A plastic film waste recycling and compressing device

Abstract

The application relates to the technical field of plastic film recycling, and discloses a plastic film waste recycling and compressing device which comprises a base, support rods and vertical rods are connected to the base, a top plate is fixed to the top of the support rods and the vertical rods, a pressing assembly is slidably assembled on the top plate, a driven plate and a driving plate are rotatably installed between the support rods and the vertical rods, a partition plate is connected between the two vertical rods, the driving plate, the driven plate and the partition plate enclose a first compression cavity and a second compression cavity, a gear assembly is assembled between the driving plate and the driven plate, a discharging assembly is assembled on the base, and a transmission mechanism is connected between the discharging assembly and the driving plate. The double-compression-cavity structure is adopted to form a double-station alternating operation mode, when compression operation is carried out in one cavity, the other cavity can be synchronously fed, the operation efficiency is improved, the risk of personnel being squeezed is avoided to the maximum extent, and meanwhile, the mechanical transmission structure is used to realize linkage operation of the discharging plate and the cavity side plate, the side plate is opened outwards during discharging, the material block is prevented from being stuck, and the labor intensity is reduced.

Description

Technical Field

[0001] This invention belongs to the field of plastic film recycling technology, and more specifically, relates to a plastic film waste recycling and compression device. Background Technology

[0002] Plastic film production and use generate a large amount of scrap and waste materials. These waste materials are thin and fluffy, and direct stacking not only occupies a lot of storage space but also hinders subsequent transportation and recycling. Therefore, the industry commonly uses compression devices to compact plastic film waste. Currently, the compression equipment used for plastic film waste recycling mainly relies on the pressure head to extrude and shape the waste material in the cavity. It is widely used in plastic product manufacturing enterprises, recycling sites, and other scenarios, and is an indispensable supporting equipment in the resource recycling process of plastic waste.

[0003] However, when unloading, the molded material blocks in current compression equipment tend to stick to the cavity wall and get stuck. Usually, workers need to manually pry them to complete the discharge, which increases labor intensity and poses safety risks. At the same time, the equipment relies on the lifting and lowering of the pressing component to open and close the compression cavity. During operation, it has been found that when some plastic film material is exposed, workers often clean up the exposed material by hand. When the pressing component is running, it can easily cause crushing accidents, making it difficult to guarantee the safety of the operation.

[0004] In view of this, the present invention is proposed. Summary of the Invention

[0005] To address the problem that current compression equipment often experiences material block jamming against the cavity wall during unloading, requiring manual prying by workers to complete the discharge, which increases labor intensity and poses safety risks, and that the equipment relies on the lifting and lowering of the pressing component to open and close the compression cavity, it has been found that when some plastic film material is exposed, workers often manually clean up the exposed material, which can easily lead to crushing accidents when the pressing component is running, making it difficult to guarantee operational safety, the basic concept of the technical solution adopted in this invention is: A plastic film waste recycling and compression device includes a base with support rods connected to its four corners. Two uprights are connected to the center of the base. A top plate is fixed to the top of the support rods and the uprights. A pressing assembly is slidably mounted on the top plate. A driven plate is rotatably mounted between adjacent support rods and uprights. An active plate is rotatably mounted between adjacent support rods. A partition is connected between the two uprights. The active plate, driven plate, and partition form a first compression chamber and a second compression chamber arranged left and right. A gear assembly for synchronous rotation is mounted between the active plate and the driven plate. A discharge assembly is mounted on the base below the first and second compression chambers. A transmission mechanism is connected between the discharge assembly and the active plate. A pressure sensing component is arranged on the pressing assembly. An electric push rod for driving the pressing assembly to move is mounted on the top plate.

[0006] In a preferred embodiment of the present invention, the pressing assembly includes a mounting plate, a first hydraulic cylinder and a compression plate. A movable groove is provided inside the top plate. Movable blocks are connected to both sides of the mounting plate. The movable blocks are slidably embedded in the movable groove. A connecting plate is connected to the output end of the electric push rod. The connecting plate is connected to the mounting plate.

[0007] In a preferred embodiment of the present invention, a first hydraulic cylinder is vertically mounted in the middle of the mounting plate, and a compression plate is connected to the output end of the first hydraulic cylinder. A guide sleeve is fixed on the mounting plate, and a guide rod is vertically slidably mounted inside the guide sleeve. The lower end of the guide rod is fixedly connected to the top surface of the compression plate.

[0008] In a preferred embodiment of the present invention, a first pressure sensor is embedded in the bottom surface of the compression plate, an upper through groove is provided on the compression plate body, and a second pressure sensor is embedded in both the left and right end faces of the mounting plate.

[0009] In a preferred embodiment of the present invention, the gear assembly includes a driving helical gear and a driven helical gear. A rotating shaft is assembled in the driving plate, and a rotating shaft is assembled in the driven plate. The rotating shaft and the rotating shaft are rotatably mounted on a support rod and a vertical rod. Both ends of the rotating shaft are equipped with driving helical gears, and the end of the rotating shaft is equipped with a driven helical gear. The driving helical gear and the driven helical gear at the corresponding position mesh with each other for transmission.

[0010] In a preferred embodiment of the present invention, the gear assembly is installed inside the support rod, and a cover plate is installed at the top of the support rod.

[0011] In a preferred embodiment of the present invention, the unloading assembly includes a second hydraulic cylinder, an unloading plate, a telescopic sleeve, and a telescopic rod. The second hydraulic cylinder is vertically mounted on the base, and the output end of the second hydraulic cylinder is connected to the unloading plate. The telescopic sleeve is also vertically fixed on the base, and the telescopic rod is vertically slidably mounted inside the telescopic sleeve. The top end of the telescopic rod is connected to the bottom surface of the unloading plate, and the unloading plate has a groove for passing through it.

[0012] In a preferred embodiment of the present invention, the transmission mechanism includes a sliding rod, a sliding seat, a sliding block and a cam. The active plate has two parallel sliding grooves. A sliding seat is slidably installed inside the sliding groove, and a sliding rod is connected to the sliding seat.

[0013] In a preferred embodiment of the present invention, the unloading plate has two straight grooves, the side wall of the support rod has an inclined cam groove, the lower end of the sliding rod is connected to a cam and a slider on both sides, the slider is slidably embedded in the straight groove, and the cam is slidably engaged in the cam groove.

[0014] In a preferred embodiment of the present invention, the driven plate body is provided with a side through-strip groove, and the side through-strip groove, the upper through-strip groove and the lower through-strip groove correspond to each other to form a binding strap through-path.

[0015] Compared with the prior art, the present invention has the following advantages: This invention employs a dual-compression chamber configuration to create a dual-station alternating operation mode. While one chamber is performing compression operations, the other chamber can simultaneously complete material feeding, improving overall operational efficiency. The compression operation area and the feeding area are separated to minimize the risk of personnel being crushed. Pressure sensing components enhance the safety of equipment use. Furthermore, a mechanical transmission structure enables the unloading plate and the chamber side plates to operate in tandem. During unloading, the side plates can automatically open outwards to prevent material block jamming and reduce labor intensity.

[0016] The specific embodiments of the present invention will now be described in further detail with reference to the accompanying drawings. Attached Figure Description

[0017] In the attached diagram: Figure 1 A three-dimensional diagram of a plastic film waste recycling and compression device; Figure 2 This is a schematic diagram of the lower pressure component of a plastic film waste recycling and compression device. Figure 3 This is a schematic diagram of the first and second compression chambers of a plastic film waste recycling and compression device; Figure 4 This is a cross-sectional view of a plastic film waste recycling and compression device; Figure 5A plastic film waste recycling and compression device Figure 4 Enlarged view of point A in the middle; Figure 6 A plastic film waste recycling and compression device Figure 4 Enlarged view at point B in the middle; Figure 7 This is an assembly diagram of the transmission mechanism of a plastic film waste recycling and compression device; Figure 8 A plastic film waste recycling and compression device Figure 7 Enlarged view at point C; Figure 9 A plastic film waste recycling and compression device Figure 7 Enlarged view of point D in the middle.

[0018] In the diagram: 1. Base; 2. Support rod; 3. Upright pole; 4. Top plate; 41. Moving slot; 5. Pressing assembly; 51. Mounting plate; 52. First hydraulic cylinder; 53. Compression plate; 54. Guide sleeve; 55. Guide rod; 56. Moving block; 57. First pressure sensor; 58. Second pressure sensor; 59. Upper through slot; 6. Driven plate; 7. Driving plate; 8. Partition plate; 9. Cover plate; 10. Rotating shaft; 11. 12. Rotary shaft; 13. Driven helical gear; 14. Driven helical gear; 15. Side through groove; 16. Sliding rod; 17. Slide block; 18. Cam; 19. Slider; 20. Second hydraulic cylinder; 21. Unloading plate; 22. Telescopic sleeve; 23. Telescopic rod; 24. Cam groove; 25. Straight groove; 26. Electric push rod; 27. Connecting plate; 28. Lower through groove; 29. ​​First compression chamber; 30. Second compression chamber. Detailed Implementation

[0019] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, the technical solutions in the embodiments will be clearly and completely described below with reference to the accompanying drawings. The following embodiments are used to illustrate the present invention.

[0020] like Figures 1 to 9As shown, a plastic film waste recycling and compression device includes a base 1, with support rods 2 connected to the four corners of the base 1, and two uprights 3 connected to the middle of the base 1. A top plate 4 is fixed to the top of the support rods 2 and the uprights 3. A pressing assembly 5 is slidably mounted on the top plate 4. A driven plate 6 is rotatably mounted between adjacent support rods 2 and uprights 3, and an active plate 7 is rotatably mounted between adjacent support rods 2. A partition 8 is connected between the two uprights 3. The active plate 7, driven plate 6, and partition 8 enclose and separate to form a first compression chamber 29 and a second compression chamber 30 arranged on the left and right. A gear assembly for synchronous rotation is assembled between the active plate 7 and driven plate 6. A discharge assembly is mounted on the base 1 below the first compression chamber 29 and the second compression chamber 30. A transmission mechanism is connected between the discharge assembly and the active plate 7. A pressure sensing component is arranged on the pressing assembly 5, and an electric push rod 26 for driving the pressing assembly 5 to move is mounted on the top plate 4. In this setup, a support frame is formed by the base 1, support rod 2, and upright rod 3. A dual compression station is formed by the partition plate 8, active plate 7, and driven plate 6. The electric push rod 26 drives the pressing component 5 to switch stations. The opening and closing of the plate is controlled by the gear assembly and transmission mechanism, and the unloading component is used to achieve unloading. Pressure sensing components ensure the safety of equipment compression and operation, realizing an integrated waste recycling compression operation with alternating compression at dual stations and automatic unloading.

[0021] like Figures 1 to 9 As shown, in a specific embodiment, the pressing assembly 5 includes a mounting plate 51, a first hydraulic cylinder 52, and a compression plate 53. A movable groove 41 is provided inside the top plate 4. Movable blocks 56 are connected to both sides of the mounting plate 51, and the movable blocks 56 are slidably embedded inside the movable groove 41. A connecting plate 27 is connected to the output end of the electric push rod 26, and the connecting plate 27 is connected to the mounting plate 51. In this configuration, the electric push rod 26 drives the mounting plate 51 through the connecting plate 27, causing the mounting plate 51 to slide laterally along the movable groove 41 of the top plate 4 with the help of the movable blocks 56 on both sides. This drives the entire pressing assembly 5 to switch positions, correspondingly aligning with the first compression chamber 29 or the second compression chamber 30, realizing alternating compression operations at two positions. The sliding cooperation between the movable groove 41 and the movable blocks 56 can limit the movement trajectory of the pressing assembly 5.

[0022] like Figures 1 to 9As shown, a first hydraulic cylinder 52 is vertically mounted in the middle of the mounting plate 51. The output end of the first hydraulic cylinder 52 is connected to a compression plate 53. A guide sleeve 54 is fixed on the mounting plate 51, and a guide rod 55 is vertically slidably mounted inside the guide sleeve 54. The lower end of the guide rod 55 is fixedly connected to the top surface of the compression plate 53. In this configuration, the first hydraulic cylinder 52 drives the compression plate 53 to move up and down, completing the compression operation of the plastic film waste inside the compression chamber. At the same time, through the vertical sliding cooperation between the guide sleeve 54 and the guide rod 55, the downward pressing and resetting actions of the compression plate 53 are guided, ensuring a smooth compression process and improving the regularity of the compressed waste.

[0023] like Figures 1 to 9 As shown, furthermore, a first pressure sensor 57 is embedded in the bottom surface of the compression plate 53, and an upper through-strip groove 59 is formed on the plate body of the compression plate 53. Second pressure sensors 58 are embedded in the left and right end faces of the mounting plate 51. In this configuration, when the compression plate 53 presses down to compress waste material, the first pressure sensor 57 on the bottom surface can detect the compression pressure, and the compression start / stop and pressure holding processes are controlled according to the pressure value to avoid insufficient pressure causing the material to loosen or excessive pressure damaging the equipment. Simultaneously, the second pressure sensors 58 on both sides of the mounting plate 51 can sense obstacles or human contact during the lateral movement of the pressing assembly 5, stopping the movement and providing a through-strip channel for binding the material in conjunction with the upper through-strip groove 59.

[0024] like Figures 1 to 9 As shown, the gear assembly further includes a driving helical gear 13 and a driven helical gear 12. A rotating shaft 11 is mounted in the driving plate 7, and a rotating shaft 10 is mounted in the driven plate 6. The rotating shafts 11 and 10 are rotatably mounted on the support rod 2 and the upright rod 3. Driving helical gears 13 are mounted at both ends of the rotating shaft 11, and driven helical gears 12 are mounted at the end of the rotating shaft 10. The driving helical gears 13 and the corresponding driven helical gears 12 mesh and transmit power. In this configuration, the driving plate 7 rotates within the support rod 2 via the rotating shaft 11. During rotation, the driving helical gears 13 at the shaft end rotate synchronously, driving the driven helical gears 12 and the corresponding rotating shafts 10 to rotate through gear meshing transmission. This, in turn, drives the driven plates 6 on both sides to open and close synchronously, achieving synchronized action between the driving plate 7 and the driven plates 6, ensuring that the entire cavity opens or closes synchronously.

[0025] like Figures 1 to 9 As shown, the gear assembly is further installed inside the support rod 2, and a cover plate 9 is installed at the top of the support rod 2. In this configuration, the gear assembly is completely housed inside the support rod 2, protecting the driving helical gear 13 and driven helical gear 12 in the meshing transmission. This prevents dust and waste debris from entering the gear meshing gap during operation, causing jamming and wear. At the same time, the top cover plate 9 provides sealed protection, facilitating the disassembly and maintenance of the gear assembly in the future, and ensuring the long-term stable operation of the transmission structure.

[0026] like Figures 1 to 9 As shown, the unloading assembly further includes a second hydraulic cylinder 20, an unloading plate 21, a telescopic sleeve 22, and a telescopic rod 23. The second hydraulic cylinder 20 is vertically mounted on the base 1, and the output end of the second hydraulic cylinder 20 is connected to the unloading plate 21. The telescopic sleeve 22 is also vertically fixed on the base 1, and the telescopic rod 23 is vertically slidably mounted inside the telescopic sleeve 22. The top end of the telescopic rod 23 is connected to the bottom surface of the unloading plate 21. The unloading plate 21 has a groove 28 for lowering the strip. In this configuration, the second hydraulic cylinder 20 drives the unloading plate 21 to move up and down, completing the unloading and support of the formed material block. At the same time, the sliding cooperation between the telescopic sleeve 22 and the telescopic rod 23 can guide and support the lifting action of the unloading plate 21, preventing the unloading plate 21 from tilting or shifting under force, and improving the lifting stability. The groove 28 for lowering the strip on the unloading plate 21 can cooperate with the upper stripping structure to form a path for binding and threading the material block.

[0027] like Figures 1 to 9 As shown, the transmission mechanism further includes a sliding rod 15, a sliding seat 16, a slider 19, and a cam 18. Two parallel sliding grooves 17 are provided on the active plate 7. The sliding seat 16 is slidably installed inside the sliding grooves 17, and the sliding rod 15 is connected to the sliding seat 16. In this configuration, during the lifting and lowering process of the unloading plate 21, the sliding rod 15 can be driven to move synchronously, causing the sliding seat 16 at the top of the sliding rod 15 to slide adaptively along the sliding grooves 17 of the active plate 7. The sliding cooperation between the sliding grooves 17 and the sliding seat 16 matches the displacement trajectory of the sliding rod 15, preventing transmission jamming and realizing the transmission of the lifting action of the unloading plate 21 to the rotation action of the active plate 7, providing transmission power for the opening and closing of the plate.

[0028] like Figures 1 to 9 As shown, the unloading plate 21 has two straight grooves 25, and the side wall of the support rod 2 has an inclined cam groove 24. The lower ends of the sliding rod 15 are connected to the cam 18 and the slider 19. The slider 19 is slidably embedded in the straight groove 25, and the cam 18 is slidably engaged in the cam groove 24. In this configuration, when the unloading plate 21 descends, it can drive the slider 19 to move through the straight groove 25. At the same time, the cam 18 at the lower end of the sliding rod 15 slides along the trajectory of the inclined cam groove 24 of the support rod 2, causing the sliding rod 15 to deflect. This displacement is then caused by the sliding block 16 to pull the active plate 7 to rotate, converting the vertical linear motion of the unloading plate 21 into the rotational motion of the active plate 7, thus realizing the mechanical linkage between the unloading action and the opening and closing action of the plate.

[0029] like Figures 1 to 9As shown, the driven plate 6 further includes a side-through groove 14, which, along with the upper through groove 59 and the lower through groove 28, forms a path for the strapping. In this configuration, the corresponding cooperation of the side-through groove 14 on the driven plate 6, the upper through groove 59 on the compression plate 53, and the lower through groove 28 on the unloading plate 21 allows for a wraparound strapping operation on the compressed plastic film block.

[0030] The implementation principle of the plastic film waste recycling and compression device in this embodiment is as follows: In use, the electric push rod 26 is first activated. The electric push rod 26, through the connecting plate 27, drives the pressing component 5 to move horizontally along the moving groove 41 inside the top plate 4 using the moving blocks 56 on both sides of the mounting plate 51. This moves the pressing component 5 above the second compression chamber 30, at which point the top of the first compression chamber 29 is completely open, allowing the operator to deposit the plastic film waste to be processed into the first compression chamber 29. After the first compression chamber 29 is filled, the electric push rod 26 is controlled to reverse its movement, pushing the pressing component 5 to slide directly above the first compression chamber 29. The top of the second compression chamber 30 then opens, allowing the second compression chamber 30 to be replenished with plastic film waste, achieving alternating feeding operations at two stations. During the movement of the pressing component 5, if it accidentally touches a person or foreign object on its side, the second pressure sensors 58 on both sides of the mounting plate 51 will trigger a signal, controlling the electric push rod 26 to stop, preventing pinching accidents.

[0031] After the pressing component 5 is positioned above the first compression chamber 29, the first hydraulic cylinder 52 is activated. The output end of the first hydraulic cylinder 52 pushes the compression plate 53 to move vertically downward. The guide sleeve 54 on the mounting plate 51 and the guide rod 55 cooperate to limit and guide the movement trajectory of the compression plate 53, ensuring that the downward pressure does not deviate. The compression plate 53 gradually squeezes the plastic film waste inside the first compression chamber 29. The first pressure sensor 57 on the bottom surface of the compression plate 53 detects the pressure value generated during the compression process. When the pressure reaches the preset value, the control system immediately shuts down the first hydraulic cylinder 52, and the compression plate 53 stops descending and maintains the current state to complete a short-term pressure holding, thereby improving the compactness of the material block.

[0032] After the pressure holding process is completed, the operator passes the strapping tape through the upper strapping groove 59 on the compression plate 53, the side strapping groove 14 on the driven plate 6, and the lower strapping groove 28 on the unloading plate 21 to wrap around the compressed material block. After the binding operation is completed, the first hydraulic cylinder 52 is controlled to retract, driving the compression plate 53 to return to its original position and detach it from the internal space of the first compression chamber 29. Then, the second hydraulic cylinder 20 on the base 1 is activated. The output end of the second hydraulic cylinder 20 pulls the unloading plate 21 downward as a whole. During the downward movement of the unloading plate 21, the telescopic sleeve 22 and the telescopic rod 23 on the base 1 cooperate with each other to support and guide the unloading plate 21, ensuring its vertical movement.

[0033] When the unloading plate 21 moves downward, the straight grooves 25 on both sides drive the internal slider 19 to move synchronously. The slider 19 then pulls the sliding rod 15 to move. The cam 18 at the lower end of the sliding rod 15 slides along the cam groove 24 inclined on the side wall of the support rod 2, causing the sliding rod 15 to deflect accordingly. At the same time, the slide block 16 connected to the top of the sliding rod 15 slides along the slide groove 17 on the active plate 7, thereby driving the active plate 7 to rotate outward around the rotation axis 11. During the rotation of the active plate 7, the active helical gears 13 at both ends of its rotation axis 11 operate synchronously, driving the driven helical gear 12 and the corresponding rotation axis 10 to rotate through the gear meshing relationship, ultimately driving the driven plate 6 to open outward synchronously with the active plate 7, releasing the wrapping and limiting of the material block. At this time, the compressed and bound plastic film block loses its enclosure constraint and falls together with the unloading plate 21, completing the unloading. During the compression, bundling, and unloading process in the first compression chamber 29, the second compression chamber 30 can continuously perform feeding operations. The two compression chambers alternately cycle to continuously complete the recycling and compression processing of plastic film waste.

[0034] Finally, it should be noted that the above descriptions are merely preferred embodiments of the present invention and are not intended to limit the present invention. 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. A plastic film waste recycling and compression device, comprising a base (1), characterized in that, The base (1) is connected to four corners with support rods (2), and two uprights (3) are connected to the middle of the base (1). The top of the support rods (2) and the uprights (3) are fixed together with a top plate (4). A pressing assembly (5) is slidably mounted on the top plate (4). A driven plate (6) is rotatably installed between adjacent support rods (2) and uprights (3). An active plate (7) is rotatably installed between adjacent support rods (2). A partition (8) is connected between the two uprights (3). The active plate (7), the driven plate (6), and the partition are connected together. (8) The first compression chamber (29) and the second compression chamber (30) are arranged in a left-right arrangement by enclosing and separating them. A gear assembly for synchronous rotation is installed between the active plate (7) and the driven plate (6). A discharge assembly is installed on the base (1) below the first compression chamber (29) and the second compression chamber (30). A transmission mechanism is connected between the discharge assembly and the active plate (7). A pressure sensing component is arranged on the pressing assembly (5). An electric push rod (26) for driving the pressing assembly (5) to move is installed on the top plate (4).

2. The plastic film waste recycling and compression device according to claim 1, characterized in that, The pressing assembly (5) includes a mounting plate (51), a first hydraulic cylinder (52) and a compression plate (53). The top plate (4) has a moving groove (41) inside. Moving blocks (56) are connected to both sides of the mounting plate (51). The moving blocks (56) are correspondingly slidably embedded in the moving groove (41). The output end of the electric push rod (26) is connected to a connecting plate (27). The connecting plate (27) is connected to the mounting plate (51).

3. The plastic film waste recycling and compression device according to claim 2, characterized in that, A first hydraulic cylinder (52) is vertically mounted in the middle of the mounting plate (51). The output end of the first hydraulic cylinder (52) is connected to a compression plate (53). A guide sleeve (54) is fixed on the mounting plate (51). A guide rod (55) is vertically slidably mounted inside the guide sleeve (54). The lower end of the guide rod (55) is fixedly connected to the top surface of the compression plate (53).

4. The plastic film waste recycling and compression device according to claim 2, characterized in that, The compression plate (53) has a first pressure sensor (57) embedded on its bottom surface. The compression plate (53) has an upper through groove (59) on its body. The mounting plate (51) has a second pressure sensor (58) embedded on both its left and right end faces.

5. The plastic film waste recycling and compression device according to claim 1, characterized in that, The gear assembly includes a driving helical gear (13) and a driven helical gear (12). A rotating shaft (11) is assembled in the driving plate (7), and a rotating shaft (10) is assembled in the driven plate (6). The rotating shaft (11) and the rotating shaft (10) are rotatably mounted on the support rod (2) and the upright rod (3). Both ends of the rotating shaft (11) are equipped with driving helical gears (13), and the end of the rotating shaft (10) is equipped with a driven helical gear (12). The driving helical gear (13) and the driven helical gear (12) at the corresponding position mesh with each other for transmission.

6. The plastic film waste recycling and compression device according to claim 5, characterized in that, The gear assembly is installed inside the support rod (2), and a cover plate (9) is installed on the top of the support rod (2).

7. The plastic film waste recycling and compression device according to claim 1, characterized in that, The unloading assembly includes a second hydraulic cylinder (20), an unloading plate (21), a telescopic sleeve (22), and a telescopic rod (23). The second hydraulic cylinder (20) is vertically mounted on the base (1). The output end of the second hydraulic cylinder (20) is connected to the unloading plate (21). The telescopic sleeve (22) is also vertically fixed on the base (1). The telescopic rod (23) is vertically slidably mounted inside the telescopic sleeve (22). The top end of the telescopic rod (23) is connected to the bottom surface of the unloading plate (21). The unloading plate (21) has a groove (28) for downward through-stripping.

8. A plastic film waste recycling and compression device according to claim 1, characterized in that, The transmission mechanism includes a sliding rod (15), a sliding seat (16), a slider (19), and a cam (18). The active plate (7) has two parallel sliding grooves (17) on its body. The sliding seat (16) is slidably installed inside the sliding groove (17), and the sliding rod (15) is connected to the sliding seat (16).

9. A plastic film waste recycling and compression device according to claim 7, characterized in that, The unloading plate (21) has two straight grooves (25), the support rod (2) has an inclined cam groove (24) on its side wall, and the sliding rod (15) has a cam (18) and a slider (19) connected on both sides of its lower end. The slider (19) is slidably embedded in the straight groove (25), and the cam (18) is slidably engaged in the cam groove (24).

10. A plastic film waste recycling and compression device according to claim 1, characterized in that, The driven plate (6) has a side through groove (14) on its body. The side through groove (14), the upper through groove (59) and the lower through groove (28) correspond to each other to form a binding strap through path.

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