate through the first connecting rod (104), the first transmission member and the rotating ring (105); Step 7: The water flows sequentially through the drain pipe of the overflow water washing component (102), the first hole (107), the second hole (108) and the drain port of the drain box (2) and is discharged to the surface of the heat insulation sheet; Step 8: When the heat insulation sheet moves to contact the pressure sensor (5) on the right side, the telescopic end of the first electrically controlled telescopic rod (401) is reset, driving the limit rod (402) to gradually reset, so that the limit block (403) and the limit rod (402) gradually lose their limit, the clockwork (305) drives the rotating disk (303) to reset, the rotating disk (303) drives the fixed part of the threaded telescopic rod (306) to rotate and reset, the telescopic end of the threaded telescopic rod (306) drives the telescopic end of the second hydraulic telescopic rod (308) to reset through the sliding frame (307), and the hydraulic transmission between the second hydraulic telescopic rod (308) and the first hydraulic telescopic rod (103) drives the first hole (107) to rotate and reset and block the adjacent second hole (108) again; Step 9: After the heat insulation board moves to the position of the water absorption roller (1001), the output shaft of the second motor (1002) drives the adjacent water absorption roller (1001) to rotate, so that the plurality of water absorption rollers (1001) are driven by the transmission belt and rotate synchronously, and then the water stains on the heat insulation board are dried by the drying element (702); Step 10: After the insulation sheet has been washed, wiped dry and dried, remove and collect the insulation sheet. If the other side of the insulation board needs to be washed, turn the insulation board over and repeat the above steps for washing. After using the device, turn off the power of the device and clean the device.

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