Automatic discharging equipment for vehicle-mounted plastic products

Abstract

The invention discloses automatic discharging equipment for vehicle-mounted plastic products, and relates to the technical field of vehicle-mounted plastic product production. Comprising a machine body, a moving assembly is arranged above the machine body, the moving assembly comprises a bottom plate, a third supporting seat is fixed above the bottom plate, a mounting groove plate is fixed above the third supporting seat, a transverse moving plate is slidably arranged above the mounting groove plate, a mounting box is arranged above the transverse moving plate, and two partition plates are arranged in the mounting box; wherein a driving motor is fixed to one partition plate, a driving wheel is fixed to an output shaft of the driving motor, an adjusting assembly is arranged above the mounting groove plate, a plurality of clamping assemblies are arranged below the adjusting assembly, a feeding assembly is arranged on the side face of the machine body, and a placing assembly is arranged above the feeding assembly. The full-process automation from raw material conveying, forming machining, part feeding, product clamping to final placement is achieved, the production efficiency is improved, the labor cost is reduced, and personal errors are reduced.

Description

Technical Field

[0001] This invention relates to the field of automotive plastic product manufacturing technology, specifically to an automated unloading device for automotive plastic products. Background Technology

[0002] In the traditional production process of automotive plastic products, the unloading process often relies heavily on manual labor. Workers need to manually remove the molded plastic products from the mold, cut them, and then transport them to the designated location. This process is not only labor-intensive and inefficient, but also prone to product damage or dimensional deviations due to human factors, affecting product quality. In addition, different specifications and shapes of automotive plastic products require different operating methods and tools. Traditional production methods are difficult to adapt to product changes quickly, and the equipment has poor versatility, which cannot meet the needs of modern large-scale and diversified production. Summary of the Invention

[0003] The purpose of this invention is to provide an automated unloading device for vehicle-mounted plastic products to solve the problems mentioned in the background art.

[0004] To achieve the above objectives, the present invention provides the following technical solution: an automated unloading device for vehicle-mounted plastic products, comprising a machine body, a movable component disposed on the top of the machine body, the movable component comprising a base plate, a support base three fixed on the top of the base plate, an mounting groove plate fixed on the top of the support base three, a control box disposed at the end of the mounting groove plate, a fixing strip fixed on the top of the mounting groove plate, a transverse plate slidably disposed on the top of the mounting groove plate, an mounting box disposed on the top of the transverse plate, two partitions disposed inside the mounting box, a drive motor fixed on one partition, a drive wheel fixed on the output shaft of the drive motor, two rotating shafts rotatably disposed between the two partitions, a driven wheel and two movable wheels fixed on the rotating shafts, the two movable wheels located on both sides of the driven wheel, belts disposed on the drive wheel and the two movable wheels, all four movable wheels abutting against the fixing strip, a mounting plate fixed on the side of the base plate, two electric shears disposed on the top of the mounting plate, an adjustment component disposed on the top of the mounting groove plate, several clamping components disposed below the adjustment component, a feeding component disposed on the side of the machine body, and a placement component disposed above the feeding component.

[0005] A feeding hopper is provided on the top of the machine body, and a mold is provided inside the machine body.

[0006] With the above structure, the machine body serves as the supporting foundation for the entire equipment, providing installation positions for other components. The feed hopper is used to transport raw materials into the machine body, while the mold is responsible for shaping and processing the raw materials into the required vehicle-mounted plastic products.

[0007] The adjustment assembly includes a second sliding plate and a first sliding plate, which are symmetrically arranged. Both the second and first sliding plates are slidably positioned above the horizontal sliding plate. A second vertical plate is slidably positioned above the second sliding plate, and a second rack is fixed to the side of the second vertical plate. A lower plate is fixed below the second sliding plate, and a second gear motor is fixed to the lower plate. A second drive gear is fixed to the output shaft of the second gear motor, and the second drive gear meshes with the second rack. A first vertical plate is slidably positioned above the first sliding plate, and a first rack is fixed to the side of the first vertical plate. A third gear motor is fixed above the first sliding plate, and a third drive gear is fixed to the output shaft of the third gear motor, and the third drive gear meshes with the first rack. A connecting column is fixed below both the first and second vertical plates, and a mounting groove is provided at the end of the connecting column. A rotating block is rotatably positioned inside the mounting groove, and an L-shaped block is fixed below the rotating block. A rotary motor is fixed to the side of the connecting column, and the output shaft of the rotary motor is fixedly connected to the rotating block.

[0008] With the above structure, gear motor 2 drives drive gear 2 to rotate via its output shaft. Drive gear 2 meshes with rack 2 fixed to the side of vertical plate 2. According to the principle of gear and rack transmission, the rotation of drive gear 2 drives rack 2 to move, thereby causing vertical plate 2 to slide vertically on sliding plate 2. Gear motor 3 rotates via drive gear 3 on its output shaft. Drive gear 3 meshes with rack 1 on the side of vertical plate 1, thereby realizing vertical sliding of vertical plate 1 on sliding plate 1. By controlling the speed and direction of gear motor 2 and gear motor 3, the vertical position of vertical plate 1 and vertical plate 2 can be precisely controlled to adapt to the clamping requirements of vehicle-mounted plastic products at different heights. When the clamping angle needs to be adjusted, the rotary motor on the side of the connecting column works, and its output shaft drives the rotating block to rotate in the mounting slot. An L-shaped block is fixed below the rotating block, and the L-shaped block rotates with the rotating block, thereby realizing the adjustment of the angle of the clamping component, so that the clamping component can clamp vehicle-mounted plastic products at a suitable angle to meet the clamping requirements of products with different shapes.

[0009] The adjustment assembly also includes a gear motor 1, a gear motor 4, and a rack 3. The rack 3 is fixed to the side of the transverse plate, the gear motor 1 is fixed above the sliding plate 2, and a drive gear 1 is fixed on the output shaft of the gear motor 1. The drive gear 1 meshes with the rack 3. The gear motor 4 is fixed above the sliding plate 1, and a drive gear 4 is fixed on the output shaft of the gear motor 4. The drive gear 4 meshes with the rack 3.

[0010] With the above structure, gear motor one is fixed above sliding plate two. When gear motor one receives a control signal and starts, its output shaft begins to rotate, which in turn drives the drive gear one fixed on the output shaft to rotate. Since drive gear one meshes with rack three fixed on the side of the transverse plate, according to the transmission characteristics of gear rack, the rotational motion of drive gear one will be converted into linear motion, thereby driving sliding plate two to move horizontally along the transverse plate. By controlling the speed and direction of gear motor one, the moving speed and direction of sliding plate two can be precisely controlled. Gear motor four is fixed above sliding plate one. When gear motor four is working, its output shaft drives drive gear four to rotate. Drive gear four also meshes with rack three, so the rotation of drive gear four will cause sliding plate one to move horizontally along the transverse plate. Furthermore, by independently controlling gear motor one and gear motor four, the synchronous or asynchronous movement of sliding plate two and sliding plate one can be achieved to meet different working requirements.

[0011] The clamping assembly includes a connecting plate fixed below the connecting column. Several electric suction cups are fixed below the connecting plate. Two symmetrical electric push rods are fixed below the connecting plate. Clamping plates are fixed to the ends of the electric push rods. Two injection molded workpieces are adsorbed below the several electric suction cups. A connector is fixed between the two injection molded workpieces and is located between the two clamping plates.

[0012] With the above structure, the connecting plate serves as the basic mounting component of the clamping assembly, firmly fixed below the connecting column. Several electric suction cups installed below it generate suction force through the principle of negative pressure after being powered on, thereby tightly adsorbing and fixing the two injection molded workpieces, providing initial stable support for subsequent operations. The two symmetrically distributed electric push rods can extend and retract under the control system. The clamping plates fixed at their ends close towards the middle as the electric push rods extend. Since the connecting part between the two injection molded workpieces is exactly between the two clamping plates, the clamping plates will apply clamping force to the connecting part, further enhancing the fixing effect on the injection molded workpieces and ensuring that the workpieces will not loosen during subsequent handling and other operations.

[0013] The feeding assembly includes a bracket, an mounting platform fixed above the bracket, two vibrating feeding discs fixed above the mounting platform, two support seats one fixed above the mounting platform, two conveying troughs fixed above the support seats one, the conveying troughs being located at the discharge port of the vibrating feeding discs, two support seats two fixed above the mounting platform, an electric push rod one fixed above the support seats two, a movable plate fixed to the end of the electric push rod one, and a limit groove formed above the movable plate.

[0014] Using the above structure, the bracket provides a stable foundation for the entire feeding assembly, ensuring the stability of the components above it during operation. The mounting platform is fixed on the bracket, providing a mounting platform for other functional components. Two vibrating feeding discs are fixed on the mounting platform, using vibration to arrange the messy automotive plastic product parts inside in an orderly manner and output them from the discharge port. Support seat one provides fixed support for the conveying trough plate, enabling the conveying trough plate located at the discharge port of the vibrating feeding disc to accurately receive and guide the orderly movement of parts, ensuring the continuity of part conveying. Support seat two provides a fixing function for the electric push rod one. The electric push rod one can perform telescopic movement under the action of the control system, and the moving plate fixed at its end moves accordingly. The limiting groove opened on the top of the moving plate can limit the parts. As the moving plate moves, the parts are accurately conveyed to the designated position to meet the needs of subsequent production stages.

[0015] The placement assembly includes two upright plates, with a support plate fixed above each upright plate. A movable slot plate one is fixed above the support plate. A lead screw one is rotatably mounted inside the movable slot plate one. A movable block one is threadedly connected to the lead screw one and slidably mounted inside the movable slot plate one. A movable motor one is fixed to the end of the movable slot plate one, and the output shaft of the movable motor one is connected to the lead screw one. A fixed plate is fixed above the movable block one, and a movable slot plate two is fixed to the fixed plate. A lead screw two is rotatably mounted inside the movable slot plate two, with a movable block two threadedly connected to the lead screw two and slidably mounted on the movable slot plate two. A movable motor two is fixed to the end of the movable slot plate two, and the output shaft of the movable motor two is connected to the lead screw two. An electric push rod two is fixed to the movable block two, and an electric gripper is fixed to the end of the electric push rod two.

[0016] Using the above structure, the two upright plates form a stable support frame for the entire placement assembly, ensuring the stability of the components above during operation. The support plate is fixed on the upright plates, providing an installation base for the first movable slot plate. After the first movable motor starts, its output shaft drives the first lead screw inside the first movable slot plate to rotate. Since the first movable block is threadedly connected to the first lead screw and slidably disposed inside the first movable slot plate, according to the principle of lead screw transmission, the first movable block will move linearly along the length of the first movable slot plate. The fixed plate above the first movable block moves accordingly, thereby driving the second movable slot plate fixed on it to move, realizing horizontal position adjustment. Similarly, when the second movable motor works, it drives the second lead screw inside the second movable slot plate to rotate, causing the second movable block threadedly connected to the second lead screw to move along the second movable slot plate, realizing displacement adjustment in another horizontal direction. The second electric push rod fixed on the second movable block can extend and retract, driving the electric gripper at the end to move vertically. The electric gripper is responsible for gripping and placing the unloaded vehicle-mounted plastic product. Through the coordinated movement of each component, the product can be accurately placed in the designated position.

[0017] Compared with the prior art, the beneficial effects of the present invention are: This automated material handling equipment for vehicle-mounted plastic products achieves full automation from raw material conveying, molding, component loading, product clamping to final placement. This improves production efficiency, reduces labor costs, minimizes human error, and enhances product quality stability. Furthermore, the equipment features multi-dimensional adjustment capabilities, allowing for flexible adjustment of the working states of various components according to different product characteristics. It adapts to various specifications and shapes of vehicle-mounted plastic products, demonstrating strong versatility and applicability. The electric shears within the equipment facilitate the cutting of injection-molded parts, and the cut parts are precisely placed onto the corresponding loading components, further ensuring production continuity and efficiency. Attached Figure Description

[0018] Figure 1 This is a three-dimensional structural diagram of the present invention; Figure 2 This is a three-dimensional structural diagram of the feeding component in this invention; Figure 3 This is a top view of the feeding assembly in this invention. Figure 4 This is a three-dimensional structural diagram of the component placement in this invention; Figure 5 This is a three-dimensional structural diagram of the moving component in this invention; Figure 6 This is a front view of the moving component in this invention. Figure 7 This is a cross-sectional structural diagram of the moving component in this invention; Figure 8 for Figure 1 Enlarged structural diagram at point A; Figure 9 for Figure 7 Enlarged structural diagram at point B; Figure 10 This is a three-dimensional structural diagram of the clamping component in this invention; Figure 11 This is a top view of the moving component in this invention.

[0019] In the diagram: 1. Control box; 2. Mold; 3. Feed hopper; 4. Machine body; 5. Bracket; 6. Mounting slot; 7. Mounting plate; 8. Fixing strip; 9. Mounting box; 10. Vibrating feeder; 11. Support base one; 12. Conveying slot; 13. Limiting slot; 14. Support base two; 15. Mounting platform; 16. Electric push rod one; 17. Moving plate; 18. Moving motor one; 19. Support plate; 20. Moving slot one; 21. Moving motor two; 22. Vertical plate; 23. Moving block one; 24. Moving slot two; 25. Electric gripper; 26. Electric push rod two; 27. Moving block two; 28. Fixing plate; 29. ​​Rack one; 30. Vertical plate one; 31. Vertical plate two; 32. Rack two; 33. Gear motor one; 34. Drive gear one; 35. Gear motor two; 36. Drive gear two; 37. Connecting column; 38. Rotating block; 39. Injection molded workpiece; 40. Mounting slot; 41. L-shaped block; 42. Rotary motor; 43. Drive gear three; 44. Gear motor three; 45. Electric suction cup; 46. Drive gear four; 47. Gear motor four; 48. Drive wheel; 49. Support base three; 50. Base plate; 51. Belt; 52. Electric shears; 53. Lower plate; 54. Sliding plate two; 55. Driven wheel; 56. Moving wheel; 57. Electric push rod three; 58. Connecting piece; 59. Clamping plate; 60. Connecting plate; 61. Sliding plate one; 62. Horizontal moving plate; 63. Rack three. Detailed Implementation

[0020] 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.

[0021] like Figures 1-11As shown, the present invention provides a technical solution: an automated unloading device for vehicle-mounted plastic products, including a body 4, a moving component disposed on the top of the body 4, the moving component including a base plate 50, a support base 49 fixed on the top of the base plate 50, a mounting slot plate 6 fixed on the top of the support base 49, a control box 1 disposed at the end of the mounting slot plate 6, a fixing strip 8 fixed on the top of the mounting slot plate 6, a transverse plate 62 slidably disposed on the top of the mounting slot plate 6, a mounting box 9 disposed on the top of the transverse plate 62, and two partitions disposed inside the mounting box 9, one of which is fixed with a drive motor, the drive motor output... A drive wheel 48 is fixed on the output shaft. Two rotating shafts are rotatably arranged between the two partitions. A driven wheel 55 and two movable wheels 56 are fixed on the rotating shafts. The two movable wheels 56 are located on both sides of the driven wheel 55. A belt 51 is provided on the drive wheel 48 and the two movable wheels 56. All four movable wheels 56 abut against the fixed strip 8. A mounting plate 7 is fixed on the side of the base plate 50. Two electric shears 52 are provided above the mounting plate 7. An adjustment component is provided above the mounting slot plate 6. Several clamping components are provided below the adjustment component. A feeding component is provided on the side of the machine body 4. A placement component is provided above the feeding component.

[0022] A feeding hopper 3 is installed on the top of the machine body 4, and a mold 2 is installed inside the machine body 4. The machine body 4 serves as the supporting foundation for the entire equipment and provides installation positions for other components. The feeding hopper 3 is used to transport raw materials into the machine body 4, and the mold 2 is responsible for molding the raw materials to make them into the required vehicle plastic products.

[0023] The adjustment assembly includes a second sliding plate 54 and a first sliding plate 61, which are symmetrically arranged. Both sliding plates 54 and 61 are slidably positioned above the transverse sliding plate 62. A second vertical plate 31 is slidably positioned above the second sliding plate 54, and a second rack 32 is fixed to the side of the second vertical plate 31. A lower plate 53 is fixed below the second sliding plate 54, and a second gear motor 35 is fixed on the lower plate 53. A second drive gear 36 is fixed on the output shaft of the second gear motor 35, and the second drive gear 36 meshes with the second rack 32. A vertical plate is slidably positioned above the first sliding plate 61. A rack 29 is fixed to the side of vertical plate 30. A gear motor 44 is fixed above sliding plate 61. A drive gear 43 is fixed on the output shaft of gear motor 44 and meshes with rack 29. A connecting post 37 is fixed below both vertical plate 30 and vertical plate 31. A mounting groove 40 is provided at the end of the connecting post 37. A rotating block 38 is rotatably mounted inside the mounting groove 40. An L-shaped block 41 is fixed below the rotating block 38. A rotary motor 42 is fixed to the side of the connecting post 37. The output shaft of the rotary motor 42 is fixed to the rotating block 38. Connection; Gear motor 2 35 drives drive gear 2 36 to rotate via its output shaft. Drive gear 2 36 meshes with rack 2 32 fixed to the side of vertical plate 2 31. According to the principle of gear and rack transmission, the rotation of drive gear 2 36 drives rack 2 32 to move, thereby causing vertical plate 2 31 to slide vertically on sliding plate 2 54. Gear motor 3 44 rotates via drive gear 3 43 on its output shaft. Drive gear 3 43 meshes with rack 29 on the side of vertical plate 1 30, thereby realizing vertical sliding of vertical plate 1 30 on sliding plate 1 61. By controlling gear motor 2 35... The rotation speed and direction of the gear motor 344 can precisely control the vertical position of the vertical plate 1 30 and the vertical plate 2 31 to adapt to the clamping requirements of vehicle plastic products at different heights. When the clamping angle needs to be adjusted, the rotary motor 42 on the side of the connecting column 37 works, and its output shaft drives the rotating block 38 to rotate in the mounting groove 40. An L-shaped block 41 is fixed below the rotating block 38, and the L-shaped block 41 will rotate with the rotating block 38, thereby realizing the adjustment of the angle of the clamping component, so that the clamping component can clamp the vehicle plastic product at a suitable angle to meet the clamping requirements of products with different shapes.

[0024] The adjustment assembly also includes a gear motor 33, a gear motor 47, and a rack 63. The rack 63 is fixed to the side of the transverse plate 62. The gear motor 33 is fixed above the sliding plate 54. A drive gear 34 is fixed to the output shaft of the gear motor 33, meshing with the rack 63. The gear motor 47 is fixed above the sliding plate 61, and a drive gear 46 is fixed to its output shaft, meshing with the rack 63. The gear motor 33 is fixed above the sliding plate 54. When the gear motor 33 receives a control signal and starts, its output shaft begins to rotate, thereby driving the drive gear 34 fixed to the output shaft to rotate. Since the drive gear 34 meshes with the rack 63 fixed to the side of the transverse plate 62... Based on the transmission characteristics of the gear and rack, the rotational motion of the driving gear 34 is converted into linear motion, thereby driving the sliding plate 54 to move horizontally along the transverse plate 62. By controlling the speed and direction of the gear motor 33, the moving speed and direction of the sliding plate 54 can be precisely controlled. The gear motor 47 is fixed above the sliding plate 61. When the gear motor 47 is working, its output shaft drives the driving gear 46 to rotate. The driving gear 46 also meshes with the rack 63, so the rotation of the driving gear 46 will cause the sliding plate 61 to move horizontally along the transverse plate 62. Furthermore, by independently controlling the gear motor 33 and the gear motor 47, the sliding plate 54 and the sliding plate 61 can move synchronously or asynchronously to meet different working requirements.

[0025] The clamping assembly includes a connecting plate 60, which is fixed below the connecting post 37. Several electric suction cups 45 are fixed below the connecting plate 60, and two symmetrical electric push rods 57 are fixed below the connecting plate 60. Clamping plates 59 are fixed to the ends of the electric push rods 57. Two injection molded workpieces 39 are adsorbed below the electric suction cups 45. A connector 58 is fixed between the two injection molded workpieces 39, located between the two clamping plates 59. Pre-drilled holes are provided on both injection molded workpieces 39. The connecting plate 60 serves as the basic mounting component of the clamping assembly, securely fixed below the connecting post 37, and has pre-drilled holes below it. Several electric suction cups 45, when powered on, generate suction force based on the principle of negative pressure, thereby firmly adsorbing and fixing the two injection molded workpieces 39, providing initial stable support for subsequent operations; while two symmetrically distributed electric push rods 57 can extend and retract under the control of the control system. The clamping plates 59 fixed at their ends close together in the middle as the electric push rods 57 extend. Since the connecting piece 58 between the two injection molded workpieces 39 is exactly between the two clamping plates 59, the clamping plates 59 will apply clamping force to the connecting piece 58, further strengthening the fixing effect on the injection molded workpieces 39, ensuring that the workpieces will not loosen during subsequent handling and other operations.

[0026] The feeding assembly includes a bracket 5, with a mounting platform 15 fixed above the bracket 5. Two vibrating feeding discs 10 are fixed above the mounting platform 15, and two support seats 11 are fixed above the mounting platform 15. Two conveying troughs 12 are fixed above the support seats 11, located at the discharge ports of the vibrating feeding discs 10. Two support seats 2 14 are fixed above the mounting platform 15, with an electric push rod 16 fixed above the support seats 2 14. A movable plate 17 is fixed to the end of the electric push rod 16, and a limit groove 13 is formed above the movable plate 17. The bracket 5 provides a stable basic support structure for the entire feeding assembly, ensuring the stability of the components above it during operation. The mounting platform 15, fixed to the bracket 5, provides mounting space for other functional components. The platform has two vibrating feeding trays 10 fixed on the mounting table 15. Through vibration, the messy parts of the vehicle plastic products inside are arranged in an orderly manner and output from the discharge port. Support seat 11 provides fixed support for the conveying trough plate 12, so that the conveying trough plate 12 located at the discharge port of the vibrating feeding tray 10 can accurately receive and guide the parts to move in an orderly manner, ensuring the continuity of the parts conveying. Support seat 2 14 fixes the electric push rod 16. The electric push rod 16 can move telescopically under the action of the control system. The movable plate 17 fixed at its end moves accordingly. The limiting groove 13 opened above the movable plate 17 can limit the parts. As the movable plate 17 moves, the parts are accurately conveyed to the designated position to meet the needs of the subsequent production process.

[0027] The placement assembly includes two upright plates 22, with a support plate 19 fixed above the two upright plates 22. A movable slot plate 20 is fixed above the support plate 19. A lead screw is rotatably mounted inside the movable slot plate 20. A movable block 23 is threadedly connected to the lead screw and slidably disposed inside the movable slot plate 20. A movable motor 18 is fixed to the end of the movable slot plate 20, and the output shaft of the movable motor 18 is connected to the lead screw. A fixing plate 28 is fixed above the movable block 23, and a second movable slot plate 2 is fixed on the fixing plate 28. 4. A second lead screw is rotatably mounted inside the second movable slot plate 24. A second movable block 27 is threaded onto the second lead screw. The second movable block 27 is slidably mounted on the second movable slot plate 24. A second movable motor 21 is fixed to the end of the second movable slot plate 24. The output shaft of the second movable motor 21 is connected to the second lead screw. An electric push rod 26 is fixed to the second movable block 27. An electric gripper 25 is fixed to the end of the electric push rod 26. The two upright plates 22 form a stable support frame for the entire placement assembly, ensuring the stability of the components above during operation. Support plate 19 Fixed to the upright plate 22, providing an installation base for the movable slot plate 20, after the movable motor 18 starts, its output shaft drives the lead screw 1 inside the movable slot plate 20 to rotate. Since the movable block 23 is threadedly connected to the lead screw 1 and slidably disposed inside the movable slot plate 20, according to the principle of lead screw transmission, the movable block 23 will move linearly along the length of the movable slot plate 20. The fixed plate 28 fixed above the movable block 23 moves accordingly, thereby driving the movable slot plate 24 fixed on it to move, achieving horizontal movement. Similarly, for position adjustment, the second moving motor 21 operates, driving the second lead screw 2 inside the second moving slot plate 24 to rotate, causing the second moving block 27 threadedly connected to the second lead screw 2 to move along the second moving slot plate 24, achieving displacement adjustment in another horizontal direction. The second electric push rod 26 fixed on the second moving block 27 can extend and retract, driving the electric gripper 25 at the end to move in the vertical direction. The electric gripper 25 is responsible for gripping and placing the unloaded vehicle-mounted plastic product. Through the coordinated movement of each component, the product can be accurately placed in the designated position.

[0028] Working principle: Raw materials are fed into the machine body 4 through the feed hopper 3 and injection molded in the mold 2 to form automotive plastic products. Subsequently, gear motors 2 (35) and 3 (44) in the adjusting assembly drive the drive gears 2 (36) and 3 (43) to rotate. Through the gear and rack transmission principle, the vertical plates 2 (31) and 1 (30) slide vertically on the sliding plates 2 (54) and 1 (61) to precisely adjust to the appropriate height. At the same time, gear motors 1 (33) and 4 (47) drive the drive gears 1 (34) and 4 (46) to rotate, causing the sliding plates 2 (54) and 1 (61) to move horizontally along the transverse plate 62 to achieve position adjustment. The electric suction cup 45 in the clamping assembly is energized to generate negative pressure, holding the two together... The injection molded workpiece 39 with the connecting piece 58 in the middle is adsorbed and taken out. The taken-out workpiece is moved to the electric shear 52 above the mounting plate 7. The electric shear 52 cuts the connecting piece 58 between the workpieces, separating the two injection molded workpieces 39. Then, the cut injection molded workpiece 39 is placed on the mounting table 15. The two vibrating feeding trays 10 on the mounting table 15 arrange the messy internal automotive plastic product parts (requiring built-in bolts) in an orderly manner through vibration and output them from the discharge port to the conveying trough plate 12. The electric push rod 16 fixed by the support base 2 14 moves back and forth, driving the end moving plate 17 to move. The limiting groove 13 above the moving plate 17 limits the parts and accurately transports the parts to the designated position. Motor 18 drives the lead screw 1 inside the moving slot 20 to rotate, causing the moving block 23 to move along the moving slot 20, thereby adjusting the horizontal position of the fixed plate 28 and the moving slot 24 above it. Motor 21 drives the lead screw 2 inside the moving slot 24 to rotate, causing the moving block 27 to move along the moving slot 24, achieving another horizontal displacement adjustment. The electric push rod 26 extends and retracts, driving the end electric gripper 25 to move vertically. The electric gripper 25 picks up the finished automotive plastic product and accurately places it in the designated position, i.e., the pre-drilled hole on the workpiece, completing the processing. This equipment integrates multiple processes such as injection molding, part picking, cutting connecting parts, feeding, and placing finished products into one unit. The system automates the production process, reduces manual intervention, and improves production efficiency. Compared with traditional manual operation, it effectively reduces labor costs. The adjustment component can flexibly adjust the vertical position of vertical plate 1 30 and vertical plate 2 31, as well as the horizontal position of sliding plate 2 54 and sliding plate 1 61. The angle of the clamping component can also be adjusted by rotating motor 42. The electric suction cup 45 and electric push rod 3 57 in the clamping component work together to adapt to the clamping needs of vehicle plastic products of different heights, shapes and sizes. At the same time, the vibrating feeding plate 10 of the feeding component can arrange parts of different specifications in an orderly manner. The placement component can also accurately place the product in different positions through the coordinated movement of each motor, so that the equipment can meet the production requirements of a variety of products.

[0029] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended embodiments and their equivalents.

Claims

1. An automated unloading device for vehicle-mounted plastic products, comprising a body (4), wherein a moving component is disposed above the body (4), characterized in that: The moving component includes a base plate (50), a support base three (49) fixed above the base plate (50), a mounting slot plate (6) fixed above the support base three (49), a control box (1) provided at the end of the mounting slot plate (6), a fixing strip (8) fixed above the mounting slot plate (6), a transverse plate (62) slidably provided above the mounting slot plate (6), and a mounting box (9) provided above the transverse plate (62). The mounting box (9) has two partitions inside, a drive motor fixed on one of the partitions, a drive wheel (48) fixed on the output shaft of the drive motor, and two rotatable partitions between the two partitions. A rotating shaft is fixed with a driven wheel (55) and two movable wheels (56). The two movable wheels (56) are located on both sides of the driven wheel (55). A belt (51) is provided on the driving wheel (48) and the two movable wheels (56). All four movable wheels (56) abut against the fixed strip (8). A mounting plate (7) is fixed on the side of the base plate (50). Two electric shears (52) are provided above the mounting plate (7). An adjustment component is provided above the mounting slot plate (6). Several clamping components are provided below the adjustment component. A feeding component is provided on the side of the machine body (4). A placement component is provided above the feeding component.

2. The automated unloading equipment for vehicle-mounted plastic products according to claim 1, characterized in that: A feed hopper (3) is provided above the machine body (4), and a mold (2) is provided inside the machine body (4).

3. The automated unloading equipment for vehicle-mounted plastic products according to claim 1, characterized in that: The adjustment assembly includes a second sliding plate (54) and a first sliding plate (61). The second sliding plate (54) and the first sliding plate (61) are symmetrically arranged. Both the second sliding plate (54) and the first sliding plate (61) are slidably arranged above the transverse plate (62). A second vertical plate (31) is slidably arranged above the second sliding plate (54). A second rack (32) is fixed to the side of the second vertical plate (31). A lower plate (53) is fixed below the second sliding plate (54). A second gear motor (35) is fixed on the lower plate (53). A second drive gear (36) is fixed on the output shaft of the second gear motor (35). The second drive gear (36) meshes with the second rack (32). A second vertical plate (61) is slidably arranged above the first sliding plate (61). 30), a rack 1 (29) is fixed on the side of vertical plate 1 (30), a gear motor 3 (44) is fixed above sliding plate 1 (61), a drive gear 3 (43) is fixed on the output shaft of gear motor 3 (44), the drive gear 3 (43) meshes with rack 1 (29), a connecting column (37) is fixed below vertical plate 1 (30) and vertical plate 2 (31), an installation groove (40) is opened at the end of the connecting column (37), a rotating block (38) is rotatably arranged inside the installation groove (40), an L-shaped block (41) is fixed below the rotating block (38), a rotary motor (42) is fixed on the side of the connecting column (37), and the output shaft of the rotary motor (42) is fixedly connected to the rotating block (38).

4. The automated unloading equipment for vehicle-mounted plastic products according to claim 3, characterized in that: The adjustment assembly also includes a gear motor 1 (33), a gear motor 4 (47), and a rack 3 (63). The rack 3 (63) is fixed to the side of the transverse plate (62). The gear motor 1 (33) is fixed above the sliding plate 2 (54). The output shaft of the gear motor 1 (33) is fixed with a drive gear 1 (34). The drive gear 1 (34) meshes with the rack 3 (63). The gear motor 4 (47) is fixed above the sliding plate 1 (61). The output shaft of the gear motor 4 (47) is fixed with a drive gear 4 (46). The drive gear 4 (46) meshes with the rack 3 (63).

5. The automated unloading equipment for vehicle-mounted plastic products according to claim 4, characterized in that: The clamping assembly includes a connecting plate (60), which is fixed below the connecting column (37). Several electric suction cups (45) are fixed below the connecting plate (60). Two symmetrical electric push rods (57) are fixed below the connecting plate (60). Clamping plates (59) are fixed at the ends of the electric push rods (57). Two injection molded workpieces (39) are adsorbed below the several electric suction cups (45). A connector (58) is fixed between the two injection molded workpieces (39). The connector (58) is located between the two clamping plates (59).

6. The automated unloading equipment for vehicle-mounted plastic products according to claim 1, characterized in that: The feeding assembly includes a bracket (5), which is located on the side of the machine body (4). A mounting platform (15) is fixed above the bracket (5). Two vibrating feeding discs (10) are fixed above the mounting platform (15). Two support seats (11) are fixed above the mounting platform (15). Two conveying troughs (12) are fixed above the support seats (11). The conveying troughs (12) are located at the discharge port of the vibrating feeding discs (10). Two support seats (14) are fixed above the mounting platform (15). An electric push rod (16) is fixed above the support seats (14). A movable plate (17) is fixed at the end of the electric push rod (16). A limit groove (13) is opened above the movable plate (17).

7. The automated unloading equipment for vehicle-mounted plastic products according to claim 6, characterized in that: The placement assembly includes two upright plates (22), with a support plate (19) fixed above the two upright plates (22). A movable slot plate (20) is fixed above the support plate (19). A lead screw is rotatably installed inside the movable slot plate (20). A movable block (23) is threadedly connected to the lead screw and slidably disposed inside the movable slot plate (20). A movable motor (18) is fixed to the end of the movable slot plate (20). The output shaft of the movable motor (18) is connected to the lead screw. The movable block (23) is fixed above the movable block (23). A fixed plate (28) is fixed on the fixed plate (28), and a movable slot plate (24) is fixed on the fixed plate (28). A screw rod (2) is rotatably installed inside the movable slot plate (24). A movable block (27) is threadedly connected to the screw rod (2). The movable block (27) is slidably installed on the movable slot plate (24). A movable motor (21) is fixed at the end of the movable slot plate (24). The output shaft of the movable motor (21) is connected to the screw rod (2). An electric push rod (26) is fixed on the movable block (27). An electric gripper (25) is fixed at the end of the electric push rod (26).

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