Shock-absorbing deviation-resistant continuous conveying device for processing waste glass

Abstract

The application discloses a shockproof and deviation-preventing continuous conveying device for broken glass recycling, relates to the field of conveying equipment, and comprises a machine body, conveying rollers are arranged at equal intervals in the machine body, conveying belts are arranged on the outer sides of the conveying rollers, drive motors are arranged on the rear sides of the conveying rollers, the conveying belts are arranged obliquely, a protective cover is arranged on the top of the machine body, dispersion assemblies are arranged on the inner top of the protective cover and the inner side of the machine body, the dispersion assemblies timely dredge the broken glass blocked on the conveying belts, and deviation-preventing assemblies are arranged between the inner sides of the machine body and the conveying belts to prevent the broken glass from falling into the gaps. During use, the broken glass blocking problem is solved through the dispersion assemblies, the deviation-preventing assemblies are used to prevent the conveying belts from being deviated laterally, the supporting rollers are dynamically prevented from being shocked through the magnetic control linkage, and a dispersion-deviation-prevention-shockproof coordinated continuous conveying system is formed.

Description

Technical Field

[0001] This invention relates to the field of conveying equipment technology, specifically to a shock-resistant and offset-resistant continuous conveying device for recycling broken glass. Background Technology

[0002] In industries such as glass manufacturing, building decoration, and automobile dismantling, broken glass, as a recyclable resource, needs to be recycled, transported, cleaned, screened, and melted to achieve resource utilization. Among these processes, the continuous conveying device is the core equipment connecting the broken glass recycling point with the subsequent processing stage. The continuous conveying device continuously transports broken glass with uneven particle size and sharp edges. Its operational stability directly affects the broken glass recycling efficiency and subsequent processing accuracy. It is widely used in scenarios such as recycled glass production plants and waste sorting centers. When using the continuous conveying device for broken glass recycling, there is a problem that broken glass is prone to falling due to operating vibration and gravity.

[0003] To address the aforementioned deficiencies, the prior art (Chinese patent No. CN222098700U, published on 2024-12-03) describes a broken glass conveying assembly. By setting a limiting device, when the extrusion block moves, it will drive two limiting blocks to move closer to each other. When the limiting blocks move, they will drive the stabilizing hole to move along the surface of the stabilizing block. The extrusion force generated when the limiting blocks move causes the spring to undergo elastic deformation. The limiting device has a limiting effect on the position of the push plate.

[0004] The prior art (Chinese Patent No. CN223059819U, Publication Date 2025-07-04) discloses a broken glass processing device. Broken glass on a horizontal conveyor belt eventually falls to the bottom of an inclined conveyor belt. The inclined conveyor belt then transports the broken glass to a glass storage bin for storage. A curved receiving point is provided at the bottom of the inclined conveyor belt, directly below the horizontal conveyor belt. Therefore, when broken glass falls downwards, the receiving point can catch it, reducing the amount of broken glass falling to the ground and minimizing material waste. Furthermore, as the inclined conveyor belt transports material upwards, the broken glass caught at the receiving point can also be transported to the glass storage bin above.

[0005] In the process of using the above solution, the broken glass that gets stuck or falls during transportation is re-transported by setting up a receiving component. However, when the broken glass is re-transported, mechanical vibration and the weight of the broken glass itself can cause it to accumulate. During transportation, the broken glass pile is prone to scattering on both sides and getting stuck in the gap between the conveyor belt and the device, resulting in uneven local stress on the conveyor belt and lateral deviation. Summary of the Invention

[0006] The purpose of this invention is to provide a shock-resistant and non-displacement-resistant continuous conveying device for recycling broken glass, in order to solve the problems mentioned in the background art regarding existing continuous conveying devices for recycling broken glass. These devices use a receiving component to re-convey broken glass that gets stuck or falls during transport. However, during re-conveyment, mechanical vibration and the weight of the broken glass itself can cause it to accumulate. During transport, the broken glass pile is prone to scattering on both sides and getting stuck in the gap between the conveyor belt and the device, resulting in uneven local stress on the conveyor belt and lateral displacement.

[0007] To achieve the above objectives, the present invention provides the following technical solution: a shock-resistant and offset-resistant continuous conveying device for recycling broken glass, comprising a body, conveying rollers evenly spaced inside the body, a conveyor belt sleeved on the outside of the conveying rollers, a drive motor disposed on the rear side of the conveying rollers, the conveyor belt being inclined, and a protective cover installed on the top of the body.

[0008] The protective cover has a dispersion component on its inner top and the machine body. The dispersion component can promptly clear broken glass that is blocking the conveyor belt. The machine body has anti-deviation components between its inner sides and the conveyor belt to prevent broken glass from falling into the gap.

[0009] Furthermore, the dispersion component includes a contact plate symmetrically hinged to the top of the inner side of the protective cover. Three sleeves are equally spaced on the right side of the contact plate. The sleeves are fixed to the top of the inner side of the protective cover. Each sleeve has a sliding rod sealed and slidably connected to its bottom. The bottom of the sliding rod is configured as a spherical structure. The contact plate is configured as an arc-shaped structure. The bottom of the sliding rod abuts against the top of the contact plate.

[0010] Furthermore, the inner top of the protective cover is symmetrically provided with sliding grooves, and a reciprocating screw is rotatably connected in the sliding groove. A motor is installed on the rear side of the reciprocating screw on the right side, and the reciprocating screws on the left and right sides are connected by a sprocket mechanism. A dispersion frame is threaded to the outside of the reciprocating screw. The dispersion frame is set as a "T" shaped structure, and dispersion rods are slidably connected at equal intervals at the bottom of the dispersion frame.

[0011] Furthermore, the dispersing frame is configured to move back and forth by driving the dispersing rods through a reciprocating lead screw. The middle part of the dispersing frame is set as a hollow structure, and the sliding space of each dispersing rod is connected to the hollow structure.

[0012] Furthermore, the interior of the middle sleeve is connected to the middle part of the dispersing frame via a connecting pipe. After being squeezed by the contact plate, the middle sleeve delivers oil to the middle part of the dispersing frame, pushing the dispersing rod to extend.

[0013] Furthermore, the interior of the sleeve on the front and rear sides is connected to the inner cavity through a connecting pipe. The inner cavity is symmetrically opened in the inner wall of the front and rear sides of the machine body. A piston plate is slidably connected in the inner cavity. The piston plate is configured with a "T" shape. The outer side of the middle part of the piston plate is connected to the middle part of the turntable. The turntable is symmetrically rotated and connected to the inner wall of the front and rear sides of the machine body.

[0014] Furthermore, a protrusion is fixed to the outer side of the middle part of the piston plate, and the outside of the protrusion is slidably connected to the spiral groove. The spiral groove is opened on the inner wall of the turntable, and the turntable forms a rotating structure through the protrusion and the spiral groove.

[0015] Furthermore, a first magnetic sheet is installed at an equal angle on the outer side of the turntable, and a support roller is connected to the inner walls on both sides of the middle of the inclined section of the machine body by a spring. A movable roller is connected to the lower part of the support roller by a spring. The movable roller is slidably connected to the inner walls on the front and rear sides of the machine body. A first magnetic column is symmetrically arranged on the front and rear sides of the movable roller. The magnetic pole of the first magnetic column is opposite to the magnetic pole of the first magnetic sheet. The movable roller intermittently impacts the support roller through the first magnetic column and the first magnetic sheet.

[0016] Furthermore, the anti-deviation component includes a rotating rod symmetrically and rotatably connected to the front and rear sides of the machine body. The outer side of the rotating rod is connected to the outer end of the reciprocating lead screw through a sprocket mechanism. A second magnetic plate is installed at equal angles on the outer side of the rotating rod, and the second magnetic plate portion of the rotating rod is rotatably connected to the inner wall of the machine body.

[0017] Furthermore, an air pipe is installed in the gap between the inner wall of the front and rear sides of the machine body and the conveyor belt. A second magnetic column is symmetrically fixed at the bottom of the air pipe. The second magnetic column is located directly above the rotating rod. The second magnetic plate on the rotating rod has the same magnetic pole as the rotating rod. The second magnetic plate and the second magnetic column form an anti-deviation structure for the conveyor belt. An air pump is provided on the front and rear sides of the machine body. The air pump is connected to the air pipe through a connecting pipe.

[0018] Compared with the prior art, the beneficial effects of the present invention are:

[0019] This shock-resistant and offset-resistant continuous conveying device for recycling broken glass solves the problem of broken glass accumulation and blockage during use by using a dispersion component, and prevents the conveyor belt from shifting laterally by using an anti-offset component. At the same time, it uses magnetic control linkage to achieve dynamic shock protection of the support rollers, forming a continuous conveying system that combines dispersion, anti-offset and shock protection.

[0020] 1. Furthermore, when the broken glass piles up too high, the contact plate is pushed to rotate, and the contact plate squeezes the slide rod, causing the slide rod to slide upward along the sleeve. The oil in the middle sleeve is transported to the hollow structure in the middle of the dispersing frame through the connecting pipe. The oil pushes the dispersing rod at the bottom of the dispersing frame to extend outward to match the height of the broken glass pile. At the same time, the reciprocating screw drives the dispersing frame to move back and forth, and the dispersing frame drives the dispersing rod to move synchronously, breaking up the piled broken glass.

[0021] 2. Further, the oil in the sleeves on both sides is delivered to the inner cavity, the piston plate moves, and drives the turntable to rotate through the protrusion and spiral groove. The first magnetic plate and the first magnetic column on the movable roller generate intermittent attraction, pulling the movable roller up and down. The movable roller intermittently impacts the support roller through the spring. The spring force of the support roller itself, combined with the elastic impact of the movable roller, causes the support roller to vibrate the conveyor belt, which helps to quickly disperse the accumulated broken glass, while buffering the vibration impact of the conveyor belt.

[0022] 3. Furthermore, after the rotating rod rotates, the second magnetic column is subjected to the intermittent repulsive force of the second magnetic plate, which drives the air pipe to move up and down. The air pipe is attached to the gap between the inner wall of the machine body and the conveyor belt. During the movement, it can push out the broken glass stuck in the gap. The gas sprayed out by the air pipe can blow the broken glass that has fallen into the gap back onto the conveyor belt, avoiding the broken glass from getting stuck and causing uneven local force on the conveyor belt. At the same time, the lateral thrust generated by the repulsive force can help correct the deviation trend of the conveyor belt. Attached Figure Description

[0023] Figure 1 This is a schematic diagram of the overall front structure of the present invention;

[0024] Figure 2 This is a schematic diagram of the overall rear view structure of the present invention;

[0025] Figure 3 This is a bottom view of the internal structure of the protective cover of the present invention;

[0026] Figure 4 This is a schematic diagram of the front section structure of the protective cover of the present invention;

[0027] Figure 5 This is a schematic diagram of the distribution structure of the sleeve, slide bar, and dispersion frame of the present invention;

[0028] Figure 6 This is a schematic diagram of the front section structure of the reciprocating lead screw, dispersion frame, sleeve and slide bar of the present invention;

[0029] Figure 7 This is a schematic diagram of the front section structure of the body of the present invention;

[0030] Figure 8 This is a schematic diagram of the connection structure of the rotating rod, the second magnetic sheet, the second magnetic column, and the air tube of the present invention;

[0031] Figure 9 This is a schematic diagram of the cross-sectional structure of the connection between the support roller, the movable roller and the machine body of the present invention;

[0032] Figure 10 This is an exploded structural diagram of the connection between the piston plate, turntable, first magnetic column and movable roller of the present invention.

[0033] In the diagram: 1. Machine body; 2. Conveyor roller; 3. Conveyor belt; 4. Protective cover; 5. Contact plate; 6. Sleeve; 7. Slide rod; 8. Reciprocating screw; 9. Slide groove; 10. Dispersing frame; 11. Dispersing rod; 12. Inner cavity; 13. Piston plate; 14. Turntable; 15. Protrusion; 16. Spiral groove; 17. First magnetic plate; 18. Support roller; 19. Movable roller; 20. First magnetic column; 21. Air pipe; 22. Rotating rod; 23. Second magnetic plate; 24. Second magnetic column. Detailed Implementation

[0034] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0035] Example 1: Please refer to Figure 1 - Figure 3 and Figure 7 The present invention provides the following technical solution: a shock-resistant and offset-resistant continuous conveying device for recycling broken glass, comprising a body 1, conveying rollers 2 evenly spaced inside the body 1, a conveyor belt 3 sleeved on the outside of the conveying rollers 2, a drive motor disposed on the rear side of the conveying rollers 2, the conveyor belt 3 being inclined, a protective cover 4 installed on the top of the body 1, a dispersing component disposed on the top inner side of the protective cover 4 and the inner side of the body 1, the dispersing component promptly clearing broken glass blocking the conveyor belt 3, and an anti-offset component disposed between the inner sides of the body 1 and the conveyor belt 3 to prevent broken glass from falling into the gap.

[0036] refer to Figure 1 - Figure 3 and Figure 7As shown, during use, the drive motor on the rear side of the conveyor roller 2 inside the machine body 1 starts, driving the conveyor roller 2 to rotate synchronously. The conveyor belt 3 on the outer side of the conveyor roller 2 is set at an inclination and runs accordingly. The broken glass to be recycled is placed on the surface of the conveyor belt 3 and is transported to a higher position with the conveyor belt 3. The protective cover 4 covers the top of the machine body 1, initially blocking the broken glass from splashing. The dispersion component completely solves the problem of broken glass accumulation through the linkage of the contact-dispersion-shockproof structure. The anti-deviation component avoids the conveyor belt 3 from deviating through magnetic vibration and thrust correction. The two work together to ensure that the broken glass is continuously and stably transported during the inclined conveying process, realizing the broken glass recycling and conveying function with anti-vibration and deviation.

[0037] Example 2:

[0038] Based on Embodiment 1, a mechanism for clearing accumulated broken glass is also disclosed; please refer to [reference needed]. Figure 1 - Figure 7 and Figure 9 - Figure 10 As shown, its specific structure is as follows: The dispersion component includes a contact plate 5 symmetrically hinged to the top of the inner side of the protective cover 4. Three sleeves 6 are equally spaced on the right side of the contact plate 5. The sleeves 6 are fixed to the top of the inner side of the protective cover 4. The bottom of each sleeve 6 is slidably connected to a sliding rod 7. The bottom of the sliding rod 7 is a spherical structure. The contact plate 5 is an arc-shaped structure. The bottom of the sliding rod 7 abuts against the top of the contact plate 5. The top of the inner side of the protective cover 4 is symmetrically provided with grooves 9. A reciprocating screw 8 is rotatably connected in the grooves 9. A motor is installed on the rear side of the right reciprocating screw 8, and the reciprocating screws 8 on both the left and right sides are connected to each other. The components are connected by a sprocket mechanism. The reciprocating screw 8 is externally threaded with a dispersion frame 10. The dispersion frame 10 is configured with a "T" shape. Dispersion rods 11 are slidably connected at equal intervals at the bottom of the dispersion frame 10. The dispersion frame 10 drives the dispersion rods 11 to form a back-and-forth moving structure through the reciprocating screw 8. The middle part of the dispersion frame 10 is configured with a hollow structure, and the sliding space of each dispersion rod 11 is connected to the hollow structure. The inside of the sleeve 6 in the middle part is connected to the middle part of the dispersion frame 10 through a connecting pipe. After being squeezed by the contact plate 5, the middle sleeve 6 delivers oil to the middle part of the dispersion frame 10 and pushes the dispersion rods 11 out.

[0039] refer to Figure 3 - Figure 6As shown, during use, when the broken glass on the conveyor belt 3 accumulates too high, the broken glass comes into contact with the arc-shaped contact plate 5 at the top of the inner side of the protective cover 4, pushing the contact plate 5 to rotate upward. The contact plate 5 presses the slide rod 7 at the bottom of the sleeve 6, causing the slide rod 7 to slide upward along the sleeve 6. The space inside the sleeve 6 is compressed. After the middle sleeve 6 is squeezed, the internal oil is transported through the connecting pipe to the hollow structure in the middle of the dispersing frame 10. The oil pushes the dispersing rod 11 at the bottom of the dispersing frame 10 to extend outward to match the height of the broken glass accumulation. At the same time, the motor on the rear side of the right reciprocating screw 8 starts, and drives the left and right reciprocating screws 8 to rotate synchronously in the slide groove 9 through the sprocket mechanism. The reciprocating screw 8 drives the externally threaded dispersing frame 10 to move back and forth. The dispersing frame 10 drives the dispersing rod 11 to move synchronously, breaking up the accumulated broken glass and preventing blockage.

[0040] The anti-vibration auxiliary mechanism of the support roller 18 is disclosed, for reference. Figure 3 - Figure 4 , Figure 7 and Figure 9 - Figure 10 As shown, the front and rear sleeves 6 are connected to the inner cavity 12 via connecting pipes. The inner cavity 12 is symmetrically opened in the inner walls of the front and rear sides of the machine body 1. A piston plate 13 is slidably connected in the inner cavity 12. The piston plate 13 is configured with a "T" shape. The outer side of the middle part of the piston plate 13 is connected to the middle part of the turntable 14. The turntable 14 is symmetrically rotatably connected to the inner walls of the front and rear sides of the machine body 1. A protrusion 15 is fixed on the outer side of the middle part of the piston plate 13. The outer side of the protrusion 15 is slidably connected to the spiral groove 16. The spiral groove 16 is opened on the inner wall of the turntable 14. The turntable 14 is connected to the inner wall of the turntable 14 via the protrusion 15. Block 15 and spiral groove 16 form a rotating structure. The first magnetic sheet 17 is installed at equal angles on the outer side of turntable 14. Support rollers 18 are connected to the inner walls on both sides of the middle of the inclined section of machine body 1 by springs. The lower part of the support roller 18 is connected to the movable roller 19 by springs. The movable roller 19 is slidably connected to the inner walls on the front and rear sides of machine body 1. The front and rear sides of the movable roller 19 are symmetrically provided with first magnetic pillars 20. The magnetic poles of the first magnetic pillars 20 are opposite to the magnetic poles of the first magnetic sheet 17. The movable roller 19 intermittently impacts the support roller 18 through the first magnetic pillars 20 and the first magnetic sheet 17.

[0041] refer to Figure 3 - Figure 4 , Figure 7 and Figure 9 - Figure 10As shown, during use, after the front and rear sleeves 6 are squeezed, the internal oil is transported to the inner cavity 12 of the inner wall of the machine body 1 through the connecting pipe, pushing the piston plate 13 in the inner cavity 12 to slide inward. The protrusion 15 on the outer side of the middle part of the piston plate 13 slides along the spiral groove 16 on the inner wall of the turntable 14, causing the turntable 14 to rotate. The first magnetic plate 17 on the outer side of the turntable 14 rotates with the turntable 14 and generates an intermittent attraction with the first magnetic column 20 on the front and rear sides of the movable roller 19, pulling the movable roller 19 up and down. The movable roller 19 intermittently hits the support roller 18 above through the spring. The spring force of the support roller 18 itself, combined with the elastic impact of the movable roller 19, causes the support roller 18 to vibrate the conveyor belt 3, which helps to quickly disperse the accumulated broken glass, while buffering the vibration impact of the conveyor belt 3.

[0042] Example 3:

[0043] Based on Embodiment 2, an anti-deviation component is also disclosed to ensure the stable operation of conveyor belt 3. Please refer to [link / reference]. Figure 1 - Figure 2 and Figure 7 - Figure 8 As shown, its specific structure is as follows: The anti-deviation component includes a rotating rod 22 symmetrically and rotatably connected to the front and rear sides of the machine body 1. The outside of the rotating rod 22 is connected to the outer end of the reciprocating screw 8 through a sprocket mechanism. A second magnetic plate 23 is installed at an equal angle on the outside of the rotating rod 22 near the side of the machine body 1. The second magnetic plate 23 of the rotating rod 22 is rotatably connected to the inner wall of the machine body 1. The second magnetic plate 23 of the rotating rod 22 and the shaft of the conveyor roller 2 are not in the same space and operate independently. An air pipe 21 is installed in the gap between the inner wall of the front and rear sides of the machine body 1 and the conveyor belt 3. A second magnetic column 24 is symmetrically fixed at the bottom of the air pipe 21. The second magnetic column 24 is set directly above the rotating rod 22. The second magnetic plate 23 on the rotating rod 22 has the same magnetic pole as the rotating rod 22. The rotating rod 22, through the second magnetic plate 23 and the second magnetic column 24, and the conveyor belt 3 form an anti-deviation structure. An air pump is provided on the front and rear sides of the machine body 1. The air pump is connected to the air pipe 21 through a connecting pipe.

[0044] refer to Figure 1 - Figure 2 and Figure 7 - Figure 8As shown, during use, the reciprocating screw 8 drives the rotating rods 22 on the front and rear sides of the machine body 1 to rotate synchronously through the sprocket mechanism. The second magnetic plate 23 on the outside of the rotating rod 22 rotates with the rotating rod 22. The second magnetic column 24 at the bottom of the air pipe 21 is subjected to the intermittent repulsive force of the second magnetic plate 23, which drives the air pipe 21 to move up and down. The air pipe 21 is attached to the gap between the inner wall of the machine body 1 and the conveyor belt 3. During the movement, it can push out the broken glass stuck in the gap. The gas sprayed from the air pipe 21 can blow the broken glass that has fallen into the gap back to the conveyor belt 3, avoiding the broken glass from getting stuck and causing uneven local force on the conveyor belt 3. At the same time, the lateral thrust generated by the repulsive force can help correct the deviation trend of the conveyor belt 3, ensuring that the conveyor belt 3 runs along the preset track.

[0045] The contents not described in detail in this specification are existing technologies known to those skilled in the art.

[0046] Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. An anti-deviation broken glass recycling processing continuous conveying device, comprising a machine body (1), wherein conveying rollers (2) are arranged at equal intervals in the machine body (1), the conveying rollers (2) are externally sleeved with a conveying belt (3), the rear side of the conveying rollers (2) is provided with a driving motor, and the conveying belt (3) is arranged in an inclined manner; a protective cover (4) is mounted on the top of the machine body (1). characterized in that An inner side top of the protective cover (4) and an inner side of the machine body (1) are provided with a dispersion assembly, the dispersion assembly timely dredges broken glass blocked on the conveying belt (3), the dispersion assembly comprises a dispersion frame (10) arranged on the inner side top of the protective cover (4) and a supporting roller (18) at a gap of the conveying belt (3), and an anti-deviation assembly is arranged between the inner sides of the machine body (1) and the conveying belt (3) to prevent broken glass from falling into the gap, the anti-deviation assembly comprises air pipes (21) mounted at gaps between inner walls of the machine body (1) and the conveying belt (3). The dispersion assembly comprises a contact plate (5) symmetrically hinged on the inner side top of the protective cover (4), three sleeves (6) are arranged at equal intervals on the right side of the contact plate (5), the sleeves (6) are fixed to the inner side top of the protective cover (4), a sliding rod (7) is sealingly and slidably connected to the bottom of each sleeve (6), the bottom of the sliding rod (7) is provided in a spherical structure, the contact plate (5) is provided in an arc structure, and the bottom of the sliding rod (7) is in contact with the top of the contact plate (5). The inner side top of the protective cover (4) is symmetrically provided with a sliding groove (9), a reciprocating screw rod (8) is rotatably connected in the sliding groove (9), a motor is mounted on the rear side of the reciprocating screw rod (8) on the right side, the reciprocating screw rods (8) on the left and right sides are connected through a chain wheel mechanism, the dispersion frame (10) is threadedly connected to the outside of the reciprocating screw rod (8), the dispersion frame (10) is provided in a "T" shape structure, and dispersion rods (11) are slidably connected to the bottom of the dispersion frame (10) at equal intervals. The dispersion frame (10) drives the dispersion rods (11) to move forward and backward through the reciprocating screw rod (8), the middle part of the dispersion frame (10) is provided in a hollow structure, and the sliding space of each dispersion rod (11) is communicated with the hollow structure. The inside of the sleeve (6) in the middle part is communicated with the middle part of the dispersion frame (10) through a connecting pipe, and the sleeve (6) in the middle part is extruded by the contact plate (5) to deliver oil to the middle part of the dispersion frame (10) to drive the dispersion rods (11) to extend.

2. A shock shift preventing continuous conveying device for processing recycled cullet according to claim 1, characterized in that: The inside of the sleeve (6) on the front and rear sides is communicated with an inner cavity (12) through a connecting pipe, the inner cavity (12) is symmetrically arranged in the inner walls of the machine body (1) on the front and rear sides, a piston plate (13) is slidably connected in the inner cavity (12), the piston plate (13) is provided in a "T" shape structure, the middle part of the piston plate (13) is connected to the middle part of a rotating disc (14) on the outside, and the rotating disc (14) is symmetrically rotatably connected to the inner walls of the machine body (1) on the front and rear sides.

3. A shock shift preventing continuous conveying device for processing recycled cullet according to claim 2, characterized in that: The middle part of the piston plate (13) is fixed with a protrusion (15), the outer part of the protrusion (15) is slidingly connected in a spiral groove (16), the spiral groove (16) is arranged on the inner wall of a rotating disc (14), and the rotating disc (14) is in a rotating structure through the protrusion (15) and the spiral groove (16).

4. The shock shift preventing continuous conveying device for processing recycled cullet according to claim 3, characterized in that: First magnetic sheets (17) are symmetrically arranged on the outer part of the rotating disc (14), supporting rollers (18) are symmetrically arranged on the inner walls of the left and right sides of the middle part of the inclined section of the body (1) and connected through springs, movable rollers (19) are arranged below the supporting rollers (18) and connected through springs, the movable rollers (19) are slidingly connected between the inner walls of the front and back sides of the body (1), first magnetic columns (20) are symmetrically arranged on the front and back sides of the movable rollers (19), the magnetic poles of the first magnetic columns (20) are opposite to the magnetic poles of the first magnetic sheets (17), and the movable rollers (19) intermittently knock the supporting rollers (18) through the first magnetic columns (20) and the first magnetic sheets (17).

5. A shock shift preventing continuous conveying apparatus for processing recycled cullet according to claim 4, characterized in that: The anti-deviation assembly comprises rotating rods (22) which are symmetrically arranged through the front and back sides of the body (1) and connected to the outer ends of the reciprocating lead screws (8) through chain wheel mechanisms, second magnetic sheets (23) are symmetrically arranged on the outer part of the rotating rods (22) near the inner sides of the body (1), and the second magnetic sheet (23) parts of the rotating rods (22) are rotatingly connected to the inner walls of the body (1).

6. A shock shift preventing continuous conveying device for processing recycled cullet according to claim 5, characterized in that: Second magnetic columns (24) are symmetrically arranged on the bottom of the air pipe (21) and arranged above the rotating rods (22), the second magnetic sheets (23) on the rotating rods (22) have the same magnetic poles as the rotating rods (22), the rotating rods (22) and the conveying belt (3) form an anti-deviation structure through the second magnetic sheets (23) and the second magnetic columns (24), and air pumps are arranged on the front and back sides of the body (1) and connected to the air pipe (21) through connecting pipes.

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