A repair device for hollow tiles

Abstract

The present application discloses a repair device for tile hollowing. During the continuous rotation of the elliptical wheel, the force-bearing block below is intermittently squeezed, causing the force-bearing block to drive the exhaust plate to press down and squeeze the rubber sleeve. Under the protection of the rubber sleeve, it flexibly impacts the tile below. At this time, the pressing exhaust plate will pull the vibration spring to stretch and store energy. When the elliptical wheel leaves the force-bearing block, the energy-storing vibration spring will pull the exhaust plate to lift. In this way, the exhaust plate will quickly squeeze the tile below multiple times, causing the tile to vibrate, thereby affecting the slurry injected into the hollow, prompting the slurry to quickly fill all spaces under vibration, and squeezing the air in the hollow into the slurry and quickly discharging it through the holes under vibration, reducing the remaining small spaces below the tile after repair and the bubbles in the slurry.

Description

Technical Field

[0001] This application relates to the technical field of tile repair, and particularly to a repair device for tile hollowing. Background Art

[0002] Tile hollowing refers to a phenomenon that after the tiles are laid, due to insufficient contact between one or more tiles and the wall or floor, the tiles lose support and bearing capacity, resulting in problems such as tile detachment, arching, inability to drill holes, and cracking.

[0003] When the above problems occur, the tiles are generally removed and reinstalled. However, this method is time-consuming and laborious, and the repair cycle is longer. Therefore, there is also a more convenient grouting repair method. Mainly, after the maintenance personnel drill holes at the hollow position, a viscous repair slurry (generally materials such as cement, water, or resin) is prepared, and the slurry is injected into the hollow position through the injection device through the holes to fill the voids. Then, a heavy object is pressed on the tile surface, and the heavy object is removed after the grouting dries to complete the hollow repair.

[0004] Although the above grouting method for repairing tiles is simpler and more convenient, both the preparation and injection of the repair slurry require manual operation by maintenance personnel, which takes a long time for stirring and long-term pressing injection, is time-consuming and laborious. Moreover, since the hollow space under the tile is not completely a whole, but a state where multiple small spaces are interconnected and filled with air, when the repair slurry is filled into the interior through the injection device, part of the air will be discharged through another opening (generally two openings), but most of the air still remains in different small spaces, resulting in difficulty for the slurry to fill all the hollow spaces. Although the hollow repair seems to be completed on the surface, there are still vacant small spaces inside, and air will also enter the injected slurry to form bubbles. After long-term use, the tiles are prone to detachment problems. Summary of the Invention

[0005] This application provides a repair device for tile hollowing, which has the advantages of mechanically stirring materials, intermittently pumping materials into the hollow, intermittently squeezing the exhaust pipe to evacuate the air pressure chamber to form a pressure difference to drive the piston to move, the piston movement driving the toggle plate to intermittently open the air inlet to supplement the pressure, the reciprocating movement of the piston cooperating with the spring to drive the stirring impeller, the stirring impeller moving to efficiently stir the materials, the reciprocating movement of the piston changing the position of the materials, and the exhaust plate intermittently impacting the tile to break the hollow space and squeeze out the air, so as to solve the problems of time-consuming and laborious existing tile hollowing repair, incomplete hollow filling, and residual bubbles.

[0006] To achieve the above object, the present application adopts the following technical solutions: A repair device for tile hollowing, including a mounting base, a processing barrel is arranged inside the mounting base, a sealing plate is arranged at the opening end of the processing barrel, a central shaft providing power is arranged inside the processing barrel, and a stirring impeller is arranged on the central shaft; A kinetic energy chamber is opened on one side of the mounting base, one end of the central shaft is inserted into the kinetic energy chamber and an elliptical wheel is arranged, a reciprocating groove is opened at the bottom end of the mounting base, and a limiting groove is opened between the reciprocating groove and the kinetic energy chamber to provide a space for reciprocating motion; One end of the processing barrel close to the kinetic energy chamber is provided with a solenoid valve, one side of the solenoid valve is provided with a discharge pipe, and the other end of the discharge pipe passes through the top of the kinetic energy chamber to receive the intermittent extrusion of the elliptical wheel to extract the material in the processing barrel; An exhaust plate is arranged in the reciprocating groove, and a force-receiving block inserted into the limiting groove and extending into the kinetic energy chamber is arranged at the top end of the exhaust plate to receive the intermittent extrusion of the elliptical wheel, and a uniformly distributed vibration spring is arranged between the top end of the exhaust plate and the bottom of the reciprocating groove to drive the downward pressing exhaust plate to lift up.

[0007] Preferably, a funnel is arranged on one side of the top end of the processing barrel away from the sealing plate to input materials into the processing barrel, and a plunger is movably sleeved in the funnel to seal the funnel.

[0008] Preferably, rubber sleeves are arranged on the four sides of the bottom of the reciprocating groove, and the rubber sleeves are wrapped under the exhaust plate to prevent the downward pressing exhaust plate from directly impacting the tile.

[0009] Preferably, the cross-section of the kinetic energy chamber is circular, the cross-section of the elliptical wheel is elliptical, and there is a spacing between the outer side wall of the elliptical wheel and the inner side wall of the kinetic energy chamber.

[0010] Preferably, a piston is arranged inside the processing barrel, a return spring is arranged between the piston and the sealing plate to drive the piston to reset, an air pressure chamber is formed between the piston and the sealing plate, and a stirring chamber is formed between the piston and the end of the inner cavity wall of the processing barrel away from the sealing plate.

[0011] Preferably, the stirring impeller includes a positioning ring arranged on the central shaft and uniformly distributed stirring blades arranged on the outer side of the positioning ring. Symmetric limiting sliding grooves are opened on the central shaft, and symmetric limiting inner protrusions are arranged on the inner side wall of the positioning ring. The limiting inner protrusions are stuck in the limiting sliding grooves to rotate synchronously with the central shaft and perform linear reciprocating motion on the central shaft.

[0012] Preferably, a spacing spring I is arranged on the opposite ends of the positioning rings on the two stirring impellers, and a spacing spring II is arranged between the positioning ring on the stirring impeller close to the elliptical wheel and the end of the inner cavity of the processing barrel away from the sealing plate to change the positions of the two stirring impellers.

[0013] Preferably, an exhaust pipe is provided in the mounting seat, one end of which is connected to the side of the air compression chamber close to the sealing plate, and the other end passes through the bottom of the kinetic energy chamber to the outside of the mounting seat, for receiving the air in the air compression chamber discharged by the intermittent squeezing of the elliptical wheel.

[0014] Preferably, a sliding cavity is provided in the mounting seat, a through hole is provided on the side of the air pressure cavity close to the sealing plate to connect with the outside, the through hole passes through the sliding cavity, a toggle plate is provided in the sliding cavity, and an air inlet is provided on the side of the toggle plate close to the through hole to replenish the air pressure in the air pressure cavity.

[0015] Preferably, two shifting protrusions are provided on the toggle plate, a toggle groove is provided on the inner wall of the stirring chamber and is connected to the side of the sliding chamber away from the sealing plate, a toggle groove is provided on the inner wall of the air compression chamber and is connected to the side of the sliding chamber close to the sealing plate, the two shifting protrusions are respectively located in the two toggle grooves, and one end of the shifting protrusion away from the toggle plate protrudes out of the toggle groove to receive the power of the piston movement and change the position of the toggle plate.

[0016] The present application provides a repair device for hollow tiles. The raw materials for preparing the repair slurry are input into a stirring chamber. The stirring impeller is driven to rotate continuously through the central axis to efficiently stir the raw materials. The elliptical wheel is continuously rotated to intermittently squeeze the discharge pipe, causing the squeezed part of the discharge pipe to undergo intermittent compression and expansion. When the solenoid valve is opened, the discharge pipe can draw the slurry in the stirring chamber and inject it into the hollow position through the holes turned out on the tile, thereby eliminating the steps of manual stirring and injection.

[0017] At the same time, during the continuous rotation of the elliptical wheel, the force-bearing block below will be squeezed intermittently, so that the force-bearing block drives the exhaust plate to press down and squeeze the rubber sleeve, and flexibly hits the tile below under the protection of the rubber sleeve. At this time, the downward-pressed exhaust plate will pull the vibration spring to stretch and store energy. When the elliptical wheel leaves the force-bearing block, the energy-stored vibration spring will pull the exhaust plate up, and so on. The exhaust plate will quickly and repeatedly squeeze the tile below, causing the tile to vibrate, thereby affecting the slurry injected into the hollow drum, prompting the slurry to quickly fill all the space under vibration, and after squeezing the air in the hollow drum into the slurry, it is quickly discharged through the holes under vibration, reducing the residual small space under the repaired tile and the bubbles in the slurry.

[0018] At the same time, the elliptical wheel will intermittently squeeze the exhaust pipe below when it rotates continuously, causing the squeezed part of the exhaust pipe to undergo intermittent compression and expansion, drawing out the air in the air compression chamber, causing the air pressure in the air compression chamber to continue to decrease, and gradually increasing the pressure difference between the stirring chamber and the air compression chamber. The compressed spacing springs I and II squeeze the piston toward the sealing plate. At this time, the reset spring is compressed, the stirring chamber space increases, and the slurry is dispersed. The two stirring impellers will move toward the piston driven by spacing springs I and II, and the dispersed slurry will be dispersed and stirred on a larger scale.

[0019] At the same time, as the piston continues to move, it will push the displacement protrusion close to the sealing plate, push the toggle plate to move in the same direction, open the air inlet, and cause outside air to enter the low-pressure air pressure chamber for air pressure replenishment. At this time, the compressed return spring will push the piston to return to the direction of the elliptical wheel, causing the piston to move in the same direction as the stirring impeller it is in contact with. At this time, the space in the stirring chamber is reduced, the slurry gathers, and is efficiently contacted and stirred with the moving stirring impeller, thereby improving the stirring efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] The accompanying drawings, which constitute a part of the specification, illustrate embodiments disclosed in the present application and, together with the description, serve to explain the principles disclosed in the present application.

[0021] The present disclosure may be more clearly understood from the following detailed description with reference to the accompanying drawings, in which:

[0022] Figure 1 It is a schematic diagram of the three-dimensional structure of the present invention;

[0023] Figure 2 This is a schematic diagram of the internal structure distribution of the present invention;

[0024] Figure 3 This is a schematic diagram of the mounting seat structure of the present invention;

[0025] Figure 4 This is a schematic diagram of the internal structure distribution of the processing barrel of the present invention;

[0026] Figure 5 This is a schematic diagram of the processing barrel structure of the present invention;

[0027] Figure 6 This is a schematic diagram of the position of the sliding cavity structure of the present invention;

[0028] Figure 7 This is a schematic diagram of the central axis structure of the present invention;

[0029] Figure 8 It is a schematic diagram of the structure of the toggle plate of the present invention;

[0030] Figure 9 It is a schematic diagram of the funnel structure of the present invention.

[0031] Among them: 1. Mounting seat; 2. Kinetic energy chamber; 3. Limiting groove; 4. Reciprocating groove; 5. Exhaust plate; 51. Force block; 6. Vibration spring; 7. Rubber sleeve; 8. Processing barrel; 81. Funnel; 82. Sealing plate; 9. Center axis; 91. Limiting slide groove; 10. Elliptical wheel; 11. Piston; 12. Mixing impeller; 13. Limiting inner convex; 14. Reset spring; 15. Spacing spring I; 16. Spacing spring II; 17. Solenoid valve; 18. Discharge pipe; 19. Exhaust pipe; 20. Sliding cavity; 21. Through hole; 22. Toggle groove; 23. Toggle plate; 24. Transposition protrusion; 25. Air inlet. DETAILED DESCRIPTION

[0032] The following will be combined with the drawings in the embodiments of the present application to clearly and completely describe the technical solutions in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, not all of the embodiments. Based on the embodiments in the present application, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of this application. Embodiment 1

[0033] See also Figures 1 to 2 , Figure 4 , Figure 6 , Figure 8 A repair device for hollow tiles includes a mounting base 1, in which a processing barrel 8 is fixedly sleeved, and a sealing plate 82 is bolted to the open end of the processing barrel 8. A central shaft 9 is movably sleeved in the center of the processing barrel 8, and one end of the central shaft 9 passes through the center of the sealing plate 82 and is connected to an existing power device. A stirring impeller 12 is arranged on the central shaft 9. A funnel 81 is fixedly connected to the side of the top of the processing barrel 8 away from the sealing plate 82, and a plunger is movably sleeved in the funnel 81 so that the plunger closes the funnel 81 to prevent outside air from entering the processing barrel 8. When material needs to be input, the plunger is opened to send the material into the processing barrel 8 through the funnel 81. At this time, after the power device is started, it can drive the stirring impeller 12 to rotate continuously through the central shaft 9 to fully stir the material placed in the processing barrel 8.

[0034] See also Figures 2 to 4 , Figure 6 One end of the central axis 9 passes through the center of one end of the processing barrel 8 away from the sealing plate 82, and an elliptical wheel 10 is fixedly sleeved on this end. The cross-section of the elliptical wheel 10 is elliptical. A kinetic energy chamber 2 with a circular cross-section is provided in the mounting seat 1. The elliptical wheel 10 is located in the kinetic energy chamber 2. The diameter of the circular cross-section of the kinetic energy chamber 2 is greater than the major axis value of the elliptical wheel 10, so that when the central axis 9 drives the elliptical wheel 10 to rotate, the elliptical wheel 10 can rotate unimpeded in the kinetic energy chamber 2, and the distance between the outer wall of the elliptical wheel 10 and the inner wall of the kinetic energy chamber 2 provides space for the discharge pipe 18 and the exhaust pipe 19 to pass through.

[0035] Refer to Figures 2 to 5 , one end of the processing barrel 8 close to the kinetic energy chamber 2 is fixedly connected with a solenoid valve 17. One end of the solenoid valve 17 is communicated with the inside of the processing barrel 8, and the other end is fixedly connected with a discharge pipe 18. The discharge pipe 18 is fixedly sleeved in the mounting seat 1. The discharge pipe 18 passes through the top of the kinetic energy chamber 2. The material of the discharge pipe 18 is an elastic material. The elliptical wheel 10 rotates towards the discharge port of the discharge pipe 18, so that when the elliptical wheel 10 rotates continuously, the discharge pipe 18 will be intermittently squeezed, and the squeezed part of the discharge pipe 18 will have intermittent compression and expansion actions. When the solenoid valve 17 is opened, the discharge pipe 18 can extract the slurry completed in the stirring chamber and inject it into the hollow position through the holes turned out on the ceramic tile.

[0036] Refer to Figures 1 to 3 , a reciprocating groove 4 is opened at the bottom end of the mounting seat 1. A limiting groove 3 is opened between the reciprocating groove 4 and the kinetic energy chamber 2. An exhaust plate 5 is movably sleeved in the reciprocating groove 4. The top end of the exhaust plate 5 is fixedly connected with a force-receiving block 51. The force-receiving block 51 is movably sleeved in the limiting groove 3. The top end of the force-receiving block 51 extends into the bottom of the power chamber 2. A rounded surface is opened at the top of the force-receiving block 51. The top end of the exhaust plate 5 is fixedly connected with uniformly distributed vibration springs 6. The top ends of the vibration springs 6 are fixedly connected with the reciprocating groove 4, so that when the long axis side of the elliptical wheel 10 passes above the limiting groove 3, it can squeeze the force-receiving block 51 to move downward, drive the exhaust plate 5 to move downward synchronously, and pull the vibration springs 6 to stretch downward to store energy. When the long axis side of the elliptical wheel 10 gradually leaves the force-receiving block 51, the downward limiting force on the force-receiving block 51 gradually disappears, so that the energy-storing vibration springs 6 pull the exhaust plate 5 and the force-receiving block 51 to move upward and reset. In this way, the exhaust plate 5 will quickly squeeze the ceramic tile below many times, making the ceramic tile vibrate, thereby affecting the slurry injected into the hollow part, prompting the slurry to quickly fill all spaces under vibration, and squeezing the air in the hollow part into the slurry, and then quickly discharging it through the holes under vibration, reducing the residual small space under the ceramic tile after repair and the bubbles in the slurry.

[0037] Refer to Figures 1 to 2 , rubber sleeves 7 are fixedly connected to the four sides of the bottom of the reciprocating groove 4. The rubber sleeves 7 wrap the lower part of the exhaust plate 5, so that when the exhaust plate 5 moves downward, it can be protected by the rubber sleeves 7 before hitting the ceramic tile below, so that the hard impact of the exhaust plate 5 is converted into a flexible impact by the rubber sleeves 7, avoiding the problem that the ceramic tile is broken due to the hard impact of the exhaust plate 5 on the ceramic tile. Embodiment 2

[0038] Please refer to Figure 4 , Figure 6, on the basis of the first embodiment, a piston 11 is movably sleeved in the processing barrel 8. The piston 11 is movably sleeved on the central shaft 9. The outer side wall of the piston 11 is attached to the inner side wall of the processing barrel 8, and the inner side wall of the piston 11 is attached to the outer wall of the central shaft 9. Sealing rings are provided on both the outer side wall and the inner side wall of the piston 11, so that when the piston 11 makes a reciprocating linear motion in the processing barrel 8, the stirring chamber and the pneumatic chamber cannot communicate with each other. One end of the piston 11 facing the sealing plate 82 is fixedly connected to a return spring 14, and the other end of the return spring 14 is fixedly connected to the end of the sealing plate 82 facing the piston 11. An air pressure chamber is formed between the piston 11 and the sealing plate 82, and a stirring chamber is formed between the piston 11 and the end of the inner cavity wall of the processing barrel 8 away from the sealing plate 82, so that the material passing through the funnel 81 can only enter the stirring chamber.

[0039] Refer to Figure 4 , Figures 6 to 7 , the stirring impeller 12 includes a positioning ring movably sleeved on the central shaft 9 and stirring blades fixedly and evenly distributed on the outer side of the positioning ring. Symmetric limiting sliding grooves 91 are formed on the central shaft 9. Symmetric limiting inner protrusions 13 are fixedly connected to the inner side wall of the positioning ring. The limiting inner protrusions 13 are movably sleeved in the limiting sliding grooves 91. When the central shaft 9 rotates, the limiting inner protrusions 13 can be squeezed by the limiting sliding grooves 91 to drive the stirring impeller 12 to rotate synchronously, so as to efficiently stir the material in the stirring chamber. Moreover, the limiting inner protrusions 13 can make a reciprocating linear motion in the limiting sliding grooves 91, driving the stirring impeller 12 to make a reciprocating linear motion on the central shaft 9, thereby changing the position of the stirring impeller 12 and making more multi-faceted contact stirring with the material in the stirring chamber to improve the stirring effect.

[0040] Refer to Figure 4 , Figures 6 to 7, a spacing spring Ⅰ 15 is fixedly connected to the opposite ends of the positioning rings on the two stirring impellers 12, and a spacing spring Ⅱ 16 is fixedly connected between the positioning ring on the stirring impeller 12 close to the elliptical wheel 10 and one end of the inner cavity of the processing barrel 8 away from the sealing plate 82. When the piston 11 squeezes the adjacent stirring impeller 12 to move towards the elliptical wheel 10, the spacing spring Ⅰ 15 and the spacing spring Ⅱ 16 are compressed to store energy, squeezing and shearing the surrounding materials. At the same time, the positions of the two stirring impellers 12 are changed, the spacing between the two stirring impellers 12 is also reduced, and the stirring impeller 12 close to the elliptical wheel 10 will be closer to the elliptical wheel 10. When the piston 11 moves towards the sealing plate 82, the restraining force on the stirring impeller 12 will weaken. At this time, the compressed spacing spring Ⅰ 15 and the spacing spring Ⅱ 16 will push the two stirring impellers 12 to move back to their original positions, and the stretched spacing spring Ⅰ 15 and the spacing spring Ⅱ 16 will squeeze the surrounding materials, and the positions of the two stirring impellers 12 are changed, the spacing between the two stirring impellers 12 is also increased, and the stirring impeller 12 close to the elliptical wheel 10 will also move away from the elliptical wheel 10. Thus, by changing the position of the stirring impeller 12, the contact points with the materials are continuously changed, enhancing the stirring effect.

[0041] Refer to Figures 2 to 5 , an exhaust pipe 19 is fixedly sleeved in the mounting seat 1. One end of the exhaust pipe 19 is connected to the side of the air compression chamber close to the sealing plate 82, and the other end passes below the kinetic energy chamber 2 to the outside of the mounting seat 1. The exhaust pipe 19 is made of an elastic material, and the exhaust direction of the exhaust pipe 19 is opposite to the liquid discharge direction of the discharge pipe 18. When the elliptical wheel 10 rotates continuously, it will intermittently squeeze the exhaust pipe 19 below, causing the squeezed part of the exhaust pipe 19 to perform intermittent compression and expansion actions, extracting the air in the air compression chamber and discharging it, resulting in a continuous decrease in the air pressure in the air compression chamber, gradually increasing the pressure difference between the stirring chamber and the air compression chamber, and cooperating with the compressed spacing spring Ⅰ 15 and the spacing spring Ⅱ 16 to squeeze the piston 11 to move towards the sealing plate 82. At this time, the return spring 14 is compressed, the space of the stirring chamber increases, the slurry spreads out, and the two stirring impellers 12 will move towards the piston 11 driven by the spacing spring Ⅰ 15 and the spacing spring Ⅱ 16, performing a wider range of dispersion and stirring on the spread slurry.

[0042] Refer to Figures 4 to 6 , a sliding chamber 20 is opened in the mounting seat 1, and a through hole 21 communicating with the outside is opened on the side of the air compression chamber close to the sealing plate 82. The through hole 21 passes through the sliding chamber 20, and a toggle plate 23 is movably sleeved in the sliding chamber 20. An air inlet 25 is opened on the side of the toggle plate 23 close to the through hole 21, so that when the air inlet 25 coincides with the through hole 21, the outside air can enter the air compression chamber through the through hole 21 and the air inlet 25.

[0043] Refer to Figures 4 to 5 , Figure 8, two displacement protrusions 24 are fixedly connected to the shifting plate 23. Shifting grooves 22 are formed on the inner wall of the stirring chamber and are connected to the side of the sliding chamber 20 away from the sealing plate 82. Shifting grooves 22 are formed on the inner wall of the pneumatic chamber and are connected to the side of the sliding chamber 20 close to the sealing plate 82. The two displacement protrusions 24 are respectively located in the two shifting grooves 22. The end of the displacement protrusion 24 away from the shifting plate 23 protrudes out of the shifting groove 22. When the piston 11 continuously moves towards the sealing plate 82, it will push the displacement protrusion close to the sealing plate 82, and push the shifting plate 23 to move in the same direction, so that the air inlet 25 coincides with the through hole 21, causing external air to enter the low-pressure pneumatic chamber for air pressure replenishment. At this time, the compressed return spring 14 will push the piston 11 to move back towards the elliptical wheel 10, so that the piston 11 squeezes the contacting stirring impeller 12 to move in the same direction. At this time, the space of the stirring chamber shrinks, the slurry converges, and makes efficient contact stirring with the moving stirring impeller 12, improving the stirring efficiency.

[0044] It should be noted that during the opening process of the solenoid valve 17, the piston 11 is still performing reciprocating linear motion. At this time, when the piston 11 moves towards the elliptical wheel 10, it will shrink the space of the stirring chamber and push the slurry into the discharge pipe 18. When the elliptical wheel 10 does not squeeze the discharge pipe 18, the discharge pipe 18 can still pump the slurry into the empty drum by the slurry extrusion of the piston 11. When the piston 11 moves towards the sealing plate 82, it will increase the space of the stirring chamber. At this time, since the funnel 81 is blocked by the plunger, the pressure in the stirring chamber decreases, causing the material in the discharge pipe 18 to flow back into the stirring chamber. However, there is an action of the elliptical wheel 10 squeezing the discharge pipe 18 in this process, which will intermittently block the slurry from flowing back and push the slurry into the empty drum intermittently, so that the discharge pipe 18 extracts the slurry in the empty drum and flows back intermittently, making the slurry flow back and forth in the empty drum, further improving the fluidity of the slurry in the empty drum, improving the filling speed and effect of the empty drum, and improving the discharge of gas in the slurry.

Claims

1. A repair device for hollow tiles, characterized in that: It comprises a mounting seat (1), a processing barrel (8) is arranged in the mounting seat (1), a sealing plate (82) is arranged at the open end of the processing barrel (8), a central shaft (9) for providing power is arranged in the processing barrel (8), and a stirring impeller (12) is arranged on the central shaft (9); A kinetic energy chamber (2) is provided on one side of the mounting seat (1), one end of the central shaft (9) is inserted into the kinetic energy chamber (2) and an elliptical wheel (10) is provided therein, a reciprocating groove (4) is provided on the bottom end of the mounting seat (1), and a limiting groove (3) is provided between the reciprocating groove (4) and the kinetic energy chamber (2) to provide space for reciprocating motion; An electromagnetic valve (17) is provided at one end of the processing barrel (8) close to the kinetic energy chamber (2), and a discharge pipe (18) is provided on one side of the electromagnetic valve (17). The other end of the discharge pipe (18) passes through the top of the kinetic energy chamber (2) and is used to receive the intermittent extrusion of the elliptical wheel (10) to extract the material in the processing barrel (8); An exhaust plate (5) is arranged in the reciprocating groove (4), and a force-bearing block (51) is arranged at the top end of the exhaust plate (5) and is inserted into the limiting groove (3) and protrudes into the kinetic energy chamber (2), so as to receive intermittent extrusion from the elliptical wheel (10). A uniformly distributed vibration spring (6) is arranged between the top end of the exhaust plate (5) and the bottom of the reciprocating groove (4), so as to drive the exhaust plate (5) pressed downward to lift upward; A piston (11) is arranged in the processing barrel (8), and a return spring (14) is arranged between the piston (11) and the sealing plate (82) for driving the piston (11) to return to its original position. An air pressure chamber is formed between the piston (11) and the sealing plate (82), and a stirring chamber is formed between the piston (11) and an end of the inner cavity wall of the processing barrel (8) away from the sealing plate (82). The stirring impeller (12) comprises a positioning ring arranged on the central shaft (9) and stirring blades evenly distributed on the outer side of the positioning ring. The central shaft (9) is provided with symmetrical limiting grooves (91), and the inner side wall of the positioning ring is provided with a A symmetrical limiting inner convexity (13) is stuck in the limiting slide groove (91) and is used to rotate synchronously with the central axis (9) and perform linear reciprocating motion on the central axis (9); a spacing spring I (15) is provided on the opposite ends of the positioning rings on the two stirring impellers (12); a spacing spring II (16) is provided between the positioning ring on the stirring impeller (12) close to the elliptical wheel (10) and the end of the inner cavity of the processing barrel (8) away from the sealing plate (82) for changing the position of the two stirring impellers (12); an exhaust pipe (19) is provided in the mounting seat (1), and the exhaust pipe One end of the air pressure chamber (19) is connected to a side of the air pressure chamber near the sealing plate (82), and the other end passes through the bottom of the kinetic energy chamber (2) to the outside of the mounting seat (1), and is used to receive the air in the air pressure chamber that is intermittently squeezed and discharged by the elliptical wheel (10); a sliding chamber (20) is provided in the mounting seat (1), and a through hole (21) is provided on a side of the air pressure chamber near the sealing plate (82) to be connected to the outside, and the through hole (21) passes through the sliding chamber (20), and a toggle plate (23) is provided in the sliding chamber (20), and an air inlet (25) is provided on a side of the toggle plate (23) near the through hole (21) to replenish the air. The air pressure in the air pressure chamber is filled; two displacement protrusions (24) are arranged on the toggle plate (23); a toggle groove (22) is provided on the inner wall of the stirring chamber and is connected to the side of the sliding chamber (20) away from the sealing plate (82); a toggle groove (22) is provided on the inner wall of the air pressure chamber and is connected to the side of the sliding chamber (20) close to the sealing plate (82); the two displacement protrusions (24) are respectively located in the two toggle grooves (22); one end of the displacement protrusion (24) away from the toggle plate (23) protrudes out of the toggle groove (22) for receiving the power of the piston (11) to change the position of the toggle plate (23).

2. A repair device for hollow tiles according to claim 1, characterized in that: A funnel (81) is provided at the top of the processing barrel (8) on a side away from the sealing plate (82) for inputting materials into the processing barrel (8); a plunger is movably sleeved in the funnel (81) for closing the funnel (81).

3. The device for repairing hollow ceramic tiles according to claim 1, characterized in that: Rubber sleeves (7) are provided on four sides of the bottom of the reciprocating groove (4), and the rubber sleeves (7) are wrapped under the exhaust plate (5) to prevent the downwardly pressed exhaust plate (5) from directly impacting the tiles.

4. The device for repairing hollow ceramic tiles according to claim 1, characterized in that: The cross section of the kinetic energy chamber (2) is circular, the cross section of the elliptical wheel (10) is elliptical, and there is a distance between the outer side wall of the elliptical wheel (10) and the inner side wall of the kinetic energy chamber (2).

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