An automatic production device for automobile lamps

Abstract

The application discloses an automatic production device for automobile lamps, and relates to the technical field of automobile lamp production, which comprises an equipment table top, two plate chain lines are arranged on the equipment table top, product carriers are arranged on the plate chain lines, a lamp chamber mounting mechanism, a PCB mounting mechanism, an automatic screwing mechanism, a lampshade mounting mechanism and an ultrasonic wave feeding station are sequentially arranged on the equipment table top along the direction in which the product carriers are conveyed along one plate chain line, an ultrasonic wave discharging station, an air tightness detection mechanism, an optical detection mechanism and a lamp discharging mechanism are sequentially arranged on the equipment table top along the direction in which the product carriers are conveyed along the other plate chain line, and transplanting mechanisms are arranged at the two ends of the plate chain lines on the equipment table top. The assembling, welding and detection of the automobile lamps are all automatic production, so that the production efficiency of the automobile lamps can be greatly improved.

Description

Technical Field

[0001] This application relates to the field of automotive lighting manufacturing technology, and in particular to an automated automotive lighting production device. Background Technology

[0002] Interior lighting fixtures are central to vehicle lighting and ambiance creation, meeting basic lighting needs while increasingly emphasizing personalization and comfort. These fixtures typically utilize energy-efficient, long-lasting, and color-rich LED light sources, cleverly integrated into door panels, footwells, and headliners.

[0003] Reference Figure 16 and Figure 17 The automotive lamp consists of a lamp housing 42, a PCB board 43, and a lamp cover 44. The PCB board 43 is installed inside the lamp housing 42, and the lamp cover 44 is installed on the lamp housing 42. The PCB board 43 is fixed to the lamp housing 42 with screws. The lamp housing 42 and the lamp cover 44 are fixedly connected by ultrasonic welding. After welding, the airtightness and optical performance of the automotive lamp need to be tested. Currently, the assembly of automotive lamps is still mainly done manually. After the lamp is assembled, workers put it into an ultrasonic welding machine for ultrasonic welding. After welding, workers then put the lamp into an airtightness testing device for airtightness testing.

[0004] The efficiency bottleneck of manual assembly of automotive lights is directly related to the pace of worker operations. Picking up parts requires determining their location and confirming their model; alignment necessitates repeated angle adjustments and interface calibration; and tightening screws requires controlled force to prevent damage—each step is time-consuming. Furthermore, the assembled, welded, and inspected lights still require manual transport. This not only consumes worker time and affects core operations but also risks additional handling time or product damage due to bumps and knocks. The cumulative time spent in each stage makes efficient and continuous production difficult, resulting in overall low efficiency. Summary of the Invention

[0005] To improve the production efficiency of automotive lighting fixtures, this application provides an automated production apparatus for automotive lighting fixtures.

[0006] The automatic production device for automotive lighting provided in this application adopts the following technical solution:

[0007] An automated production device for automotive lighting fixtures includes a worktable with two parallel conveyor belts. Multiple product carriers are spaced apart on the conveyor belts. Along one conveyor belt, a lamp housing mounting mechanism, a PCB board mounting mechanism, an automatic screw-driving mechanism, a lamp cover mounting mechanism, and an ultrasonic loading station are sequentially arranged. An ultrasonic welding mechanism is located near the ultrasonic loading station on the worktable. The two conveyor belts transport product carriers in opposite directions. Along the other conveyor belt, an ultrasonic unloading station, an airtightness testing mechanism, an optical testing mechanism, and a lamp unloading mechanism are sequentially arranged. Transfer mechanisms for reciprocatingly transporting product carriers between the two conveyor belts are located at both ends of the conveyor belts on the worktable.

[0008] By adopting the above technical solution, in the production of automotive lamps, the lamp housing installation mechanism first installs the lamp housing into the product carrier. A conveyor belt moves the product carrier, and the PCB board installation mechanism then installs the PCB board into the lamp housing. The conveyor belt continues to move the product carrier, and an automatic screw-driving mechanism drives screws into the PCB board and fixes it in the lamp housing. The conveyor belt continues to move the product carrier, and the lamp cover installation mechanism then installs the lamp cover onto the lamp housing. Subsequently, the ultrasonic loading station transports the lamp from the product carrier to the ultrasonic welding mechanism. The transfer mechanism transports the product carrier to another conveyor belt, and the ultrasonic unloading station transports the welded lamp to the product carrier on the conveyor belt. The airtightness testing mechanism and the optical testing mechanism then sequentially test the performance of the lamp. Finally, the lamp unloading mechanism unloads the lamp. With this setup, the assembly, welding, and testing of automotive lamps are all fully automated, thereby greatly improving the production efficiency of automotive lamps.

[0009] Preferably, the plate chain includes a support frame, a first drive component, and a conveyor chain. The support frame is fixedly mounted on the equipment table, the conveyor chain is rotatably mounted inside the support frame, the first drive component is mounted inside the equipment table, the first drive component is connected to the conveyor chain for transmission, a tray is mounted on the conveyor chain, and the product carrier is fixedly mounted on the tray.

[0010] By adopting the above technical solution, the first driving component drives the conveyor chain to rotate within the support frame, the conveyor chain drives the pallet to move, the pallet drives the product carrier to move, and in turn drives the lamps in the product carrier to move to each workstation.

[0011] Preferably, the support frame is provided with a plurality of first lifting components, and the lifting end of the first lifting component is fixedly provided with a stop block, and the tray moves to abut against the stop block.

[0012] By adopting the above technical solution, the conveyor chain moves the product carrier via a pallet. The first lifting component moves the stop upward. When the pallet reaches the designated workstation, it abuts against the stop, preventing the pallet from moving out of the designated workstation. After processing at the designated workstation is completed, the first lifting component moves the stop downward, allowing the conveyor chain to continue moving the pallet.

[0013] Preferably, the support frame is provided with a plurality of second lifting components, the lifting end of the second lifting component is fixedly provided with a positioning plate, the positioning plate is provided with a plurality of positioning posts, the tray is provided with a plurality of positioning holes, the plurality of positioning posts are movably inserted into the plurality of positioning holes, and a height limiting plate is fixedly provided on the support frame, the height limiting plate abutting against the top wall of the tray.

[0014] By adopting the above technical solution, when the pallet moves to the designated workstation, the second lifting component drives multiple positioning columns to rise and move through the positioning plate. The multiple positioning columns are inserted into multiple positioning holes, thereby accurately positioning the pallet and making the position of the product carrier more precise.

[0015] Preferably, the PCB board mounting mechanism includes a first mounting frame, a two-axis moving component, a third lifting component, a vacuum adsorption component, a support plate, a positioning carrier, a positioning push block, and a positioning cylinder. The first mounting frame is fixedly mounted on the equipment table. The two-axis moving component is mounted on the first mounting frame. The third lifting component is mounted on the moving end of the two-axis moving component. The vacuum adsorption component is mounted on the lifting end of the third lifting component. The support plate is mounted on the first mounting frame. The positioning carrier is fixedly mounted on the support plate. The positioning push block is slidably mounted on the support plate. The positioning cylinder is mounted on the support plate. The telescopic end of the positioning cylinder is fixedly connected to the positioning push block.

[0016] By adopting the above technical solution, the loading robot transports the PCB board into the positioning carrier. The positioning cylinder drives the positioning push block to move, and the positioning push block presses the PCB board firmly into the positioning carrier, thereby performing secondary positioning of the PCB board. The two-axis moving component moves the vacuum adsorption component to above the positioning carrier, and the third lifting component moves the vacuum adsorption component downward. The vacuum adsorption component then adsorbs the PCB board again. Subsequently, the two-axis moving component moves the PCB board to the product carrier. After the vacuum adsorption component stops adsorbing, the PCB board can be installed into the lamp chamber.

[0017] Preferably, the automatic screw-driving mechanism includes a three-axis moving component and an automatic screw-driving component. The three-axis moving component is disposed on the equipment table, and the automatic screw-driving component is disposed at the moving end of the three-axis moving component. The support frame is provided with a back plate at the location of the automatic screw-driving component. A fourth lifting component is provided on the back plate, and a first pressure plate is provided on the fourth lifting component. A first pressure block is provided on the bottom wall of the first pressure plate.

[0018] By adopting the above technical solution, the three-axis moving component drives the automatic screw-driving component to move. The automatic screw-driving component automatically fixes the PCB board in the lamp chamber. When screwing the PCB board, the fourth lifting component drives the first pressure block to move down through the first pressure plate. The first pressure block moves to abut against the lamp chamber and presses the lamp chamber into the product carrier, thereby facilitating accurate screw driving.

[0019] Preferably, two airtightness testing mechanisms are provided at intervals. Each airtightness testing mechanism includes a second mounting frame, a fifth lifting component, a tray, a limiting post, a first horizontal cylinder, a moving plate, a connecting pin, a second horizontal cylinder, a support bar, a guide frame, a sixth lifting component, a lifting plate, an airtight plug, a top plate, and a top block. The second mounting frame is mounted on the equipment platform. The fifth lifting component is located within the second mounting frame. The tray is located at the lifting end of the fifth lifting component and below the tray. The limiting post is located on the tray and moves upward to insert into the positioning hole of the tray. The second horizontal cylinder is located within the second mounting frame. The support bar is located at the translational end of the second horizontal cylinder and moves to abut against the bottom of the tray. The first horizontal cylinder is located on the top of the second mounting frame. The moving plate is located at the moving end of the first horizontal cylinder. The docking pin is located on the bottom wall of the moving plate. The tray moves upward and the docking pin is inserted into the positioning hole of the tray. The first horizontal cylinder drives the tray to move horizontally into the guide frame through the docking pin. The top plate is fixedly located in the second mounting frame. The top block is located on the bottom wall of the top plate. A pressure groove is opened on the side wall of the product carrier. The top block is located in the pressure groove. The sixth lifting component is located in the second mounting frame. The lifting plate is located at the lifting end of the sixth lifting component. The airtight plug is located on the top wall of the lifting plate. An insertion hole is opened in the tray. The airtight plug passes through the insertion hole and docks with the lamp.

[0020] By adopting the above technical solution, two airtightness testing mechanisms can simultaneously perform airtightness testing on two sets of lamps. When the first tray moves to the first airtightness testing mechanism, the fifth lifting component drives the limiting pin to rise and insert into the positioning hole of the tray via the support plate. The support plate then drives the tray to rise and move, so that the docking pin is inserted into the positioning hole of the tray. The second horizontal cylinder drives the support bar to move horizontally to the bottom of the tray and lift the tray. Subsequently, the fifth lifting component drives the support plate to fall and reset, so that the second tray can move past the first airtightness testing mechanism and move to the second airtightness testing mechanism. The first horizontal cylinder drives the docking pin to move via the moving plate, while the second horizontal cylinder drives the support bar to move, so that the tray moves horizontally into the guide frame. When the tray moves horizontally to the end of the guide frame, the top block enters the pressure groove of the product carrier and limits the lamp, so that the lamp is fixed in the product carrier. Finally, the sixth lifting component drives the airtight plug to rise and move via the lifting plate. The airtight plug passes through the insertion hole of the tray and is inserted into the lamp, thereby enabling the airtightness testing of the lamp.

[0021] Preferably, the optical inspection mechanism includes a third mounting frame, a first translation component, a first rotating component, a seventh lifting component, a clamping component, a cover plate, a turntable, a second rotating component, an inspection carrier, an eighth lifting component, a second pressure plate, a second pressure block, an inspection head, a second translation component, a ninth lifting component, an electrical connector, and a darkroom cover. The third mounting frame is mounted on the equipment table, the first translation component is mounted on the third mounting frame, the first rotating component is mounted on the first translation component, the seventh lifting component is mounted on the first rotating component, and the clamping component is mounted on the seventh lifting component and is used to clamp and transport the lamps in the product carrier to the inspection carrier. Inside the device, the cover plate is set on the equipment table, the turntable is rotatably set on the cover plate, the detection carrier is set on the turntable, the second rotating component is set at the bottom of the cover plate and connected to the turntable, the darkroom cover is set on the cover plate and covers part of the turntable, the eighth lifting component is set on the cover plate, the second pressure plate is set on the eighth lifting component, the second pressure block is set at the bottom of the second pressure plate, the detection head is set inside the second pressure block and located above the detection carrier, the second translation component is set on the equipment table, the ninth lifting component is set on the second translation component, and the electrical connector is set on the ninth lifting component.

[0022] By adopting the above technical solution, when the tray moves to the optical inspection mechanism, the seventh lifting component drives the clamping component to move downwards, clamping the lamp inside the product carrier. The seventh lifting component then drives the product to move upwards, the first rotating component drives the lamp to rotate, and the first translating component drives the lamp to translate, so that the lamp moves directly above the inspection carrier. The seventh lifting component then drives the lamp to move downwards, and the clamping component releases the lamp, allowing the lamp to enter the inspection carrier. The second rotating component drives the inspection carrier into the darkroom via a turntable. The eighth lifting component drives the second pressure block to move via the second pressure plate, pressing the lamp firmly inside the inspection carrier. The second pressure block also drives the inspection head to move downwards and align with the lamp. The second translating component drives the ninth lifting component to move, and the ninth lifting component drives the electrical connector to move upwards, connecting the electrical connector to the lamp and supplying power to the lamp, thus facilitating the optical performance inspection of the lamp.

[0023] Preferably, the transplanting mechanism includes a third translation component, a translation plate, a mounting plate, a second driving component, a side plate, a belt, and an elastic pad. The translation plate is slidably mounted on the equipment table. The third translation component is mounted on the equipment table and connected to the translation plate. The mounting plate is mounted on the translation plate. The second driving component is mounted at the bottom of the mounting plate. The side plate is mounted above the mounting plate. The belt is rotatably mounted on the side plate and is connected to the second driving component for transmission. The elastic pad is mounted on the side plate.

[0024] By adopting the above technical solution, when the pallet moves to the end of the chain conveyor, it moves from the chain conveyor to the side plate. The second drive unit drives the belt to rotate forward, and the belt drives the pallet to move onto the side plate until the pallet moves and abuts the elastic pad. Subsequently, the third translation unit drives the mounting plate to move via the translation plate. The mounting plate then drives the pallet to move from one chain conveyor to another via the side plate. The second drive unit drives the belt to rotate, and the belt transports the pallet to another chain conveyor.

[0025] In summary, this application includes at least one of the following beneficial technical effects:

[0026] 1. Utilizing two conveyor belts, the lamp housing installation mechanism first installs the lamp housing into the product carrier. One conveyor belt moves the product carrier, and the PCB board installation mechanism then installs the PCB board into the lamp housing. The conveyor belt continues to move the product carrier, and the automatic screw-driving mechanism drives screws into the PCB board and fixes it in the lamp housing. The conveyor belt continues to move the product carrier, and the lamp cover installation mechanism then installs the lamp cover onto the lamp housing. Subsequently, the ultrasonic loading station transports the lamps from the product carrier to the ultrasonic welding mechanism. The transfer mechanism transports the product carrier to another conveyor belt, and the ultrasonic unloading station transports the welded lamps onto the product carrier on the conveyor belt. The airtightness testing mechanism and the optical testing mechanism then sequentially test the performance of the lamps. Finally, the lamp unloading mechanism unloads the lamps. The assembly, welding, and testing of automotive lamps are all fully automated, which greatly improves the production efficiency of automotive lamps.

[0027] 2. The conveyor chain moves the product carrier through the pallet via the stop block. The first lifting component moves the stop block upward. When the pallet moves to the designated work position, the pallet moves to abut against the stop block, which blocks the movement of the pallet so that the pallet will not move out of the designated work position.

[0028] 3. With the help of positioning columns and positioning holes, when the pallet moves to the designated work station, the second lifting component drives multiple positioning columns to rise and move through the positioning plate. The multiple positioning columns are inserted into multiple positioning holes, thereby accurately positioning the pallet and making the position of the product carrier more accurate. Attached Figure Description

[0029] Figure 1 This is a schematic diagram of the overall structure of the automated production device for automotive lighting fixtures in this application;

[0030] Figure 2 This is a partial structural schematic diagram of the automated production device for automotive lighting fixtures in this application, highlighting the conveyor belt.

[0031] Figure 3 This is a partial structural schematic diagram of the automated production device for automotive lighting fixtures in this application, used to highlight the product carrier;

[0032] Figure 4 This is a partial structural schematic diagram of the automated production device for automotive lighting fixtures in this application, to highlight the wear-resistant strip;

[0033] Figure 5 This is a partial structural schematic diagram of the automated production device for automotive lighting fixtures in this application, with the positioning plate highlighted.

[0034] Figure 6 This is a partial structural schematic diagram of the automated production device for automotive lighting fixtures in this application, designed to highlight the lamp housing installation mechanism;

[0035] Figure 7 This is a partial structural schematic diagram of the automated production device for automotive lighting fixtures in this application, to highlight the PCB board mounting mechanism;

[0036] Figure 8 This is a partial structural schematic diagram of the automatic production device for automotive lighting fixtures in this application, to highlight the automatic screw-driving mechanism;

[0037] Figure 9 This is a partial structural schematic diagram of the automatic production device for automotive lighting fixtures in this application, with the first pressure plate highlighted.

[0038] Figure 10 This is a partial structural schematic diagram of the automated production device for automotive lighting fixtures in this application, to highlight the location of the transplanting mechanism;

[0039] Figure 11 This is a partial structural schematic diagram of the automated production device for automotive lighting fixtures in this application, to highlight the transplanting mechanism;

[0040] Figure 12 This is a partial structural schematic diagram of the automatic production device for automotive lighting fixtures in this application. To highlight the limiting plate, the tray is shown being lifted at this time.

[0041] Figure 13 This is a partial structural schematic diagram of the automatic production device for automotive lighting fixtures in this application. To highlight the airtightness testing mechanism, the tray is now inside the guide frame.

[0042] Figure 14 This is a partial structural schematic diagram of the automated production device for automotive lighting fixtures in this application, to highlight the optical inspection mechanism;

[0043] Figure 15 This is a partial structural schematic diagram of the automatic production device for automotive lighting fixtures in this application, to highlight the second pressure plate;

[0044] Figure 16 This is a schematic diagram of the overall structure of an automotive lighting fixture in the background art of this application;

[0045] Figure 17 This is an exploded view of the overall structure of automotive lighting fixtures in the background art of this application.

[0046] Reference numerals: 1. Equipment platform; 2. Product carrier; 3. Plate chain; 31. Support frame; 32. Conveyor chain; 33. First drive component; 4. Lamp chamber mounting mechanism; 5. PCB board mounting mechanism; 51. First mounting frame; 52. Two-axis moving component; 53. Third lifting component; 54. Vacuum adsorption component; 55. Support plate; 56. Positioning carrier; 57. Positioning push block; 58. Positioning cylinder; 6. Automatic screw-driving mechanism; 61. Three-axis moving component; 62. Automatic screw-driving component; 7. Air tightness detection mechanism; 701. Second mounting frame; 702. Fifth lifting component. 703. Lowering component; 704. Support plate; 705. Limiting post; 706. First horizontal cylinder; 707. Moving plate; 708. Connecting pin; 709. Second horizontal cylinder; 710. Support bar; 711. Guide frame; 712. Sixth lifting component; 713. Lifting plate; 714. Airtight plug; 715. Top plate; 816. Top block; 807. Optical inspection mechanism; 808. Third mounting bracket; 809. First translation component; 800. First rotating component; 800. Seventh lifting component; 800. Clamping component; 801. Cover plate; 802. Turntable; 803. Inspection carrier; 810. Eighth lifting component; 811. Second pressure plate; 812. Detection head; 813. Second translation component; 814. Ninth lifting component; 815. Electrical connector; 816. Darkroom cover; 817. Second pressure block; 9. Lamp fixture unloading mechanism; 10. Lamp cover mounting mechanism; 11. Ultrasonic loading station; 12. Ultrasonic unloading station; 13. Transplanting mechanism; 131. Third translation component; 132. Translation plate; 133. Mounting plate; 134. Second drive component; 135. Side plate; 136. Belt; 137. Elastic pad; 14. Tray; 15. First lifting component 16. Lowering component; 17. Stop block; 18. Second lifting component; 19. Positioning plate; 20. Positioning column; 21. Positioning hole; 22. Back plate; 23. Fourth lifting component; 24. First pressure plate; 25. First pressure block; 26. Pressure groove; 27. Insertion hole; 28. Marking mechanism; 29. ​​Height limit plate; 30. First connecting plate; 31. Second connecting plate; 32. Feed port; 33. First column; 36. Track; 37. Third connecting plate; 38. Limiting plate; 39. Wear-resistant strip; 40. Support groove; 41. Second column; 42. Lamp chamber; 43. PCB board; 44. Lamp cover. Detailed Implementation

[0047] The following is in conjunction with the appendix Figures 1-15 This application will be described in further detail.

[0048] This application discloses an automated production apparatus for automotive lighting fixtures.

[0049] Reference Figure 1 , Figure 2 and Figure 3An automatic production device for automotive lighting includes a machine table 1, on which two plate chain lines 3 are installed. The two plate chain lines 3 are parallel to each other. Multiple trays 14 are placed at intervals on each plate chain line 3. Two product carriers 2 are fixedly installed on the top wall of each tray 14, and two wear-resistant strips 39 are fixedly installed on the bottom wall of each tray 14.

[0050] The conveyor belt 3 includes a first drive unit 33, two support frames 31, and conveyor chains 32. The two support frames 31 are fixedly installed on the equipment table 1 and are parallel to each other. The two conveyor chains 32 are rotatably installed within the two support frames 31. The first drive unit 33 is fixedly installed within the equipment table 1, and the drive end of the first drive unit 33 is fixedly connected to the rotating shaft of the two conveyor chains 32. In this application, the first drive unit 33 can be selected as a drive motor.

[0051] The pallet 14 is placed on two conveyor chains 32, with the wear-resistant strips 39 of the pallet 14 in contact with the conveyor chains 32. The first drive unit 33 drives the two conveyor chains 32 to rotate, and the conveyor chains 32 drive the pallet 14 to move. The conveyor frame abuts against the side wall of the pallet 14 and guides the movement of the pallet 14. The conveyor chains 32 on the two plate chain lines 3 rotate in opposite directions, causing the two plate chain lines 3 to drive the pallet 14 to move in opposite directions.

[0052] Along the direction of the first conveyor belt 3, the equipment platform 1 is equipped with, at intervals, a lamp housing mounting mechanism 4, a PCB board mounting mechanism 5, an automatic screw-driving mechanism 6, a lampshade mounting mechanism 10, and an ultrasonic loading station 11. Along the direction of the second conveyor belt 3, the equipment platform 1 is equipped with, at intervals, an ultrasonic unloading station 12, an airtightness testing mechanism 7, an optical testing mechanism 8, a marking mechanism 27, and a lamp unloading mechanism 9. The ultrasonic loading station 11 and the ultrasonic unloading station 12 are located on the same side of the two conveyor belts 3, and an ultrasonic welding mechanism is installed on the side of the equipment platform 1 closest to the ultrasonic loading station 11 and the ultrasonic unloading station 12. A transfer mechanism 13 is installed at both ends of the conveyor belt 3 on the equipment platform 1, and the transfer mechanism 13 is used to reciprocate the pallet 14 between the two conveyor belts 3.

[0053] During automotive lighting production, the lamp housing mounting mechanism 4 first loads the lamp housing into the product carrier 2, which is then moved by the first board conveyor belt 3. Next, the PCB board mounting mechanism 5 loads the PCB board into the lamp housing, and the board conveyor belt 3 continues to transport the product carrier 2. Afterward, the automatic screw-driving mechanism 6 drives screws into the PCB board, firmly fixing it in the lamp housing, and the board conveyor belt 3 then transports the product carrier 2 forward again.

[0054] The lamp cover mounting mechanism 10 installs the lamp cover onto the lamp housing. The conveyor belt 3 continues to transport the product carrier 2. Then, the ultrasonic loading station 11 delivers the lamp from the product carrier 2 to the ultrasonic welding mechanism. The transfer mechanism 13 then transfers the empty carrier to the second conveyor belt 3. After welding, the ultrasonic unloading station 12 places the lamp into the product carrier 2 on the second conveyor belt 3. It then undergoes performance testing via the airtightness testing mechanism 7 and the optical testing mechanism 8, followed by laser marking by the marking mechanism 27, and finally unloading by the lamp unloading mechanism 9. In this way, the assembly, welding, and testing of automotive lamps are fully automated, significantly improving production efficiency.

[0055] Reference Figure 2 , Figure 3 , Figure 4 and Figure 5 Each operating station on the support frame 31 is fixedly equipped with a first lifting component 15 via a first connecting plate 29. A stop block 16 is fixedly installed at the lifting end of the first lifting component 15. A second lifting component 17 is fixedly installed on each operating station on the support frame 31 via a second connecting plate 30. A positioning plate 18 is fixedly installed at the lifting end of the second lifting component 17, located below the tray 14. Positioning posts 19 are fixedly installed at both ends of the positioning plate 18. Positioning holes 20 are provided at each of the four corners of the tray 14. A height limit plate 28 is fixed to each operating station on both support frames 31. In this application, both the first lifting component 15 and the second lifting component 17 can be selected as cylinders.

[0056] When the conveyor belt 3 moves the tray 14 to the operating position, the first lifting component 15 raises the stop block 16, and the tray 14 moves to abut against the stop block 16, thus initially positioning the tray 14. At this time, the tray 14 is located below the two height limit plates 28. Subsequently, the second lifting component 17 raises the positioning plate 18, and the positioning plate 18 moves the two positioning pins 19 into the positioning holes 20 of the tray 14. The positioning plate 18 and the height limit plates 28 clamp the tray 14, thus accurately positioning the tray 14 and facilitating the precise installation of the lighting fixtures.

[0057] Reference Figure 1 and Figure 6 The lamp housing installation mechanism 4, lamp cover installation mechanism 10, ultrasonic loading station 11, ultrasonic unloading station 12, and lamp unloading mechanism 9 are all composed of a robotic arm, two lifting cylinders, and two finger cylinders. The robotic arm is mounted on the equipment platform 1, the two lifting cylinders are fixedly mounted on the moving end of the robotic arm, and the two finger cylinders are fixedly mounted on the lifting end of the two lifting cylinders. The robotic arm drives the finger cylinders to move, and the lifting cylinders drive the finger cylinders to move up and down. The finger cylinders clamp the workpiece, thereby completing the clamping and transportation of the lamp at each operating station.

[0058] Reference Figure 1 and reference Figure 7 Specifically, the PCB board mounting mechanism 5 includes a first mounting frame 51, a two-axis moving component 52, a third lifting component 53, a support plate 55, two vacuum adsorption components 54, a positioning carrier 56, a positioning push block 57, and a positioning cylinder 58. The first mounting frame 51 is fixedly mounted on the equipment table 1. The two-axis moving component 52 is mounted on the first mounting frame 51 and consists of a horizontal linear module and a vertical linear module. The third lifting component 53 is mounted on the moving end of the two-axis moving component 52, and the two vacuum adsorption components 54 are mounted on the lifting end of the third lifting component 53. The vacuum adsorption components 54 are connected to a vacuum pump.

[0059] The support plate 55 is fixedly installed on the side of the first mounting bracket 51, two positioning carriers 56 are fixedly installed on the support plate 55, two positioning cylinders 58 are fixedly installed on the bottom wall of the support plate 55, and two positioning push blocks 57 are fixedly installed on the telescopic ends of the two positioning cylinders 58.

[0060] The loading robot transports two PCB boards into two positioning carriers 56. The positioning cylinder 58 is then activated, driving the positioning push block 57 to move. The positioning push block 57 presses the PCB board firmly into the positioning carrier 56, thereby completing the secondary positioning of the PCB board and ensuring its positioning accuracy.

[0061] The two-axis moving component 52 moves the vacuum adsorption component 54 to a position directly above the positioning carrier 56, and the third lifting component 53 drives the vacuum adsorption component 54 to move downward. After the vacuum adsorption component 54 contacts the PCB board, it adsorbs the PCB board. Then, the two-axis moving component 52 carries the PCB board to the product carrier 2, the vacuum adsorption component 54 releases its adsorption state, and the PCB board is then installed into the lamp chamber.

[0062] Reference Figure 1 , Figure 8 and Figure 9 The automatic screw-driving mechanism 6 includes a three-axis moving component 61 and an automatic screw-driving component 62. The three-axis moving component 61 is mounted on the equipment table 1 and consists of three linear modules. The automatic screw-driving component 62 is mounted on the moving end of the three-axis moving component 61. A feed port 34 is formed on the automatic screw-driving component 62, and the feed port 34 is connected to the screw supply machine through a pipeline.

[0063] A fourth lifting component 22 is fixedly mounted on the support frame 31 via a back plate 21. A first pressure plate 23 is fixedly mounted on the lifting end of the fourth lifting component 22. Four first pressure blocks 24 are fixedly mounted on the bottom wall of the first pressure plate 23, with each pair of first pressure blocks 24 corresponding to one product carrier 2. In this application, the fourth lifting component 22 can be a cylinder.

[0064] When the tray 14 moves the product carrier 2 to the automatic screw-driving mechanism 6, the fourth lifting component 22 drives the four first pressing blocks 24 downwards via the first pressure plate 23, pressing the two lamp chambers firmly within the two product carriers 2. Subsequently, the three-axis moving component 61 drives the automatic screw-driving component 62 to precisely move to the screw assembly position on the PCB board. The screw supply machine feeds screws into the automatic screw-driving component 62 through the feed port 34 via a pipeline. The component then starts its automated operation program, precisely screwing the preset specification screws into the connection holes between the PCB board and the lamp chamber according to the set torque, thereby achieving mechanical fixation of the PCB board within the lamp chamber.

[0065] Reference Figure 10 and Figure 11 The transplanting mechanism 13 is located at the ends of the two plate chain lines 3. The transplanting mechanism 13 includes a third translation component 131, a translation plate 132, a mounting plate 133, a second drive component 134, an elastic pad 137, two side plates 135, and a belt 136. The translation plate 132 is slidably mounted on the equipment table 1 via the track 36 and the slider. The third translation component 131 is fixedly mounted on the equipment table 1, and the moving end of the third translation component 131 is fixedly connected to the translation plate 132.

[0066] Mounting plate 133 is fixedly mounted on translation plate 132 by four first columns 35. Two side plates 135 are fixedly mounted on the top wall of mounting plate 133 and are parallel to each other. Two belts 136 are rotatably mounted on the two side walls that are close to each other. Elastic pads 137 are fixedly mounted between the two side plates 135 by a third connecting plate 37. Second drive component 134 is fixedly mounted on the bottom wall of mounting plate 133. Second drive component 134 is connected to the rotating shaft of the two belts 136 by a transmission belt. In this application, third translation component 131 can be a cylinder, and second drive component 134 can be a servo motor.

[0067] When the pallet 14 is conveyed to the end of the conveyor belt 3, the pallet 14 moves from the conveyor belt 3 to between the two side plates 135. During this process, the second drive unit 134 is activated and drives the belt 136 to rotate in the forward direction. During the operation of the belt 136, the pallet 14 is moved towards the side plate 135 until the pallet 14 is transferred onto the side plate 135 and the pallet 14 moves to a state of tight contact with the elastic pad 137.

[0068] After completing the above actions, the third translation component 131 begins to operate. It transmits power through the translation plate 132 to drive the mounting plate 133 to produce a horizontal displacement. The mounting plate 133, with the help of the side plate 135, then smoothly moves the pallet 14 from its initial location on the plate chain 3 to the corresponding position on another plate chain 3. Subsequently, the second drive component 134 switches its operating direction, driving the belt 136 to rotate in the opposite direction. Under the transmission action of the belt 136, the pallet 14 is accurately transported to another plate chain 3.

[0069] Reference Figure 1 , Figure 3 , Figure 4 , Figure 12 and Figure 13 Specifically, two airtightness testing mechanisms are installed at intervals along the length of the chain line 3 on the equipment platform 1. These two mechanisms can simultaneously perform airtightness testing on two sets of product carriers 2. The support frame 31, located at the airtightness testing mechanism, does not have the height limit plate 28, the second lifting component 17, or the positioning plate 18 installed. The airtightness testing mechanism 7 includes a second mounting frame 701, a fifth lifting component 702, a support plate 703, two limit posts 704, a first horizontal cylinder 705, a moving plate 706, two connecting pins 707, a second horizontal cylinder 708, a support bar 709, two guide frames 710, a sixth lifting component 711, a lifting plate 712, two airtight plugs 713, a top plate 714, and two top blocks 715.

[0070] The second mounting bracket 701 is fixedly mounted on the equipment table 1. The fifth lifting component 702 is fixedly mounted inside the second mounting bracket 701. The tray 703 is mounted on the lifting end of the fifth lifting component 702. The tray 703 is located below the pallet 14. Limiting posts 704 are fixedly mounted at both ends of the pallet 14. In this application, the fifth lifting component 702 can be a cylinder. A limiting plate 38 is fixedly mounted inside the second mounting bracket 701 above the tray 703.

[0071] The second horizontal cylinder 708 is fixedly installed inside the side wall of the second mounting bracket 701, and the support strip 709 is fixedly installed at the translation end of the second horizontal cylinder 708. A support groove 40 is provided in the middle of the wear-resistant strip 39. The first horizontal cylinder 705 is fixedly installed on the top of the second mounting bracket 701, the moving plate 706 is fixedly installed at the translation end of the first horizontal cylinder 705, and two mating pins 707 are fixedly installed on the bottom wall of the moving plate 706.

[0072] Two guide frames 710 are fixedly installed inside the second mounting frame 701 and are parallel to each other. The top plate 714 is fixedly installed inside the second mounting frame 701 and is located above the guide frames 710. Two top blocks 715 are fixedly installed on the bottom wall of the top plate 714, and a pressure groove 25 is provided on the product carrier 2.

[0073] The sixth lifting component 711 is fixedly installed inside the second mounting bracket 701 and located below the guide bracket 710. The lifting plate 712 is fixedly installed below the sixth lifting component 711. Two airtight plugs 713 are fixedly installed on the top wall of the lifting plate 712, and two insertion holes 26 are provided in the tray 14. In this application, the sixth lifting component 711 can be a cylinder.

[0074] Two airtightness testing mechanisms can simultaneously perform airtightness testing on two sets of lamps to improve testing efficiency. When the first tray 14 is moved to the working area of ​​the first airtightness testing mechanism, the fifth lifting component 702 is immediately activated, driving the limiting posts 704 upward through the pallet 703 until the two limiting posts 704 are precisely inserted into the two positioning holes 20 of the tray 14. Immediately afterwards, the pallet 703 continues to drive the tray 14 upward, allowing the two mating pins 707 to smoothly insert into the other two positioning holes 20 of the tray 14, achieving the initial positioning and fixation of the tray 14. Subsequently, the second horizontal cylinder 708 operates and drives the support bar 709 to move. The support bar 709 moves into the support groove 40 within the wear-resistant strip 39, steadily lifting the tray 14 and ensuring that the tray 14 remains stable in subsequent operations.

[0075] After the above actions are completed, the fifth lifting component 702 drives the pallet 703 to move downward and reset. At this time, the first pallet 14 is steadily lifted by the support bar 709, and the space below it is released. The second pallet 14 can then pass smoothly through the first airtightness detection mechanism and be transferred to the corresponding position of the second airtightness detection mechanism, thus realizing the orderly connection of the two sets of pallets 14.

[0076] During the testing preparation phase, the first horizontal cylinder 705 drives the docking pin 707 to move via the moving plate 706, while the second horizontal cylinder 708 drives the support bar 709 to move synchronously. Under the combined action of the two, the tray 14 is smoothly moved into the guide frame 710. When the tray 14 moves to the end position inside the guide frame 710, the two preset top blocks 715 will precisely enter the pressing grooves 25 of the two product carriers 2, effectively limiting the lamp and firmly fixing the lamp inside the product carrier 2, avoiding the impact of positional displacement on the testing accuracy during the testing process.

[0077] Finally, the sixth lifting component 711 drives the two airtight plugs 713 to move upward through the lifting plate 712. After the airtight plugs 713 pass through the preset insertion holes 26 of the tray 14, they are precisely inserted into the interior of the lamp, forming a closed testing space, thereby enabling precise testing of the airtightness of the lamp.

[0078] Reference Figure 1 , Figure 14 and Figure 15Specifically, the optical inspection mechanism 8 includes a third mounting bracket 801, a first translation component 802, a first rotating component 803, four seventh lifting components 804, four clamping components 805, a cover plate 806, a turntable 807, a second rotating component, four inspection carriers 809, an eighth lifting component 810, a second pressure plate 811, two second pressure blocks 817, two inspection heads 812, a second translation component 813, a ninth lifting component 814, two electrical connectors 815, and a darkroom cover 816.

[0079] The third mounting bracket 801 is fixedly mounted on the equipment platform 1. The first translation component 802 is fixedly mounted on the third mounting bracket 801. The first rotating component 803 is fixedly mounted on the translation end of the first translation component 802. Four seventh lifting components 804 are mounted on the rotation end of the first rotating component 803. Every two seventh lifting components 804 form a group, and the two groups of seventh lifting components 804 are symmetrically installed. Four clamping components 805 are fixedly mounted on the lifting ends of the four seventh lifting components 804. In this application, the seventh lifting component 804 can be a cylinder, the clamping component 805 can be a finger cylinder, the first rotating component 803 can be a rotary cylinder, and the first translation component 802 can be a linear module.

[0080] The cover plate 806 is fixedly mounted on the equipment platform 1 by four second columns 41. The turntable 807 is rotatably mounted on the cover plate 806. The second rotating component is fixedly mounted on the bottom of the cover plate 806 and connected to the turntable 807. Four testing carriers 809 are fixedly mounted on the turntable 807, with two testing carriers 809 forming a group, and two groups of testing carriers 809 are symmetrically mounted on the turntable 807. In this application, the second rotating component can be a rotary cylinder.

[0081] A darkroom hood 816 is fixedly mounted on a cover plate 806, covering half of a turntable 807 and enclosing a set of detection carriers 809. An eighth lifting member 810 is fixedly mounted on the cover plate 806 and located inside the darkroom hood 816. A second pressure plate 811 is fixedly mounted on the lifting end of the eighth lifting member 810, and two second pressure blocks 817 are fixedly mounted on the bottom wall of the second pressure plate 811. Two detection heads 812 pass through the two second pressure blocks 817. In this application, the eighth lifting member 810 can be a cylinder.

[0082] The second translation component 813 is fixedly installed inside the equipment platform 1, the ninth lifting component 814 is fixedly installed at the translation end of the second translation component 813, and two electrical connectors 815 are fixedly installed at the lifting end of the ninth lifting component 814. In this application, the second translation component 813 can be a linear module, and the ninth lifting component 814 can be a cylinder.

[0083] When the tray 14 is moved to the working area of ​​the optical inspection mechanism 8, the seventh lifting member 804 is immediately activated, driving the clamping member 805 to move downwards. After one set of clamping members 805 reaches the corresponding position of the lamp in the product carrier 2, it forms a stable clamp on the lamp, while the other set of clamping members 805 clamps the lamp that has already been inspected in the inspection carrier 809. Subsequently, the seventh lifting member 804 moves the clamped lamp upwards, causing it to detach from the product carrier 2 and the inspection carrier 809.

[0084] Following this, the first rotating component 803 begins operation, rotating and adjusting the lamp. Simultaneously, the first translating component 802 drives the lamp to move horizontally. Through the coordinated action of rotation and translation, the lamp is precisely moved to the top of the inspection carrier 809. Next, the seventh lifting component 804 moves the lamp downwards. When the lamp reaches the preset position within the inspection carrier 809, the clamping component 805 releases its grip on the lamp, allowing it to be stably placed in the inspection carrier 809. Similarly, the inspected lamp is placed into the product carrier 2 and transported to the next operating station.

[0085] After the initial placement of the lamp is completed, the second rotating component, via the turntable 807, drives the testing carrier 809 carrying the lamp into the darkroom hood 816, creating an environment free from external light interference for optical performance testing. Subsequently, the eighth lifting component 810 drives the second pressure plate 811 to move, which in turn drives the second pressure block 817 to move synchronously. During its movement, the second pressure block 817 not only firmly presses the lamp into the testing carrier 809 to prevent the lamp from shifting during testing, but also drives the testing head 812 downward, ensuring that the testing head 812 is precisely aligned with the testing area of ​​the lamp.

[0086] Simultaneously, the second translation component 813 drives the ninth lifting component 814 to move horizontally, moving it to the corresponding position of the electrical connection end of the lamp. The ninth lifting component 814 drives the electrical connector 815 to move upward, so that the electrical connector 815 accurately connects with the power supply interface of the lamp, thereby connecting the lamp to the power supply and ensuring that the lamp can be lit normally during the testing process, so that the optical testing agency 8 can conduct comprehensive and accurate testing of its optical performance indicators.

[0087] The implementation principle of an automated automotive lighting production device according to an embodiment of this application is as follows: During automotive lighting production, the lamp housing installation mechanism 4 first loads the lamp housing into the product carrier 2, and then the first conveyor belt 3 transports the product carrier 2. Next, the PCB board installation mechanism 5 loads the PCB board into the lamp housing, and the conveyor belt 3 continues to transport the product carrier 2; then, the automatic screw-driving mechanism 6 drives screws into the PCB board, firmly fixing it in the lamp housing, and the conveyor belt 3 transports the product carrier 2 forward again. The lamp cover installation mechanism 10 installs the lamp cover onto the lamp housing, and the conveyor belt 3 continues to transport the product carrier 2. Subsequently, the ultrasonic loading station 11 sends the lamp in the product carrier 2 to the ultrasonic welding mechanism, and the transfer mechanism 13 transfers the empty carrier to the second conveyor belt 3. After welding is completed, the ultrasonic unloading station 12 places the lamp into the product carrier 2 of the second conveyor belt 3, and sequentially passes through the airtightness testing mechanism 7 and the optical testing mechanism 8 for performance testing, and then passes through the marking mechanism 27 for laser marking, and finally the lamp unloading mechanism 9 completes the unloading. In this way, the assembly, welding and testing of automotive lights can be fully automated, thus greatly improving production efficiency.

[0088] The above are merely optional embodiments of this disclosure and are not intended to limit this disclosure. Various modifications and variations can be made to this disclosure by those skilled in the art. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of this disclosure should be included within the scope of protection of this disclosure.

Claims

1. An automated production device for automotive lighting fixtures, characterized in that: The device table (1) is provided with two parallel plate chain lines (3), a plurality of product carriers (2) are arranged on the plate chain lines (3) at intervals, a lamp chamber mounting mechanism (4), a PCB mounting mechanism (5), an automatic screwing mechanism (6), a lampshade mounting mechanism (10) and an ultrasonic feeding station (11) are sequentially arranged on the device table (1) along the direction in which the product carriers (2) are conveyed on one plate chain line (3), an ultrasonic welding mechanism is arranged on the device table (1) near one side of the ultrasonic feeding station (11), the directions in which the product carriers (2) are conveyed on the two plate chain lines (3) are opposite, an ultrasonic discharging station (12), an airtightness detection mechanism (7), an optical detection mechanism (8) and a lamp discharging mechanism (9) are sequentially arranged on the device table (1) along the direction in which the product carriers (2) are conveyed on the other plate chain line (3), and transplanting mechanisms (13) are arranged on both ends of the plate chain line (3) on the device table (1) and used for reciprocally conveying the product carriers (2) between the two plate chain lines (3).

2. The automatic production device for automobile lamps according to claim 1, characterized in that: The plate chain line (3) comprises a support frame (31), a first driving member (33) and a conveying chain (32), the support frame (31) is fixedly arranged on the device table (1), the conveying chain (32) is rotatably arranged in the support frame (31), the first driving member (33) is arranged in the device table (1), the first driving member (33) is in transmission connection with the conveying chain (32), and the conveying chain (32) is provided with a tray (14), and the product carrier (2) is fixedly arranged on the tray (14).

3. The automatic production device for an automobile lamp according to claim 2, characterized in that: A plurality of first lifting members (15) are arranged in the support frame (31), the lifting end of each first lifting member (15) is fixedly provided with a stop block (16), and the tray (14) moves against the stop block (16).

4. The automatic production device for an automobile lamp according to claim 2, characterized in that: A plurality of second lifting members (17) are arranged in the support frame (31), the lifting end of each second lifting member (17) is fixedly provided with a positioning plate (18), the positioning plate (18) is provided with a plurality of positioning columns (19), the tray (14) is provided with a plurality of positioning holes (20), a plurality of the positioning columns (19) are movably inserted into the plurality of positioning holes (20), and a height limiting plate (28) is fixedly arranged on the support frame (31) and abuts against the top wall of the tray (14).

5. The automatic production device for an automobile lamp according to claim 1, characterized in that: The PCB mounting mechanism (5) comprises a first mounting frame (51), a two-axis moving part (52), a third lifting part (53), a vacuum suction accessory (54), a supporting plate (55), a positioning carrier (56), a positioning push block (57) and a positioning air cylinder (58), the first mounting frame (51) is fixedly arranged on the equipment table top (1), the two-axis moving part (52) is arranged on the first mounting frame (51), the third lifting part (53) is arranged at the moving end of the two-axis moving part (52), the vacuum suction accessory (54) is arranged at the lifting end of the third lifting part (53), the supporting plate (55) is arranged on the first mounting frame (51), the positioning carrier (56) is fixedly arranged on the supporting plate (55), the positioning push block (57) is slidingly arranged on the supporting plate (55), and the positioning air cylinder (58) is arranged on the supporting plate (55), and the telescopic end of the positioning air cylinder (58) is fixedly connected with the positioning push block (57).

6. The automatic production device for an automobile lamp according to claim 2, characterized in that: The automatic screw driving mechanism (6) comprises a three-axis moving part (61) and an automatic screw driving part (62), the three-axis moving part (61) is arranged on the equipment table top (1), the automatic screw driving part (62) is arranged at the moving end of the three-axis moving part (61), the supporting frame (31) is provided with a back plate (21) at the automatic screw driving part (62), the fourth lifting part (22) is arranged on the back plate (21), the first pressing plate (23) is arranged on the fourth lifting part (22), and the first pressing block (24) is arranged on the bottom wall of the first pressing plate (23).

7. The automatic production device for an automobile lamp according to claim 4, characterized in that: The airtight detection mechanism (7) is provided at intervals, the airtight detection mechanism (7) includes second mounting frame (701), fifth lifting piece (702), supporting plate (703), limiting column (704), first horizontal cylinder (705), moving plate (706), butt joint pin (707), second horizontal cylinder (708), support strip (709), guide frame (710), sixth lifting piece (711), lifting plate (712), airtight plug (713), top plate (714) and top block (715), the second mounting frame (701) is arranged on the equipment mesa (1), the fifth lifting piece (702) is arranged in the second mounting frame (701), the supporting plate (703) is arranged on the lifting end of the fifth lifting piece (702) and below the tray (14), the limiting column (704) is arranged on the supporting plate (703), the limiting column (704) is moved upwards and inserted into the positioning hole (20) of the tray (14), the second horizontal cylinder (708) is arranged in the second mounting frame (701), the support strip (709) is arranged on the translation end of the second horizontal cylinder (708), the support strip (709) is moved to abut the bottom wall of the tray (14), the first horizontal cylinder (705) is arranged on the top of the second mounting frame (701), the moving plate (706) is arranged on the moving end of the first horizontal cylinder (705), the butt joint pin (707) is arranged on the bottom wall of the moving plate (706), the tray (14) is moved upwards and the butt joint pin (707) is inserted into the positioning hole (20) of the tray (14), the first horizontal cylinder (705) drives the tray (14) to be translated into the guide frame (710) through the butt joint pin (707), the top plate (714) is fixedly arranged in the second mounting frame (701), the top block (715) is arranged on the bottom wall of the top plate (714), the side wall of the product carrier (2) is provided with a pressing groove (25), the top block (715) is located in the pressing groove (25), the sixth lifting piece (711) is arranged in the second mounting frame (701), the lifting plate (712) is arranged on the lifting end of the sixth lifting piece (711), the airtight plug (713) is arranged on the top wall of the lifting plate (712), the tray (14) is provided with an insertion hole (26), the airtight plug (713) passes through the insertion hole (26) and is connected with the lamp.

8. The automatic production device for automobile lamps according to claim 1, characterized in that: The optical detection mechanism (8) comprises a third mounting frame (801), a first translation piece (802), a first rotating piece (803), a seventh lifting piece (804), a clamping piece (805), a cover plate (806), a turntable (807), a second rotating piece, a detection carrier (809), an eighth lifting piece (810), a second pressing plate (811), a second pressing block (817), a detection head (812), a second translation piece (813), a ninth lifting piece (814), an electrical connector (815) and a darkroom cover (816), the third mounting frame (801) is arranged on the equipment table top (1), the first translation piece (802) is arranged on the third mounting frame (801), the first rotating piece (803) is arranged on the first translation piece (802), the seventh lifting piece (804) is arranged on the first rotating piece (803), the clamping piece (805) is arranged on the seventh lifting piece (804) and is used for clamping and conveying the lamp in the product carrier (2) into the detection carrier (809), the cover plate (806) is arranged on the equipment table top (1), the turntable (807) is rotatably arranged on the cover plate (806), the detection carrier (809) is arranged on the turntable (807), the second rotating piece is arranged at the bottom of the cover plate (806) and is connected with the turntable (807), the darkroom cover (816) is arranged on the cover plate (806) and covers part of the turntable (807), the eighth lifting piece (810) is arranged on the cover plate (806), the second pressing plate (811) is arranged on the eighth lifting piece (810), the second pressing block (817) is arranged at the bottom of the second pressing plate (811), the detection head (812) is arranged in the second pressing block (817) and is located above the detection carrier (809), the second translation piece (813) is arranged on the equipment table top (1), the ninth lifting piece (814) is arranged on the second translation piece (813), and the electrical connector (815) is arranged on the ninth lifting piece (814).

9. The automatic production device for an automobile lamp according to claim 2, characterized in that: The transplanting mechanism (13) comprises a third translation piece (131), a translation plate (132), a mounting plate (133), a second driving piece (134), a side plate (135), a belt (136) and an elastic pad (137), the translation plate (132) is slidingly arranged on the equipment table top (1), the third translation piece (131) is arranged on the equipment table top (1) and is connected with the translation plate (132), the mounting plate (133) is arranged on the translation plate (132), the second driving piece (134) is arranged at the bottom of the mounting plate (133), the side plate (135) is arranged above the mounting plate (133), the belt (136) is rotatably arranged on the side plate (135) and is in transmission connection with the second driving piece (134), and the elastic pad (137) is arranged on the side plate (135).

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