Automobile door handle inspection apparatus
By designing a high-precision servo motor and ball screw transmission mechanism for automotive door handle testing equipment, the problem of difficulty in detecting opening force and stroke has been solved, realizing automated testing and assembly, and improving production efficiency and product consistency.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- GUIZHOU HUACHANG AUTOMOBILE ELECTRIC APPLIANCES CO LTD
- Filing Date
- 2025-07-02
- Publication Date
- 2026-07-24
AI Technical Summary
The opening force and opening stroke of car door handles are difficult to simulate and test. The assembly efficiency of paddle shifters is low and there is a lack of automated monitoring, resulting in poor product consistency and low production efficiency.
An automotive door handle inspection device was designed, which adopts a high-precision servo motor and ball screw transmission mechanism to realize automatic inspection, assembly and engraving functions, including a quick-change fixture structure, which can quickly inspect and mark.
It improves testing efficiency and product quality consistency, shortens testing time, enhances testing accuracy, efficiency and stability, and supports multi-directional testing.
Smart Images

Figure CN224552712U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of automotive door handle detection technology, specifically an automotive door handle detection device. Background Technology
[0002] The opening force and opening stroke of car door handles are important parameters, but simulating testing after assembly is difficult, and sampling inspection is usually used. This lack of monitoring of process changes makes it hard to ensure product consistency. Furthermore, the manual assembly of the paddle shifters in car door handle production is inefficient, and manually printing batch numbers and traceability codes is time-consuming.
[0003] To improve production efficiency and product quality, our company has designed a device that can assemble, mark, and measure the opening force and stroke of car door handles. Utility Model Content
[0004] This utility model provides an automotive door handle testing device, which aims to solve the problems in the background art of difficulty in detecting the opening force and opening stroke of automotive door handles and the low assembly efficiency of the paddle boss. Furthermore, this utility model can also realize the engraving function of automotive door handles (printing batch numbers; printing traceability codes).
[0005] This utility model provides the following technical solution to achieve the above objectives: An automotive door handle inspection device includes a feeding module base plate assembly A, which includes a slidably disposed common base plate and a fixture assembly on the common base plate; the fixture assembly includes a fixture base plate assembly B, on which a fixed handle mechanism C, a paddle auxiliary mechanism D, and a paddle assembly E are disposed; the feeding module base plate assembly A is provided with an engraving machine F and a detection moving module G, on which a force value detection assembly H is disposed.
[0006] In the aforementioned automotive door handle testing equipment, the feeding module base plate assembly A includes a large base plate, a guide rail mounting strip on the large base plate, a guide rail five on the guide rail mounting strip, a common base plate on the guide rail five, a clamp positioning pin on the common base plate, a clamp plate positioning connected to the bottom of the common base plate, a moving plate connected to the side of the common base plate, a screw connecting block one connected to the moving plate, and a servo motor module one with a ball screw mounted on the large base plate.
[0007] In the aforementioned automotive door handle testing equipment, the clamp base plate assembly B includes a clamp body base plate disposed on a common base plate. The clamp body base plate is provided with a guide rail one, a support plate one, a guide rail two, a guide rail three, and a support plate two. The clamp body base plate is provided with a clamp positioning pin hole that matches the clamp positioning pin. The side of the clamp body base plate is provided with a clamp positioning groove that matches the clamp plate positioning. A handle is installed on the side of the clamp body base plate.
[0008] In the aforementioned automotive door handle testing equipment, the paddle auxiliary mechanism D includes a slider 1 mounted on a guide rail 3, slider 1 connected to a slider mounting plate 1, slider mounting plate 1 connected to a floating joint 1, and floating joint 1 connected to a left-right moving cylinder 1 mounted on the base plate of the clamping body; slider mounting plate 1 is connected to slider 2, slider 2 is provided with a push plate and a right-angle connector, the right-angle connector is connected to an auxiliary lifting cylinder, and the auxiliary lifting cylinder is mounted through cylinder mounting plate 1; slider 2 is located on the rear side of a guide rail 4, and the rear side of the guide rail 4 is mounted through a guide rail mounting plate.
[0009] In the aforementioned automotive door handle testing equipment, the fixed handle mechanism C includes slider three and slider four respectively mounted on guide rail two and guide rail three. The top of slider three and slider four is connected to a slider mounting base plate. Cylinder mounting plate three and cylinder mounting plate two are mounted on the slider mounting base plate. A pressing cylinder is mounted on the side of cylinder mounting plate three and connected to a pressure plate. A pre-detection pushing cylinder is mounted on the top of cylinder mounting plate two via a bent plate. A bent plate base is connected to the side of slider mounting base plate. The bent plate base is connected to a fixed moving cylinder mounted on the clamping body base plate via a floating joint two.
[0010] In the aforementioned automotive door handle testing equipment, the paddle assembly E includes slider five and slider six respectively disposed on guide rail one and guide rail two. The top of slider five and slider six is connected to slider mounting plate two. The left side of slider mounting plate two is connected to left and right moving cylinder two mounted on the base plate of clamping body through floating joint three. The right side of slider mounting plate two is connected to cylinder mounting plate five. Up and down moving cylinder is mounted on cylinder mounting plate five. Up and down moving cylinder is connected to cylinder mounting plate four. Assembly top cylinder is mounted on cylinder mounting plate four.
[0011] In the aforementioned automotive door handle testing equipment, the testing moving module G includes a mounting frame installed on a large base plate. The mounting frame includes a long base plate, a horizontal plate, an inclined support plate, and a column plate. A servo motor module three with a ball screw is horizontally arranged on the top of the mounting frame. The servo motor module three is vertically connected to a servo motor module two with a ball screw through a screw connecting block three. The servo motor module two is connected to a screw connecting block two.
[0012] In the aforementioned automotive door handle testing equipment, the force detection assembly H includes a small base plate connected to the lead screw connecting block 2, and an S-shaped tension / compression sensor is mounted on the lower part of the small base plate via an mounting block; a T-shaped detection probe is slidably mounted on the bottom of the small base plate via a guide rail slider, and the upper part of the T-shaped detection probe is connected to the S-shaped tension / compression sensor.
[0013] In the aforementioned car door handle testing equipment, the engraving machine F is mounted on a large base plate and includes an engraving machine lens.
[0014] Beneficial effects The automotive door handle inspection equipment provided by this invention enables automatic inspection, assembly, and engraving of door handles. This invention not only improves inspection efficiency but also ensures product quality in automated production lines. The high-precision servo motor combined with a ball screw transmission mechanism applied to force sensor detection offers significant advantages in several aspects, enhancing the accuracy, efficiency, stability, and reliability of the inspection. The ball screw transmission provides high rigidity and stability, ensuring stable and accurate transmission of the force output from the servo motor to the force sensor. Furthermore, this invention features high interchangeability (quick change via fixture replacement), enabling multi-directional inspection, a reasonable structure, good stability, and ease of installation and maintenance.
[0015] Before using this invention, it took about 60 seconds to manually inspect a car door handle; after using this invention, the three tasks of inspection, assembly, and engraving of the car door handle can be completed in less than 20 seconds. Attached Figure Description
[0016] Appendix Figure 1 - Diagram of the right handle; Appendix Figure 2 -Diagram of the left handle; Appendix Figure 3 - Assembly diagram of this utility model Figure 1 (Including two clamping assemblies corresponding to the left and right handles); Appendix Figure 4 -Diagram showing the lever positioning for the handle; Appendix Figure 5 -Handle assembly and positioning diagram; Appendix Figure 6 - Schematic diagram of the fixture base plate assembly; Appendix Figure 7 - Side view of the paddle shifter auxiliary mechanism; Appendix Figure 8 - Schematic diagram of the fixed handle mechanism; Appendix Figure 9 - Schematic diagram of the paddle assembly; Appendix Figure 10 -Feeding module base plate assembly; Appendix Figure 11 - Schematic diagram of the detection mobile module; Appendix Figure 12 - Schematic diagram of the force value detection assembly; Appendix Figure 13 - Schematic diagram of an engraving machine; Appendix Figure 14 -Top view of the assembly of this utility model Figure 2 ; Appendix Figure 15 - Schematic diagram of the fixture assembly; The reference numerals in each of the attached figures are as follows: Appendix Figure 1 Car door right handle, 1-handle end, 2-handle number engraving position, 3-handle pressing and fixing position, 4-paddle assembly top position, 5-handle internal spring, 6-left and right handle markings, 7-paddle rotation shaft, 8-paddle detection position; Appendix Figure 2 Left door handle; Appendix Figure 3 : Inspection assembly 11-large base plate feeding module, 12-right fixture assembly, 13-engraving machine body, 14-inspection moving module body, 15-sensor part, 16-left fixture assembly; Appendix Figure 4 :9-Pulley boss (handle pulley lock); Appendix Figure 5 :10-Handle groove (handle assembly slot); Appendix Figure 6 57-Clamp body base plate, 58-Clamp positioning groove, 59-Clamp positioning pin hole, 18-Guide rail one, 19-Support plate one, 20-Guide rail two, 21-Guide rail three, 22-Support plate two, 23-Handle; Appendix Figure 7 24-Left and right moving cylinder one, 25-Floating joint one, 26-Push plate, 27-Guide rail four, 28-Guide rail mounting plate, 29-Slider mounting plate one, 30-Slider one, 31-Slider two, 32-Right angle connector, 33-Auxiliary lifting cylinder, 34-Cylinder mounting plate one; Appendix Figure 8 35-Fixed moving cylinder, 36-Floating joint II, 37-Bend plate base, 38-Cylinder mounting plate II, 39-Bend plate, 40-Pre-detection push cylinder, 41-Pressure plate, 42-Cylinder mounting plate III, 43-Reinforcing plate I, 44-Slider III, 45-Pressing cylinder, 46-Reinforcing plate II, 47-Slider IV; Appendix Figure 9 : 48-Left and right moving cylinder II, 49-Floating joint III, 50-Slider V, 51-Slider VI, 52-Slider mounting plate II, 53-Assembly top cylinder, 54-Cylinder mounting plate IV, 55-Up and down moving cylinder, 56-Cylinder mounting plate V; Appendix Figure 10 : 60-Large base plate, 61-Clamping positioning pin, 62-Common base plate, 63-Servo motor module one, 64-Screw connecting block one, 65-Moving plate, 66-Floating joint, 67-Clamping plate positioning, 68-Guide rail five, 69-Guide rail mounting strip; Appendix Figure 1170-Servo motor module II, 71-Screw connecting block II, 72-Screw connecting block III, 73-Servo motor module III, 74-Column plate, 75-Slanted support plate, 76-Horizontal plate, 77-Long base plate; Appendix Figure 12 78-Small base plate, 79-Reinforcing plate, 80-S-type tension / compression sensor, 81-Mounting block, 82-Guide rail slider, 83-T-type detection probe; Appendix Figure 13 : 84 - CNC engraving machine lens, 85 - CNC engraving machine base plate; Appendix Figure 14-15 A-Feeding module base plate assembly, B-Clamping base plate assembly, C-Fixed handle mechanism, D-Pulley auxiliary mechanism, E-Pulley assembly, F-Engraving machine, G-Detection moving module, H-Force detection assembly. Detailed Implementation
[0017] The technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present invention.
[0018] Example: A car door handle inspection device. This device is used to implement the aforementioned automatic inspection, assembly, and engraving equipment for car door handles. (The door handle structure is referenced here.) Figure 1-2 As shown, the device is divided into a left handle and a right handle with symmetrical structure. Correspondingly, the device also provides two types of right clamp assembly and left clamp assembly with symmetrical structure.
[0019] In terms of the structure of this equipment, refer to Figure 3 , 6 As shown in Figure -15, the system includes a feeding module base plate assembly A, which includes a slidably mounted common base plate 62, on which a fixture assembly is mounted; the fixture assembly includes a fixture base plate assembly B, on which a fixed handle mechanism C, a paddle auxiliary mechanism D, and a paddle assembly E are mounted; the feeding module base plate assembly A is equipped with an engraving machine F and a detection moving module G, on which a force value detection assembly H is mounted.
[0020] When operating with the above equipment, the main steps are as follows: The car door handle is manually placed into the fixture assembly; the paddle auxiliary mechanism D operates to prevent the paddle rotation shaft 7 of the car door handle from shaking; the handle fixing mechanism C fixes the car door handle and pushes the paddle to rotate the internal spring 5 and the paddle rotation shaft 7 to the pre-detection position; the paddle auxiliary mechanism D then retracts; the feeding module base plate assembly A moves the car door handle to the detection position; the detection moving module G drives the force value detection assembly H to move to the paddle detection position 8 to detect the force value; after the force value detection is completed, the force value is judged. To determine if the force is within a reasonable range, the paddle assembly E engages the paddle boss 9 into the handle groove 10, and the moving module G and paddle assembly E are then disengaged. Based on whether the force value is within a reasonable range, the handle is judged to be qualified. If unqualified, the feeding module base plate assembly A moves the car door handle to the material pick-up position. If qualified, the feeding module base plate assembly A moves the car door handle to the marking position, triggering the engraving machine F to engrave the handle number. Then, the feeding module base plate assembly A moves the car door handle to the material position, completing the inspection, assembly, and engraving of the car door handle.
[0021] Furthermore, considering the following structure and working principle of this device, the working process of this utility model is as follows: The main working process of this utility model is: manually inserting the spring-loaded handle (refer to...) Figure 1-2 The handle is placed into the corresponding left and right handle clamps (12 or 16), specifically between support plate 19 and support plate 22. The handle is restricted to prevent it from moving back and forth. After starting, the paddle auxiliary mechanism D ( Figure 7 Move to the auxiliary position, the paddle rotation shaft 7 engages with the auxiliary push plate 26 to prevent shaft wobbling; fix the handle mechanism ( Figure 8 The fixed handle is moved, and the cylinder mounting plate (38, 42) is used to fix the handle on the side and make it shake. The pressing cylinder 45 presses down to make the fixed handle move. The pre-detection push cylinder 40 extends to push the handle's paddle, so that the paddle drives the handle's internal spring 5 and paddle rotation shaft 7 to rotate to the pre-detection position. The left and right movement cylinder 24 of the paddle auxiliary mechanism D retracts and resets to the initial position. Then, in the feeding module base plate assembly A, the servo motor module 63 drives the fixture assembly to move to the detection position. The servo motor module 70 drives the power value detection assembly H to move downward to the T-shaped detection probe 83 and the paddle detection position 8 at the same horizontal line. The servo motor module 73 moves the force value detection assembly H to the right so that the paddle detection position 8 contacts the T-shaped detection probe 83 and the detection begins. The servo motor module 73 moves to make the paddle rotate around the paddle rotation shaft 7, so that the paddle boss 9 ( Figure 4 ) and handle groove 10 ( Figure 5 When the servo motor module 373 stops at the same mating plane, the force value detection process is completed, and the PLC controller determines whether the force value is within a reasonable range; the paddle assembly E ( Figure 9In the process, the up-and-down moving cylinder 55 rises, and the assembly moving cylinder 48 moves to make the assembly top cylinder 53 and the handle paddle assembly top position 4 concentric. The assembly top cylinder 53 extends to move the paddle rotation shaft 7 so that the paddle boss 9 is engaged in the handle groove 10 to complete the assembly. The servo motor module three 73 retracts to the initial position, the paddle assembly body E retracts and resets to the initial state, the servo motor module two 70 retracts upward to the initial position, and all the cylinders of the fixture assembly body also reset to the initial position. It is judged whether the handle force value is qualified. If it is not qualified, the feeding module base plate assembly A sends the car door handle to the picking position. If it is qualified, the feeding module base plate assembly A will align the handle number engraving position 2 of the car door handle with the engraving lens 84 on the same vertical line, triggering the engraving machine to engrave. After the engraving is completed, the feeding module base plate assembly A moves outward to move the engraved car door handle to the picking position, thereby completing the inspection, assembly and engraving process of the car door handle.
[0022] The specific structure of the above-mentioned equipment is as follows: The feeding module base plate assembly A includes a large base plate 60, a guide rail mounting strip 69 on the large base plate 60, a guide rail five 68 on the guide rail mounting strip 69, a common base plate 62 on the guide rail five 68, a clamp positioning pin 61 on the common base plate 62, a clamping plate positioning 67 connected to the bottom of the common base plate 62, a moving plate 65 connected to the side of the common base plate 62, a lead screw connecting block one 64 connected to the moving plate 65, and a servo motor module one 63 with a ball screw mounted on the large base plate 60. In the feeding module base plate assembly A, the servo motor module one 63 drives the lead screw connecting block one 64, the moving plate 65, and the common base plate 62 to perform linear motion, and the common base plate 62 slides on the guide rail five 68 via a slider. It should be noted that the servo motor module used in this device is an existing device. It uses a high-precision servo motor in conjunction with a ball screw to convert rotational motion into linear motion through the rolling action of the balls, and can achieve high-precision positioning.
[0023] The fixture base plate assembly B includes a fixture body base plate 57 disposed on a common base plate 62. The fixture body base plate 57 is provided with a guide rail 18, a support plate 19, a guide rail 20, a guide rail 3, and a support plate 22. The fixture body base plate 57 has a fixture positioning pin hole 59 that matches the fixture positioning pin 61. The side of the fixture body base plate 57 has a fixture positioning groove 58 that matches the fixture plate positioning 67. A handle 23 is installed on the side of the fixture body base plate 57. In the fixture base plate assembly B, the fixture positioning pin 61 engages with the fixture positioning pin hole 59, and the fixture plate positioning 67 engages with the fixture positioning groove 58, facilitating quick positioning of the fixture body by the operator. The handle 23 facilitates quick fixture changes.
[0024] The paddle auxiliary mechanism D includes a slider 30 mounted on guide rail 21, slider 30 connected to slider mounting plate 29, slider mounting plate 29 connected to floating joint 25, floating joint 25 connected to left and right moving cylinder 24 mounted on clamp base plate 57; slider mounting plate 29 connected to slider 31, slider 31 is provided with push plate 26 and right angle connector 32, right angle connector 32 connected to auxiliary lifting cylinder 33, auxiliary lifting cylinder 33 is mounted through cylinder mounting plate 34; slider 31 is located in guide rail 27 at the rear, and guide rail 27 is mounted through guide rail mounting plate 28 at the rear. In the paddle assist mechanism D, the left and right position of the push plate 26 can be adjusted by the left and right moving cylinder 24. During adjustment, the slider 30 and its connecting parts slide along the guide rail 21. The auxiliary lifting cylinder 33 can adjust the up and down position of the push plate 26. During adjustment, the push plate 26 and its connecting parts slide along the guide rail 27. With the cooperation of the push plate 26, the handle shaft can be prevented from shaking.
[0025] The fixed handle mechanism C includes sliders 44 and 47 respectively mounted on guide rail 20 and guide rail 21. The tops of sliders 44 and 47 are connected to a slider mounting base plate. A cylinder mounting plate 42 and a cylinder mounting plate 38 are mounted on the slider mounting base plate. A pressing cylinder 45 is mounted on the side of cylinder mounting plate 42, and the pressing cylinder 45 is connected to a pressure plate 41. A pre-detection push cylinder 40 is mounted on the top of cylinder mounting plate 38 via a bent plate 39. A bent plate base 37 is connected to the side of the slider mounting base plate, and the bent plate base 37 is connected to a fixed moving cylinder 35 mounted on a clamping body base plate 57 via a floating joint 36. In the fixed handle mechanism C, the fixed moving cylinder 35 allows the entire mechanism to slide along guide rail 20 and guide rail 21 via sliders 44 and 47. The pressing cylinder 45 adjusts the vertical position of the pressure plate 41, causing it to press down and fix the handle. The pre-detection push cylinder 40 extends the lever that pushes the handle.
[0026] The paddle assembly E includes slider 50 and slider 6 51 respectively disposed on guide rail 18 and guide rail 20. The top of slider 50 and slider 6 51 is connected to slider mounting plate 2 52. The left side of slider mounting plate 2 52 is connected to left and right moving cylinder 2 48 mounted on clamp body base plate 57 via floating joint 3 49. The right side of slider mounting plate 2 52 is connected to cylinder mounting plate 56. Up and down moving cylinder 55 is mounted on cylinder mounting plate 56. Up and down moving cylinder 55 is connected to cylinder mounting plate 4 54. Assembly top cylinder 53 is mounted on cylinder mounting plate 4 54. The paddle assembly E is moved by the assembly moving cylinder 48. During the movement, the paddle slides along the guide rail 1 18 and the guide rail 2 20 via the slider 50 and slider 6 51. The up and down moving cylinder 55 adjusts the height of the assembly top cylinder 53. When the height of the assembly top cylinder 53 is consistent with the height of the handle paddle assembly top position 4 on the concentric axis, the assembly top cylinder 53 extends to move the paddle rotation shaft 7 so that the paddle boss 9 is engaged in the handle groove 10 to complete the assembly.
[0027] The detection movement module G includes a mounting frame installed on a large base plate 60. The mounting frame includes a long base plate 77, a horizontal plate 76, an inclined support plate 75, and a column plate 74. A servo motor module three 73 with a ball screw is horizontally arranged on the top of the mounting frame. The servo motor module three 73 is vertically connected to a servo motor module two 70 with a ball screw via a lead screw connecting block three 72. A lead screw connecting block two 71 is connected to the servo motor module two 70. The detection movement module G adjusts the force value to detect the left and right position of the assembly H through the servo motor module three 73, and adjusts the force value to detect the up and down position of the assembly H through the servo motor module two 70.
[0028] The force detection assembly H includes a small base plate 78 connected to the lead screw connecting block 71. An S-type tension / compression sensor 80 is mounted on the lower part of the small base plate 78 via a mounting block 81. A T-type detection probe 83 is slidably mounted on the bottom of the small base plate 78 via a guide rail slider 82, and the upper part of the T-type detection probe 83 is connected to the S-type tension / compression sensor 80. During operation, the T-type detection probe 83 contacts the detection position 8 of the lever and slides on the guide rail slider 82, thereby driving the compression and tension of the S-type tension / compression sensor 80 to achieve detection.
[0029] The engraving machine F is mounted on a large base plate 60 and includes an engraving machine lens 84. The engraving machine F is existing equipment, mainly used for engraving product numbers on handles, with engraving positions as shown... Figure 1 Engraving position 2 on the center handle; move the car door handle to be engraved to the position below the engraving machine lens 84 using the feeding servo motor module 63.
[0030] The above description is only a preferred embodiment of the present utility model, but the protection scope of the present utility model is not limited thereto. Any equivalent substitutions or changes made by those skilled in the art within the technical scope disclosed in the present utility model, based on the technical solution and concept of the present utility model, should be included within the protection scope of the present utility model.
Claims
1. A car door handle detection device, characterized in that: The feeding module base plate assembly A includes a common base plate (62) that is slidably set, and a fixture assembly is provided on the common base plate (62); the fixture assembly includes a fixture base plate assembly B, and a fixed handle mechanism C and a paddle auxiliary mechanism D are provided on the fixture base plate assembly B. A detection moving module G is provided on the base plate assembly A of the feeding module, and a force value detection assembly H is provided on the detection moving module G.
2. The automobile door handle detection device according to claim 1, characterized in that: The feeding module base plate assembly A includes a large base plate (60), a guide rail mounting strip (69) on the large base plate (60), a guide rail five (68) on the guide rail mounting strip (69), a common base plate (62) on the guide rail five (68), a clamp positioning pin (61) on the common base plate (62), a clamp plate positioning (67) connected to the bottom of the common base plate (62), a moving plate (65) connected to the side of the common base plate (62), a screw connecting block one (64) connected to the moving plate (65), and a servo motor module one (63) with a ball screw mounted on the large base plate (60).
3. The automotive door handle detection device according to claim 2, characterized in that: The fixture base plate assembly B includes a fixture body base plate (57) disposed on a common base plate (62). The fixture body base plate (57) is provided with a guide rail one (18), a support plate one (19), a guide rail two (20), a guide rail three (21), and a support plate two (22). The fixture body base plate (57) is provided with a fixture positioning pin hole (59) that matches the fixture positioning pin (61). The side of the fixture body base plate (57) is provided with a fixture positioning groove (58) that matches the fixture plate positioning (67). A handle (23) is installed on the side of the fixture body base plate (57).
4. The automotive door handle detection device according to claim 3, characterized in that: The paddle auxiliary mechanism D includes a slider 1 (30) set on the guide rail 3 (21), slider 1 (30) is connected to slider mounting plate 1 (29), slider mounting plate 1 (29) is connected to floating joint 1 (25), floating joint 1 (25) is connected to left and right moving cylinder 1 (24) installed on the base plate (57) of the clamp body; slider mounting plate 1 (29) is connected to slider 2 (31), slider 2 (31) is provided with push plate (26) and right angle connector (32), right angle connector (32) is connected to auxiliary lifting cylinder (33), auxiliary lifting cylinder (33) is installed through cylinder mounting plate 1 (34); slider 2 (31) is located in the guide rail 4 (27) at the rear, and the guide rail 4 (27) is installed through guide rail mounting plate (28) at the rear.
5. The automotive door handle detection device according to claim 3, characterized in that: The fixed handle mechanism C includes slider three (44) and slider four (47) respectively set on guide rail two (20) and guide rail three (21). The top of slider three (44) and slider four (47) is connected to slider mounting base plate. Cylinder mounting plate three (42) and cylinder mounting plate two (38) are installed on slider mounting base plate. A pressing cylinder (45) is installed on the side of cylinder mounting plate three (42). The pressing cylinder (45) is connected to pressure plate (41). A pre-detection pushing cylinder (40) is installed on the top of cylinder mounting plate two (38) through bending plate (39). The side of slider mounting base plate is connected to bending plate base (37). The bending plate base (37) is connected to fixed moving cylinder (35) installed on clamp body base plate (57) through floating joint two (36).
6. The automobile door handle detection device according to claim 3, characterized in that: The fixture base plate assembly B is provided with a lever assembly E, which includes slider five (50) and slider six (51) respectively set on guide rail one (18) and guide rail two (20). The top of slider five (50) and slider six (51) are connected to slider mounting plate two (52). The left side of slider mounting plate two (52) is connected to left and right moving cylinder two (48) installed on fixture base plate (57) through floating joint three (49). The right side of slider mounting plate two (52) is connected to cylinder mounting plate five (56). Cylinder mounting plate five (56) is installed on cylinder mounting plate five (56). Cylinder moving cylinder (55) is installed on cylinder mounting plate five (56). Cylinder moving cylinder (55) is connected to cylinder mounting plate four (54). Cylinder mounting plate four (54) is installed with assembly top cylinder (53).
7. The automobile door handle detection device according to claim 2, characterized in that: The detection moving module G includes a mounting frame installed on a large base plate (60). The mounting frame includes a long base plate (77), a horizontal plate (76), an inclined support plate (75), and a column plate (74). A servo motor module three (73) with a ball screw is horizontally arranged on the top of the mounting frame. The servo motor module three (73) is vertically connected to the servo motor module two (70) with a ball screw through a screw connecting block three (72). The servo motor module two (70) is connected to a screw connecting block two (71).
8. The automobile door handle detection device according to claim 7, characterized in that: The force detection assembly H includes a small base plate (78) connected to the lead screw connecting block 2 (71). An S-type tension and compression sensor (80) is installed on the lower part of the small base plate (78) through the mounting block (81). A T-type detection probe (83) is slidably set on the bottom of the small base plate (78) through the guide rail slider (82). The upper part of the T-type detection probe (83) is connected to the S-type tension and compression sensor (80).
9. The automobile door handle detection device according to claim 1, characterized in that: The base plate assembly A of the feeding module is equipped with an engraving machine F, which is mounted on a large base plate (60) and includes an engraving machine lens (84).