SPI solder paste thickness detector for producing automobile tail lamp module

Abstract

The invention relates to the technical field of thickness detection, and discloses an SPI solder paste thickness detection machine for producing an automobile tail lamp module, which comprises a detection unit, a feeding unit and a clamping unit. The device is provided with the detection unit, the feeding unit and the clamping unit, when a sealing door is closed, a rocker arm on the sealing door can drive a submitted product to be conveyed into a detection cavity, finally, the submitted product is conveniently moved to a detection position, and when the submitted product is moved to a designated position, a sliding block in the clamping unit is in a clamping groove, so that the submitted product is clamped in the clamping groove. Through guiding operation of a clamping groove, the position of a connecting point of a force storage cover and a limiting sliding block is changed at the moment, clamping operation is automatically completed through a force storage spring at the moment, when a feeding unit is reset, a slope drives a pressing plate to move, then a swing arm can be driven to rotate, and at the moment, the swing arm rotates and lifts a to-be-detected product to move to the outer side of a detection cavity; and the final detection operation is simpler, and the detection efficiency can be improved.

Description

Technical Field

[0001] The invention belongs to the technical field of thickness detection, and in particular relates to an SPI solder paste thickness detection machine for producing automobile taillight modules. Background Art

[0002] In the production process of automobile taillight modules, solder paste printing is a key link. The uniformity and accuracy of solder paste thickness directly affect the welding quality of electronic components, and thus the performance and reliability of automobile taillight modules.

[0003] Existing thickness detectors have some defects during use. When it is necessary to pick up the workpiece that has been inspected, the operator's arm needs to reach deep into the inspection cavity, which is not only laborious to operate, but also easy to collide with the inner wall of the chamber or the inspection components, causing damage to the equipment or secondary damage to the workpiece; at the same time, when the workpiece is initially placed and clamped, the inspection cavity is located inside the thickness detector, so the operator's viewing angle is limited, and it is difficult for the operator to accurately and quickly place the workpiece in the ideal clamping position, which greatly reduces production efficiency and increases the difficulty and error rate of manual operation.

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

[0005] In order to solve the above technical problems, the basic concept of the technical solution adopted by the present invention is: A SPI solder paste thickness detection machine for producing automobile taillight modules comprises a detection unit, a feeding unit and a clamping unit.

[0006] The detection unit comprises a thickness detection machine body, a detection chamber is arranged inside the thickness detection machine body, a sealing door adapted to the detection chamber is installed at the entrance of the detection chamber through a hinge, a pair of guide plates are installed on the inner wall of the detection chamber, a pair of guide sliders are slidably arranged on each pair of the guide plates, a synchronization plate is installed between the pair of guide sliders, a fixed plate is installed at the bottom of the synchronization plate, a rocker arm is rotatably installed on the fixed plate and the surface of the sealing door, and the rocker arm is in an inclined state; The feeding unit comprises two groups of swing arms, the two groups of swing arms are rotatably connected with corresponding guide sliders, and the two groups of swing arms are overlapped with the products to be inspected, a seesaw is installed at the rotation center of the two groups of swing arms, a connecting rod is vertically slidably arranged on the seesaw, a bearing plate is installed at the bottom of the connecting rod, a pressure plate is installed on the bearing plate, the bottom of the pressure plate is slidably connected with the guide rail installed at the bottom of the detection chamber, and a slope is provided on the guide rail; The clamping unit includes two pairs of L-shaped brackets, each pair of L-shaped brackets is connected to the corresponding fixed plate, a limiting slider is slidably installed on the L-shaped bracket, a force storage cover is rotatably installed on the limiting slider, a force storage rod is inserted inside the force storage cover, a force storage spring is installed between the force storage rod and the force storage cover, a clamping block is rotatably installed at the end of the force storage rod, the clamping block is horizontally slidably connected to the fixed block fixedly installed on the top of the L-shaped bracket, the force storage cover is in an inclined state, an insertion rod is installed on the side wall of the limiting slider, the insertion rod movably passes through the fixed plate, a sliding rod is installed at the end of the insertion rod, and the sliding rod is slidably arranged in a combined groove opened at the bottom of the detection cavity, the combined groove includes a feed groove and a clamping groove, the feed groove and the clamping groove are connected to each other, the feed groove is a linear operation, and the clamping groove is an inclined groove.

[0007] As a preferred embodiment of the present invention, four supporting legs are installed at the bottom corners of the thickness detection machine body, and anti-slip pads are installed at the bottom of the four supporting legs. A rotating shaft is rotatably installed on the side wall of the thickness detection machine body, and a locking plate is installed on the rotating shaft. A handle is installed on the upper surface of the sealing door, and an anti-slip sleeve is sleeved on the handle, and an observation window is embedded in the sealing door.

[0008] As a preferred embodiment of the present invention, columns are installed at both ends of the guide plate, the bottom of the column is welded and arranged at the bottom of the detection cavity, a guide groove is opened on the guide plate, the guide slider is installed on the guide groove, and a stopper is installed on the guide plate.

[0009] As a preferred embodiment of the present invention, a synchronous shaft is installed at the bottom of the swing arm, and both ends of the synchronous shaft are rotatably connected to the corresponding guide sliders. A clamping plate is installed on the synchronous shaft, and a torsion spring is sleeved on the side wall of the synchronous shaft. One end of the torsion spring is clamped on the side wall of the clamping plate, and the other end is clamped on the side wall of the guide slider.

[0010] As a preferred embodiment of the present invention, the synchronization shaft is connected to the rotation center of the seesaw, a strip groove is provided on the seesaw, a protrusion is slidably provided on the strip groove, and the protrusion is connected to the side wall of the connecting rod.

[0011] As a preferred embodiment of the present invention, the side wall of the bearing plate is provided with a mounting ear, a positioning rod is movably installed inside the mounting ear, the top of the positioning rod is connected to the bottom of the guide slider, a positioning plate is installed at the bottom of the positioning rod, a positioning spring is sleeved on the positioning rod, and the positioning spring is respectively clamped on the side wall of the guide slider and the side wall of the mounting ear.

[0012] As a preferred embodiment of the present invention, a guide wheel is rotatably installed at the bottom of the pressure plate, the guide wheel is rollingly connected to the guide rail, a blocking block is installed at the end of the guide rail, and the height of the blocking block is higher than the height of the guide rail.

[0013] As a preferred embodiment of the present invention, a guide rod is movably installed inside the L-shaped bracket, fixed seats are installed at both ends of the guide rod, and the fixed seats are welded to the side walls of the detection cavity. A limiting slide rail is installed on the L-shaped bracket, and the limiting slide rail is slidably connected to the limiting slider.

[0014] As a preferred embodiment of the present invention, a force storage plate is slidably arranged inside the force storage cover, one end of the force storage plate and the force storage rod are connected to each other, a force storage spring is installed between the other end of the force storage plate and the force storage cover, and the compression direction of the force storage spring and the moving direction of the force storage rod are both on the same straight line.

[0015] As a preferred embodiment of the present invention, a limiting sleeve is installed on the side wall of the fixed block, a limiting plate is movably inserted inside the limiting sleeve, a limiting rod is installed on the limiting plate, the limiting rod movably passes through the fixed block, and the end of the limiting rod is connected to the side wall of the clamping block, and a clamping plate is installed on the side wall of the clamping block.

[0016] Compared with the prior art, the present invention has the following beneficial effects: The present invention is provided with a detection unit, a feeding unit and a clamping unit, wherein when the sealing door is closed, the rocker arm on the sealing door can drive the inspected product to be transported into the detection chamber, and finally the inspected product is conveniently moved to the detection position, and there is no need to manually move it to the designated position, which makes the operation simpler, and when the inspected product moves to the designated position, the slider in the clamping unit is in the clamping groove, and through the guiding operation of the clamping groove, the connection point position of the force storage cover and the limit slider changes, and the clamping operation is automatically completed by the force storage spring, which makes the operation simpler, and when the feeding unit is reset, the pressure plate is driven to move through the slope, and then the swing arm can be driven to rotate. At this time, the swing arm rotates and lifts the inspected product to move to the outside of the detection chamber, which is convenient for the later loading and unloading of products, and finally the detection operation is simpler, which is convenient for improving the detection efficiency.

[0017] The specific implementation modes of the present invention are further described in detail below in conjunction with the accompanying drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] In the attached picture: Figure 1 A 3D diagram of an SPI solder paste thickness inspection machine used in the production of automotive taillight modules; Figure 2 A side view of an SPI solder paste thickness inspection machine used in the production of automotive taillight modules; Figure 3 It is an SPI solder paste thickness inspection machine used in the production of automobile taillight modules. Figure 2 Enlarged view of point A in the middle; Figure 4 A bottom view of an SPI solder paste thickness inspection machine used in the production of automotive taillight modules; Figure 5 A schematic diagram of the partial structure of an SPI solder paste thickness inspection machine used to produce automobile taillight modules Figure 1 ; Figure 6 It is an SPI solder paste thickness inspection machine used in the production of automobile taillight modules. Figure 5 Enlarged view of point B in the middle; Figure 7 A schematic diagram of the partial structure of an SPI solder paste thickness inspection machine used to produce automobile taillight modules Figure 2 ; Figure 8 A schematic diagram of the partial structure of an SPI solder paste thickness inspection machine used to produce automobile taillight modules Figure 3 ; Fig. 9 It is an SPI solder paste thickness detection machine used in the production of automobile taillight modules. Figure 8 Enlarged view of point C in the middle; Fig.10 This is a cross-sectional view of the L-shaped bracket of an SPI solder paste thickness detection machine used to produce automobile taillight modules.

[0019] In the figure: 100, detection unit; 101, thickness detection machine body; 1011, support leg; 1012, anti-skid pad; 1013, detection chamber; 102, sealing door; 1021, locking plate; 1022, rotating shaft; 1023, handle; 1024, observation window; 103, guide plate; 1031, column; 1032, guide slide; 1033, guide slide; 1034, synchronization plate; 1035, fixed plate; 1036, rocker arm; 104, stopper; 200, feeding unit; 201, swing arm; 2011, synchronous shaft; 2012, clamping plate; 2013, torsion spring; 202, seesaw; 2021, strip groove; 203, protrusion; 2031, connecting rod; 204, bearing plate; 2041, mounting ear; 2042, positioning rod; 2043, positioning spring; 2044, positioning plate; 205, pressing plate; 2051, guide wheel; 2052, guide rail; 2053, ramp; 2054, blocking block; 300, clamping unit; 301, L-shaped bracket; 3011, guide rod; 3012, fixed seat; 302, limit slider; 3021, limit slide rail; 3022, plug rod; 3023, slide rod; 303, combination slot; 3031, feed slot; 3032, clamping slot; 304, power storage cover; 3041, power storage rod; 3042, power storage plate; 3043, power storage spring; 305, clamping block; 3051, clamping plate; 3052, fixed block; 3053, limit sleeve; 3054, limit plate; 3055, limit rod; 400. Products for inspection. DETAILED DESCRIPTION

[0020] In order to make the purpose, technical solutions and advantages of the embodiments of the present invention clearer, the technical solutions in the embodiments will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. The following embodiments are used to illustrate the present invention.

[0021] Embodiment 1: like Figures 1 to 10 As shown, an SPI solder paste thickness detection machine for producing automobile taillight modules includes a detection unit 100, a feeding unit 200, a clamping unit 300 and a product to be inspected 400.

[0022] The detection unit 100 includes a thickness detection machine body 101, a detection chamber 1013 is arranged inside the thickness detection machine body 101, a sealing door 102 adapted to the detection chamber 1013 is installed at the entrance of the detection chamber 1013 through a hinge, a pair of guide plates 103 are installed on the inner wall of the detection chamber 1013, a pair of guide sliders 1033 are slidably arranged on each pair of guide plates 103, a synchronization plate 1034 is installed between the pair of guide sliders 1033, and a fixing plate 1035 is installed at the bottom of the synchronization plate 1034. A rocker arm 1036 is rotatably installed on the fixed plate 1035 and the surface of the sealing door 102, and the rocker arm 1036 is in an inclined state; during the rotation of the sealing door 102, the sealing door 102 drives the fixed plate 1035 to move through the rocker arm 1036, and the fixed plate 1035 can drive the two guide sliders 1033 to slide through the synchronization plate 1034, and then can push the connected feeding unit 200 and clamping unit 300 to slide, at this time, the inspected product 400 can be sent into the detection cavity 1013.

[0023] The feeding unit 200 includes two sets of swing arms 201, which are rotatably connected to the corresponding guide sliders 1033, and the two sets of swing arms 201 are overlapped with the inspection products 400, and the two sets of swing arms 201 are installed with a seesaw 202 at the rotation center of the two sets of swing arms 201, and a connecting rod 2031 is vertically slidably arranged on the seesaw 202, and a bearing plate 204 is installed at the bottom of the connecting rod 2031, and a pressure plate 205 is installed on the bearing plate 204, and the bottom of the pressure plate 205 is installed with the bottom of the detection chamber 1013. The guide rail 2052 is slidably connected, and a slope 2053 is provided on the guide rail 2052; when the pressure plate slides on the guide rail 2052, the pressure plate 205 as a whole moves downward through the guiding effect of the slope 2053, and the pressure plate 205 drives the supporting plate 204 to have a downward movement trend. At this time, the connecting rod 2031 slides downward, and finally drives the seesaw 202 and the swing arm 201 to rotate, thereby achieving the purpose of flipping and lifting the product 400 for inspection, making it convenient to take the product 400 for inspection.

[0024] The clamping unit 300 includes two pairs of L-shaped brackets 301, each pair of L-shaped brackets 301 is connected to the corresponding fixed plate 1035, a limited slider 302 is slidably installed on the L-shaped bracket 301, a force storage cover 304 is rotatably installed on the limited slider 302, a force storage rod 3041 is inserted inside the force storage cover 304, a force storage spring 3043 is installed between the force storage rod 3041 and the force storage cover 304, a clamping block 305 is rotatably installed at the end of the force storage rod 3041, the clamping block 305 is horizontally slidably connected to the fixed block 3052 fixedly installed on the top of the L-shaped bracket 301, the force storage cover 304 is in an inclined state, a plug rod 3022 is installed on the side wall of the limited slider 302, the plug rod 3022 movably passes through the fixed plate 1035, a slide rod 3023 is installed at the end of the plug rod 3022, and the slide rod 3023 is slidably arranged in the detection cavity In the combination groove 303 opened at the bottom of 1013, the combination groove 303 includes a feed groove 3031 and a clamping groove 3032. The feed groove 3031 and the clamping groove 3032 are connected to each other. The feed groove 3031 is a linear operation, and the clamping groove 3032 is an inclined groove. When the slide bar 3023 slides from the feed groove 3031 to the clamping groove 3032, the slide bar 3023 drives the insertion rod 3022 to move, and the insertion rod 3022 drives the limit slider 302 to slide to the side of the L-shaped bracket 301. When the connection point between the limit slider 302 and the force storage cover 304 moves to the other side of the connection point between the force storage rod 3041 and the clamping block 305, the force storage spring 3043 can push the force storage rod 3041 to slide, and the force storage rod 3041 will drive the clamping block 305 connected to the end to slide, thereby achieving the purpose of clamping.

[0025] like Figures 1 to 10As shown, in a specific embodiment, four supporting legs 1011 are installed at the bottom corners of the thickness detector body 101, and the supporting legs 1011 are used to improve stability. The bottoms of the four supporting legs 1011 are all installed with anti-skid pads 1012. A rotating shaft 1022 is rotatably installed on the side wall of the thickness detector body 101, and a locking plate 1021 is installed on the rotating shaft 1022. A handle 1023 is installed on the upper surface of the sealing door 102, and an anti-skid sleeve is sleeved on the handle 1023. An observation window 1024 is embedded in the sealing door 102. The sealing door 102 can be driven to rotate around the rotation center by the handle 1023, so that the sealing door 102 as a whole blocks the entrance of the detection chamber 1013. When the sealing is completed, the operator rotates the locking plate 1021 so that the locking plate 1021 covers the sealing door 102, and the sealing door 102 is locked as a whole. The observation window 1024 is convenient for observing the internal situation.

[0026] like Figures 1 to 10 As shown, further, columns 1031 are installed at both ends of the guide plate 103, the bottom of the column 1031 is welded and set at the bottom of the detection cavity 1013, a guide slot 1032 is opened on the guide plate 103, the guide slider 1033 is installed on the guide slot 1032, and a stopper 104 is installed on the guide plate 103. The stopper 104 positions the position of the product 400 to be inspected that is moved into the detection cavity 1013.

[0027] Embodiment 2: The difference between Example 1 and this Example is that: Figures 1 to 10 As shown, a synchronous shaft 2011 is installed at the bottom of the swing arm 201, and both ends of the synchronous shaft 2011 are rotatably connected to the corresponding guide slider 1033, a clamping plate 2012 is installed on the synchronous shaft 2011, and a torsion spring 2013 is sleeved on the side wall of the synchronous shaft 2011, one end of the torsion spring 2013 is clamped on the side wall of the clamping plate 2012, and the other end is clamped on the side wall of the guide slider 1033. The synchronous shaft 2011 is connected to the rotation center of the rocker 202, and the rocker 202 is provided with a strip groove 2021, and a protrusion 203 is slidably provided on the strip groove 2021, and the protrusion 203 is connected to the side wall of the connecting rod 2031. When the carrying plate 204 and the pressure plate 205 move downward, the protrusion 203 connected to the connecting rod 2031 slides downward synchronously. At this time, the protrusion 203 can rotate on the seesaw 202 with a strip groove 2021, and the seesaw 202 synchronously drives the synchronization shaft 2011 to rotate. Finally, the synchronization shaft 2011 can drive the guide slider 1033 to rotate, and the torsion spring 2013 connected to the surface is twisted synchronously. The torsion spring 2013 is used to facilitate the subsequent resetting operation. When the synchronization shaft 2011 rotates, the synchronization shaft 2011 drives the swing arm 201 to rotate toward the inside of the detection cavity 1013, so that the inspected product 400 can enter the detection cavity 1013.

[0028] like Figures 1 to 10 As shown, in a specific embodiment, a mounting ear 2041 is provided on the side wall of the bearing plate 204, a positioning rod 2042 is movably installed inside the mounting ear 2041, the top of the positioning rod 2042 is connected to the bottom of the guide slider 1033, a positioning plate 2044 is installed at the bottom of the positioning rod 2042, a positioning spring 2043 is sleeved on the positioning rod 2042, and the positioning spring 2043 is respectively clamped on the side wall of the guide slider 1033 and the side wall of the mounting ear 2041. A guide wheel 2051 is rotatably installed at the bottom of the pressure plate 205, and the guide wheel 2051 is rollingly connected to the guide rail 2052. A blocking block 2054 is installed at the end of the guide rail 2052, and the blocking block 2054 has a blocking effect. The height of the blocking block 2054 is higher than the height of the guide rail 2052. In addition, the positioning spring 2043 on the positioning rod 2042 is in a compressed state, so that the positioning spring 2043 pushes the mounting ear 2041 and the supporting plate 204 to always have a downward movement trend, ensuring that the guide wheel 2051 on the pressure plate 205 is always in contact with the guide rail 2052.

[0029] Embodiment 3: The difference between Example 2 and this example is that: Figures 1 to 10 As shown, a guide rod 3011 is installed inside the L-shaped bracket 301, and fixed seats 3012 are installed at both ends of the guide rod 3011. The L-shaped bracket 301 can slide on the guide rod 3011, and finally achieve the purpose of guidance. The fixed seat 3012 is welded to the side wall of the detection cavity 1013, and a limiting slide rail 3021 is installed on the L-shaped bracket 301, and the limiting slide rail 3021 is slidably connected with the limiting slider 302, and the limiting slide rail 3021 limits the movement of the limiting slider 302.

[0030] like Figures 1 to 10 As shown, in a specific embodiment, a force storage plate 3042 is slidably arranged inside the force storage cover 304, one end of the force storage plate 3042 is connected to the force storage rod 3041, and a force storage spring 3043 is installed between the other end of the force storage plate 3042 and the force storage cover 304, and the compression direction of the force storage spring 3043 and the moving direction of the force storage rod 3041 are both on the same straight line.

[0031] like Figures 1 to 10As shown, further, a limiting sleeve 3053 is installed on the side wall of the fixed block 3052, and a limiting plate 3054 is movably inserted inside the limiting sleeve 3053. A limiting rod 3055 is installed on the limiting plate 3054. The limiting rod 3055 movably penetrates the fixed block 3052, and the end of the limiting rod 3055 is connected to the side wall of the clamping block 305, and a clamping plate 3051 is installed on the side wall of the clamping block 305. When the clamping block 305 slides, the clamping block 305 pulls the limiting rod 3055 to slide on the fixed block 3052, and the limiting plate 3054 at the end of the limiting rod 3055 slides on the limiting sleeve 3053, which plays a guiding purpose and ensures that the clamping block 305 can only slide horizontally.

[0032] The implementation principle of the SPI solder paste thickness detector for producing automobile taillight modules of the present invention is as follows: the operator first places the product 400 coated with solder paste on the upper surface of the swing arm 201, and finally forms Figure 2 Then the operator needs to close the sealing door 102, and use the handle 1023 to drive the sealing door 102 to rotate around the rotation center, so that the sealing door 102 as a whole blocks the entrance of the detection chamber 1013. When the sealing is completed, the operator rotates the locking plate 1021 so that the locking plate 1021 covers the sealing door 102, and the sealing door 102 is locked as a whole.

[0033] During the rotation of the sealing door 102, the sealing door 102 drives the fixed plate 1035 to move through the rocker arm 1036. The fixed plate 1035 can drive the two guide sliders 1033 to slide along the guide groove 1032 through the synchronization plate 1034, thereby pushing the connected feeding unit 200 and the clamping unit 300 to slide.

[0034] When the feeding unit 200 moves, the pressing plate 205 inside the feeding unit 200 can drive the guide wheel 2051 to slide on the guide rail 2052. Through the guiding effect of the slope 2053, the pressing plate 205 moves downward as a whole, and the pressing plate 205 drives the bearing plate 204 to move downward. In addition, the positioning spring 2043 on the positioning rod 2042 is in a compressed state, and then the positioning spring 2043 pushes the mounting ear 2041 and the bearing plate 204 to always move downward, ensuring that the guide wheel 2051 on the pressing plate 205 is always attached to the guide rail 2052.

[0035] Therefore, when the carrier plate 204 and the pressure plate 205 move downward, the protrusion 203 connected to the connecting rod 2031 slides downward synchronously, and the protrusion 203 can rotate on the seesaw 202 with the strip groove 2021, and the seesaw 202 drives the synchronous shaft 2011 to rotate synchronously, and finally the synchronous shaft 2011 can drive the guide slider 1033 to rotate, and the torsion spring 2013 connected to the surface is twisted synchronously, and the torsion spring 2013 is used to facilitate the later reset operation. When the synchronous shaft 2011 rotates, the synchronous shaft 2011 drives the swing arm 201 to rotate inside the detection cavity 1013, so that the product 400 to be inspected can enter the detection cavity 1013. In the initial stage, the end of the swing arm 201 is located outside the detection cavity 1013, so it is very convenient to place and take the product 400 to be inspected at this stage, which is convenient for the operator to use the thickness detection machine body 101.

[0036] During the sliding process of the clamping unit 300, in the initial state of the clamping unit 300, the sliding bar 3023 slides along the feed groove 3031 on the combination groove 303, and the clamping unit 300 is not in a clamped and locked state. As the clamping unit 300 continues to move, the sliding bar 3023 on the clamping unit 300 will eventually slide into the clamping groove 3032. Through the guiding effect of the clamping groove 3032, the sliding bar 3023 slides to both sides at this time, and the sliding bar 3023 drives the surface insertion rod 3022 to slide synchronously. The insertion rod 3022 can drive the end limit slider 302 to slide along the limit slide rail 3021 toward the side of the L-shaped bracket 301.

[0037] When the limit slider 302 slides, the connection point between the limit slider 302 and the force storage cover 304 moves, and in this process, the clamping block 305 at the end of the force storage rod 3041 is stationary, but the force storage cover 304 slides outside the force storage rod 3041 to compress the force storage spring 3043 on the internal force storage plate 3042. When the connection point between the limit slider 302 and the force storage cover 304 moves to the other side of the connection point between the force storage rod 3041 and the clamping block 305, the force storage spring 3043 can push the force storage rod 3041 to slide, and the force storage rod 3041 will drive the clamping block 305 connected to the end to slide, and the clamping block 305 will drive the clamping plate 3051 to move away from the fixed block 3052, and finally the clamping plate 3051 can clamp and guide the product 400 to be inspected, which is convenient for later inspection.

[0038] When the clamping block 305 slides, the clamping block 305 pulls the limiting rod 3055 to slide on the fixing block 3052, and the limiting plate 3054 at the end of the limiting rod 3055 slides on the limiting sleeve 3053, which serves the purpose of guiding and ensuring that the clamping block 305 can only slide horizontally.

[0039] After the above operations are completed, the operator starts the thickness detector body 101 to detect the thickness of the SPI solder paste on the inspected product 400. The thickness detector body 101 is a prior art and its working principle will not be described in detail here.

Claims

1. An SPI solder paste thickness detection machine for producing automobile taillight modules, comprising a detection unit (100), a feeding unit (200) and a clamping unit (300), characterized in that: The detection unit (100) comprises a thickness detection machine body (101), wherein a detection chamber (1013) is arranged inside the thickness detection machine body (101), a sealing door (102) adapted to the detection chamber (1013) is installed at the entrance of the detection chamber (1013) via a hinge, a pair of guide plates (103) are installed on the inner wall of the detection chamber (1013), a pair of guide sliders (1033) are slidably arranged on each pair of the guide plates (103), a synchronization plate (1034) is installed between the pair of guide sliders (1033), a fixed plate (1035) is installed at the bottom of the synchronization plate (1034), a rocker arm (1036) is rotatably installed on the surface of the fixed plate (1035) and the sealing door (102), and the rocker arm (1036) is in an inclined state; The feeding unit (200) comprises two groups of swing arms (201), the two groups of swing arms (201) are rotatably connected to corresponding guide sliders (1033), and the two groups of swing arms (201) are overlapped with the inspection products (400), a seesaw (202) is installed at the rotation center of the two groups of swing arms (201), a connecting rod (2031) is vertically slidably arranged on the seesaw (202), a bearing plate (204) is installed at the bottom of the connecting rod (2031), a pressing plate (205) is installed on the bearing plate (204), the bottom of the pressing plate (205) is slidably connected to a guide rail (2052) installed at the bottom of the detection chamber (1013), and a slope (2053) is provided on the guide rail (2052); The clamping unit (300) comprises two pairs of L-shaped brackets (301), each pair of the L-shaped brackets (301) is interconnected with a corresponding fixed plate (1035), a limit slider (302) is slidably mounted on the L-shaped bracket (301), a force storage cover (304) is rotatably mounted on the limit slider (302), a force storage rod (3041) is inserted and arranged inside the force storage cover (304), a force storage spring (3043) is installed between the force storage rod (3041) and the force storage cover (304), a clamping block (305) is rotatably mounted on the end of the force storage rod (3041), and the clamping block (305) is fixedly mounted on the top of the L-shaped bracket (301). 052) is horizontally slidably connected, the force storage cover (304) is in an inclined state, the side wall of the limit slider (302) is installed with an insertion rod (3022), the insertion rod (3022) movably penetrates the fixed plate (1035), and a sliding rod (3023) is installed at the end of the insertion rod (3022), and the sliding rod (3023) is slidably set in a combination groove (303) opened at the bottom of the detection cavity (1013), and the combination groove (303) includes a feed groove (3031) and a clamping groove (3032), and the feed groove (3031) and the clamping groove (3032) are connected to each other, the feed groove (3031) is a linear operation, and the clamping groove (3032) is an inclined groove.

2. The SPI solder paste thickness detection machine for producing automobile taillight modules according to claim 1, characterized in that: Four supporting legs (1011) are installed at the bottom corners of the thickness detection machine body (101), and anti-skid pads (1012) are installed at the bottom of the four supporting legs (1011). A rotating shaft (1022) is rotatably installed on the side wall of the thickness detection machine body (101), and a locking plate (1021) is installed on the rotating shaft (1022). A handle (1023) is installed on the upper surface of the sealing door (102), and an anti-skid sleeve is sleeved on the handle (1023). An observation window (1024) is embedded in the sealing door (102).

3. The SPI solder paste thickness detection machine for producing automobile taillight modules according to claim 1, characterized in that: The guide plate (103) is provided with columns (1031) at both ends, the bottom of the column (1031) is welded to the bottom of the detection cavity (1013), the guide plate (103) is provided with a guide groove (1032), the guide slider (1033) is installed on the guide groove (1032), and the guide plate (103) is provided with a stopper (104).

4. The SPI solder paste thickness detection machine for producing automobile taillight modules according to claim 1, characterized in that: A synchronous shaft (2011) is installed at the bottom of the swing arm (201), and both ends of the synchronous shaft (2011) are rotatably connected to corresponding guide sliders (1033), a clamping plate (2012) is installed on the synchronous shaft (2011), and a torsion spring (2013) is sleeved on the side wall of the synchronous shaft (2011), and one end of the torsion spring (2013) is clamped on the side wall of the clamping plate (2012), and the other end is clamped on the side wall of the guide slider (1033).

5. The SPI solder paste thickness detection machine for producing automobile taillight modules according to claim 4, characterized in that: The synchronization shaft (211) and the rotation center of the seesaw (202) are interconnected, the seesaw (202) is provided with a strip groove (2021), a protrusion (203) is slidably provided on the strip groove (2021), and the protrusion (203) and the side wall of the connecting rod (2031) are interconnected.

6. The SPI solder paste thickness detection machine for producing automobile taillight modules according to claim 1, characterized in that: The side wall of the bearing plate (204) is provided with a mounting ear (2041), a positioning rod (2042) is movably installed inside the mounting ear (2041), the top of the positioning rod (2042) is connected to the bottom of the guide slider (1033), a positioning plate (2044) is installed at the bottom of the positioning rod (2042), a positioning spring (2043) is sleeved on the positioning rod (2042), and the positioning spring (2043) is respectively clamped on the side wall of the guide slider (1033) and the side wall of the mounting ear (2041).

7. The SPI solder paste thickness detection machine for producing automobile taillight modules according to claim 1, characterized in that: A guide wheel (2051) is rotatably mounted at the bottom of the pressing plate (205), the guide wheel (2051) is rollingly connected to the guide rail (2052), a blocking block (2054) is mounted at the end of the guide rail (2052), and the height of the blocking block (2054) is higher than the height of the guide rail (2052).

8. The SPI solder paste thickness detection machine for producing automobile taillight modules according to claim 1, characterized in that: A guide rod (3011) is movably installed inside the L-shaped bracket (301), and fixing seats (3012) are installed at both ends of the guide rod (3011). The fixing seats (3012) are welded to the side wall of the detection cavity (1013). A limit slide rail (3021) is installed on the L-shaped bracket (301), and the limit slide rail (3021) is slidably connected to the limit slider (302).

9. The SPI solder paste thickness detection machine for producing automobile taillight modules according to claim 1, characterized in that: A force storage plate (3042) is slidably arranged inside the force storage cover (304); one end of the force storage plate (3042) and the force storage rod (3041) are connected to each other; a force storage spring (3043) is installed between the other end of the force storage plate (3042) and the force storage cover (304); the compression direction of the force storage spring (3043) and the moving direction of the force storage rod (3041) are both on the same straight line.

10. The SPI solder paste thickness detection machine for producing automobile taillight modules according to claim 1, characterized in that: A limiting sleeve (3053) is installed on the side wall of the fixed block (3052); a limiting plate (3054) is movably inserted inside the limiting sleeve (3053); a limiting rod (3055) is installed on the limiting plate (3054); the limiting rod (3055) movably passes through the fixed block (3052); the end of the limiting rod (3055) is connected to the side wall of the clamping block (305); and a clamping plate (3051) is installed on the side wall of the clamping block (305).

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