CN118455952A - A high-precision LED light strip automatic assembly equipment - Google Patents

Abstract

The invention relates to the technical field of automatic assembly of LED lamp strips, in particular to high-precision automatic assembly equipment of an LED lamp strip, which comprises a transmission guide structure, a first assembly structure, a limiting turnover structure and a second assembly structure, wherein the transmission guide structure can be used for transmitting a butt joint shell block, so that the butt joint shell block is guided to the first assembly structure, the first assembly structure is used for transmitting an LED module and can bond the LED module on the butt joint shell block, the first assembly structure is simultaneously communicated with the limiting turnover structure, the limiting turnover structure can turnover and transmit the butt joint shell block and the LED module, the back surface of the butt joint shell block is turned upwards, the second assembly structure can clamp a PCB (printed circuit board) on the butt joint shell block, the transmission guide structure, the first assembly structure and the limiting turnover structure are integrally communicated, and the second assembly structure adopts a single channel for control. Through the setting of automatic equipment, conveniently carry out automatic LED lamp area and take the installation work.

Description

A high-precision LED light strip automatic assembly equipment

Technical Field

The invention relates to the technical field of automatic assembly of LED light strips, in particular to high-precision automatic assembly equipment for LED light strips.

Background Art

LED light strip automatic assembly equipment can connect and combine LED light strips with PCB boards, thereby helping automated production and reducing manual intervention, thereby improving production efficiency while producing with high precision;

According to Chinese patent publication number CN110449782A, an automatic assembly device for LED lamps includes: an LED light source component feeding device, a lamp cup feeding device, a PCB board feeding device, an assembly positioning conveying device, a welding fixing device and an LED light source position correction device, wherein the LED light source component feeding device is used to feed the LED light source component, the lamp cup feeding device is used to feed the lamp cup, the PCB board feeding device is used to feed the PCB board, the assembly positioning conveying device is used to assemble and position the LED lamp, the welding fixing device is used to weld and fix the PCB board, and the LED light source position correction device is used to correct the position of the LED lamp;

The above-mentioned scheme and the existing automatic assembly equipment of LED light strips mostly adopt welding to connect the PCB board and the LED lamp when in use. Through improvement, the PCB board and the LED lamp can be combined by plugging. At the same time, the automatic assembly equipment for production also needs to be improved, so that the PCB board and the LED lamp can be quickly adapted and fixed, which is convenient for efficient assembly. Since the PCB board and the LED lamp are on two sides, they need to be turned over during assembly, so that the PCB board and the LED lamp can be integrated and combined, which improves the production accuracy and can be automatically controlled.

Summary of the invention

In view of the problems in the prior art, the present invention provides a high-precision LED light strip automatic assembly device.

The technical solution adopted by the present invention to solve the technical problem is: a high-precision LED light strip automatic assembly device, comprising a first shell, a second shell and a lamp body structure, wherein a clamping limit setting is provided between the first shell and the second shell, and a lamp body structure is provided between the first shell and the second shell, and the lamp body structure can be used for power connection, and at the same time, the lamp body structure performs the lighting work at the bottom, and the second shell can perform light transmission processing;

The lamp body structure comprises a PCB board and a docking shell block, wherein the upper limit position of the docking shell block is clamped with the PCB board, and a first docking plug is connected to the PCB board, the docking shell block is docked with the first docking plug, and the connection between the docking shell block and the first docking plug is docked and matched through a docking control seat, and the docking control seat can be docked with the second docking plug again, so that the PCB board and the LED module are docked and combined, and power-on control can be performed, and the LED module is bonded and fixed to the docking shell block. Through the structural setting of the docking control seat and the docking shell block, it is convenient to dock and install the PCB board and the LED module, wherein the docking control seat is buckled with the first docking plug, and the lower end of the docking control seat is buckled with the second docking plug to achieve the purpose of transit connection, and a rapid docking process is performed without welding means, and at the same time, the docking shell block is clamped and matched with the PCB board, and the lower end of the docking shell block is bonded and fixed to the supporting and matching seat, which is convenient for rapid assembly processing, and at the same time, an LED light strip is provided on the supporting and matching seat, and the LED light strip is distributed in a ring shape, and can perform surround lighting work.

A high-precision LED light strip automatic assembly device comprises a transmission guide structure, a first assembly structure, a limit flip structure and a second assembly structure, wherein the transmission guide structure can be used for the transmission of a docking shell block, so that the docking shell block is guided to the first assembly structure, the first assembly structure is used for the transmission of an LED module, and the LED module can be bonded to the docking shell block, the first assembly structure is simultaneously connected to the limit flip structure, the limit flip structure can flip the docking shell block and the LED module for transmission, so that the back side of the docking shell block is flipped upward, the second assembly structure can clamp a PCB board to the docking shell block, and the transmission guide structure, the first assembly structure and the limit flip structure are connected as a whole, and the second assembly structure is controlled by a separate channel.

Specifically, the transmission guide structure includes a first power seat and a first transmission belt, the first power seat is driven to be provided with a first transmission belt, a first hydraulic telescope is fixedly provided on one side of the first power seat, the first hydraulic telescope controls the telescopic adjustment of the first propulsion rod, and the first power seat is also provided with a loading component near the position of the first hydraulic telescope, the loading component is fixed to the first power seat, the first hydraulic telescope can push out the docking shell block on the loading component, and a first infrared detector is provided on one side of the loading component, which can sense the docking shell block, so as to facilitate the control of the first power seat and the first transmission belt to drive the work;

A mounting frame is fixedly connected to the side of the first power seat facing away from the first hydraulic retractor, and a correction component is connected to the upper limit of the mounting frame. The correction component is used to support the docking shell block and can drive the docking shell block to be lifted and rotated, and can perform position calibration. A second hydraulic retractor is fixedly installed on one side of the mounting frame. The second hydraulic retractor controls the telescopic adjustment of a pressing roller through a second push rod, and the pressing roller can press the docking shell block and the LED module to fit together.

Specifically, the loading component includes a storage rack, a supporting platform, a first hydraulic lifting cylinder, a telescopic adjustment connecting plate and a sealing plate. The storage rack is fixedly connected to the supporting platform, and a first hydraulic lifting cylinder is installed in the middle of the supporting platform. The first hydraulic lifting cylinder controls the lifting and lowering adjustment of the sealing plate through the telescopic adjustment connecting plate, and the sealing plate is blocked at the central lower end of the storage rack. The sealing plate can only adjust the height of one docking shell block through the first hydraulic lifting cylinder and the telescopic adjustment connecting plate.

Specifically, the correction component includes a partition, a second hydraulic lifting cylinder is fixedly installed at the center of the partition, the second hydraulic lifting cylinder can adjust the position of the first gear disc through a bearing disc frame, and the side end of the bearing disc frame is fixedly connected to a mounting side frame, a motor is installed on the mounting side frame, and the motor drives the second gear disc to rotate, the second gear disc is meshed with the first gear disc, and the upper end of the first gear disc is fixed to the moving plate, and a third hydraulic telescope is installed on the upper end of the moving plate, and the third hydraulic telescope controls the telescopic adjustment of the telescopic guide shaft, and a support plate is fixed on the partition, and the telescopic guide shaft is controlled by the third hydraulic telescope, so that the telescopic guide shaft can be adapted and engaged with the groove body at the bottom of the docking shell block, thereby limiting the docking shell block and facilitating the adjustment of the docking shell block position, and at the same time, a position sensing device for docking control seat is also provided on the support plate. The sensor facilitates the transmission of the docking shell block through the structural setting of the transmission guide structure. The storage rack in the transmission guide structure is used to support the docking shell block. At the same time, the first hydraulic lifting cylinder controls the telescopic adjustment of the connecting plate and the sealing plate, so that the docking shell block can fall individually, and cooperate with the advancement of the first hydraulic telescope and the first propulsion rod to reach the first conveyor belt, be transmitted on the first conveyor belt, and then reach the correction component. At this time, the third hydraulic telescope on the correction component controls the telescopic guide shaft to extend and retract, so that the lower end of the docking shell block can contact and limit the telescopic guide shaft, and then the motor can drive the first gear disk to rotate, so that the third hydraulic telescope, the telescopic guide shaft, and the moving plate can rotate as a whole, which is convenient for positioning the docking shell block. At the same time, a sensor for the docking control seat in the docking shell block is provided on the support plate to facilitate positioning.

Specifically, the first assembly structure includes a transmission channel and a propulsion base, a propulsion base is fixedly provided at the lower end of the transmission channel, the propulsion base can drive the block to extend and retract, so that the LED module can slide and adjust on the transmission channel, and a third hydraulic lifting cylinder is fixedly connected to the transmission channel, and the lower end of the third hydraulic lifting cylinder is telescopically connected to the first electric suction cup, the front end of the center of the transmission channel is butt-jointed with a first bottom plate and a second bottom plate, a first plate frame is fixedly provided at the side end of the transmission channel, and a first electrically-controlled hydraulic telescopic shaft is installed on the first plate frame, the first electrically-controlled hydraulic telescopic shaft controls the telescopic adjustment of the first bottom plate, a second bottom plate is fixedly connected on the other side of the transmission channel, and a second electrically-controlled hydraulic telescopic shaft is installed on the second bottom plate, the second electrically-controlled hydraulic telescopic shaft controls the telescopic adjustment of the second bottom plate, a gluing component is fixedly connected at the lower end of the center of the transmission channel, and a support block is fixedly connected to the side end of the gluing component.

Specifically, the gluing component includes a first supporting frame, a third electrically-controlled hydraulic telescopic shaft is installed on the first supporting frame, and the side end of the first supporting frame is fixedly connected to the second supporting frame, the third electrically-controlled hydraulic telescopic shaft can change the position of the displacement adjustment frame, the displacement adjustment frame is limited and telescopic on the first supporting frame and the second supporting frame, a heating seat is hingedly provided on the displacement adjustment frame through a hinge connecting shaft, one end of the heating seat is connected with the glue guide port, and the other end of the heating seat is connected with the glue brush roller through a connecting guide pipe, and the heating seat is hingedly provided with a fourth electrically-controlled hydraulic telescopic shaft at one end close to the connecting guide pipe, and the lower end of the fourth electrically-controlled hydraulic telescopic shaft is hingedly arranged with a matching plate, and the matching plate is fixed to the displacement adjustment frame, the second hydraulic lifting cylinder can control the first gear disc, the bearing disc frame, the mounting side frame, the second gear disc, the motor, the third hydraulic telescope, the telescopic guide shaft, and the moving plate to perform lifting and lowering control as a whole, so as to cooperate with the limiting roller for flipping and regulation, and at the same time, the propulsion base at the lower end of the transmission channel can be extended and pressed to push the second docking on the LED module The plug makes the LED module slide on the transmission channel and then reach the first base plate and the second base plate. At this time, the third hydraulic lifting cylinder controls the first electric suction cup to descend, thereby performing adsorption limiting. At this time, the second electrically-controlled hydraulic telescopic shaft controls the second base plate to shrink, and the first electrically-controlled hydraulic telescopic shaft controls the first base plate to shrink. At this time, the third hydraulic lifting cylinder controls the first electric suction cup to descend, thereby fitting the docking shell block and the LED module together. Before fitting, the glue guide port, the heating seat, the connecting guide tube, and the glue brush roller can be used for glue brushing. At the same time, the positions of the connecting guide tube and the glue brush roller can also be adjusted by the third electrically-controlled hydraulic telescopic shaft. The third electrically-controlled hydraulic telescopic shaft changes the position of the matching plate, the hinged connecting shaft, the displacement adjustment frame, and the upper end structure by extension and retraction. At the same time, the fourth electrically-controlled hydraulic telescopic shaft can be extended and regulated, thereby performing flipping adjustment of the heating seat, the connecting guide tube, and the glue brush roller, so as to facilitate the angle adjustment of the glue brush roller, the connecting guide tube, the heating seat, and the glue guide port through the hinged connecting shaft to prevent interference with subsequent fitting and avoid movement obstruction.

Specifically, the limit flipping structure includes a second power seat and a second transmission belt, the second power seat is driven and connected to the second transmission belt, and a second infrared detector is installed in the middle position of the second power seat, a stepper motor is fixedly installed at the front end of the second power seat, the stepper motor controls the rotation adjustment of the rotating shaft, a support block plate is fixedly connected to the rotating shaft, and a fifth electro-hydraulic telescopic shaft is installed on the support block plate, and the fifth electro-hydraulic telescopic shaft can control the telescopic adjustment of the limit roller, so that the docking shell block and the LED module can be clamped and flipped through the limit roller.

Specifically, the second assembly structure includes a third transmission belt and a third power seat, the third power seat is drivingly connected to the third transmission belt, and the front end of the third power seat is fixed to the supporting rod, the upper end of the supporting rod is fixed with an electric motor, the motor controls the flip adjustment of the supporting bracket through the flip adjustment shaft, the upper limit of the motor is installed with a fourth hydraulic lifting cylinder, and the lower end of the fourth hydraulic lifting cylinder is telescopically connected to the second electric suction cup.

Specifically, the motor controls the flipping adjustment of the support base frame through the flipping adjustment shaft, and the support base frame can carry the PCB board, and at the same time, the fourth hydraulic lifting cylinder controls the second electric suction cup to descend so that it can be adsorbed and connected with the PCB board, and then the support base frame changes the height of the PCB board through extension and retraction, so that the PCB board is limitedly connected to the docking shell block, and the support block is fixed to the first support frame to connect the bottom of the gluing component, and the glue guide port is connected to the external glue guide tube. The separation of the first bottom plate and the second bottom plate can provide space for the LED module to be lowered and installed, and the limiting rollers in the limiting flipping structure can clamp the docking shell block and the LED module through the structural setting of the limiting flipping structure, and the position of the limiting rollers is controlled by the extension and retraction of the support block plate, and the position between the two limiting rollers is controlled by the extension and retraction of the support block plate. The docking shell block and the LED module are limited, and then the stepper motor can control the rotation of the rotating shaft to adjust the angle of the docking shell block and the LED module, so that the docking shell block and the LED module are turned over as a whole and reach the second conveyor belt, and then are processed on the second conveyor belt. At the same time, the PCB board is also slid and adjusted on the third conveyor belt. When it reaches the position of the support base frame, the fourth hydraulic lifting cylinder controls the second electric suction cup to descend and perform adsorption limiting. After that, the motor controls the support base frame to flip through the flip adjustment shaft, removes the detailed limit of the PCB board, and at the same time, the fourth hydraulic lifting cylinder continues to descend, and the PCB board is pressed and buckled with the back of the docking shell block. At the same time, the docking control seat, the second docking plug, and the first docking plug can be reinforced and pressed through the external mechanical arm to help the overall production work.

Beneficial effects of the present invention:

First, the present invention facilitates the transmission of docking shell blocks through the structural setting of the transmission guide structure. The storage rack in the transmission guide structure is used to support the docking shell blocks. At the same time, the first hydraulic lifting cylinder controls the telescopic adjustment of the connecting plate and the blocking plate, so that the docking shell blocks can fall individually, and cooperate with the advancement of the first hydraulic telescopic device and the first propulsion rod to reach the first conveyor belt, and be transmitted on the first conveyor belt, and then reach the correction component. At this time, the third hydraulic telescopic device on the correction component controls the telescopic guide shaft to extend and retract, so that the lower end of the docking shell block can contact the telescopic guide shaft to limit the position, and then the motor can drive the first gear plate to rotate, so that the third hydraulic telescopic device, the telescopic guide shaft, and the moving plate can rotate as a whole, which is convenient for positioning the docking shell block. At the same time, a sensor for the docking control seat in the docking shell block is provided on the support plate, which is convenient for positioning. At the same time, the second hydraulic lifting cylinder can control the first gear plate, the bearing disc frame, the mounting side frame, the second gear plate, the motor, the third hydraulic telescopic device, the telescopic guide shaft, and the moving plate to perform lifting and lowering control as a whole, which is convenient for cooperating with the limit roller for flipping regulation. At the same time, the push rod at the lower end of the transmission channel The base can be extended and retracted to press and push the second docking plug on the LED module, so that the LED module slides on the transmission channel and then reaches the first bottom plate and the second bottom plate. At this time, the third hydraulic lifting cylinder controls the first electric suction cup to descend, thereby performing adsorption limiting. At this time, the second electrically-controlled hydraulic telescopic shaft controls the second bottom plate to shrink, and the first electrically-controlled hydraulic telescopic shaft controls the first bottom plate to shrink. At this time, the third hydraulic lifting cylinder controls the first electric suction cup to descend, thereby fitting the docking shell block and the LED module together. Before fitting, the glue guide port and the heating seat can be used to connect the docking shell block and the LED module together. , connecting guide tube, and rubber brush roller for glue brushing work. At the same time, the positions of the connecting guide tube and the rubber brush roller can also be adjusted by the third electro-hydraulic telescopic shaft. The third electro-hydraulic telescopic shaft changes the position of the matching plate, the hinged connecting shaft, the displacement adjustment frame and the upper end structure through telescopic adjustment. At the same time, the fourth electro-hydraulic telescopic shaft can be telescopically regulated to perform flip adjustment of the heating seat, the connecting guide tube, and the rubber brush roller, so as to facilitate the angle adjustment of the rubber brush roller, the connecting guide tube, the heating seat, and the rubber guide port through the hinged connecting shaft to prevent interference with subsequent bonding and avoid movement obstruction.

Second, the present invention uses the structural setting of the limit flip structure. The limit rollers in the limit flip structure can clamp the docking shell block and the LED module. The position of the limit rollers is controlled by the extension and contraction of the support block plate. The docking shell block and the LED module are limited by the position between the two limit rollers. Then the stepper motor can control the rotation of the rotating shaft to adjust the angle of the docking shell block and the LED module, so that the docking shell block and the LED module are turned over as a whole and arrive on the second conveyor belt, and then are processed on the second conveyor belt. At the same time, the PCB board is also slid and adjusted on the third conveyor belt. When it reaches the position of the support base frame, the fourth hydraulic lifting cylinder controls the second electric suction cup to descend for adsorption and limiting. Then the motor controls the support base frame to flip through the flip adjustment shaft, removes the detailed limit of the PCB board, and at the same time the fourth hydraulic lifting cylinder continues to descend, presses and buckles the PCB board with the back side of the docking shell block, and at the same time, the docking control seat, the second docking plug and the first docking plug can be reinforced and pressed through the external mechanical arm to help the overall production work.

BRIEF DESCRIPTION OF THE DRAWINGS

The present invention is further described below in conjunction with the accompanying drawings and embodiments.

FIG1 is a schematic diagram of a three-dimensional structure of a main body of the present invention from a front perspective;

FIG2 is a schematic diagram of a three-dimensional structure of a lamp body structure from a front perspective in the present invention;

FIG3 is a disassembled diagram of the lamp body structure of the present invention;

FIG4 is a schematic diagram of the three-dimensional structure of the LED module from the bottom perspective of the present invention;

FIG5 is a schematic diagram of a three-dimensional structure of the main assembly device of the present invention from a front perspective;

FIG6 is a schematic diagram of a three-dimensional structure of a main body assembly device in the present invention from a side perspective;

FIG7 is a schematic diagram of the three-dimensional structure of the main assembly device of the present invention from a rear perspective;

FIG8 is a schematic diagram of a three-dimensional structure of a transmission guide structure in the present invention from a front perspective;

FIG9 is a schematic diagram of the three-dimensional structure of the feeding component in the present invention from a front perspective;

FIG10 is a disassembled diagram of the correction component in the present invention;

FIG11 is a schematic diagram of a three-dimensional structure from a front perspective of the first assembly structure of the present invention;

FIG12 is a schematic diagram of a three-dimensional structure from a rear perspective of the first assembly structure of the present invention;

FIG13 is a schematic diagram of the three-dimensional structure of the glue-applying component in the present invention from a front perspective;

FIG14 is a schematic diagram of a front-view stereoscopic structure of a position-limiting flip structure in the present invention;

FIG. 15 is a schematic diagram of the three-dimensional structure of the second assembly structure in the present invention from a front perspective.

In the figure: 1-first shell, 2-second shell, 3-lamp body structure, 4-PCB board, 5-docking shell block, 6-first docking plug, 7-docking control seat, 8-second docking plug, 9-LED module, 10-LED light strip, 11-supporting seat, 12-transmission guide structure, 13-first assembly structure, 14-limiting flip structure, 15-second assembly structure, 16-feeding component, 17-first hydraulic telescope, 18-first propulsion rod, 19-first infrared detector, 20-first power seat, 2 1-first conveyor belt, 22-mounting frame, 23-correction component, 24-second push rod, 25-pressing roller, 26-second hydraulic telescopic device, 27-storage frame, 28-supporting stand, 29-first hydraulic lifting cylinder, 30-telescopic adjustment connecting plate, 31-blocking plate, 32-third hydraulic telescopic device, 33-telescopic guide shaft, 34-moving plate, 35-support plate, 36-partition plate, 37-first gear plate, 38-bearing disc frame, 39-second hydraulic lifting cylinder, 40-mounting side frame, 41-second gear plate, 42 -motor, 43-transmission channel, 44-propelling base, 45-gluing component, 46-support block, 47-third hydraulic lifting cylinder, 48-first electric suction cup, 49-first plate frame, 50-first electric hydraulic telescopic shaft, 51-first bottom plate, 52-second bottom plate, 53-second electric hydraulic telescopic shaft, 54-second bottom plate, 55-heating seat, 56-connecting guide pipe, 57-brush rubber roller, 58-third electric hydraulic telescopic shaft, 59-first support frame, 60-second support frame, 61-fourth electric hydraulic Telescopic shaft, 62-matching plate, 63-hinge connecting shaft, 64-displacement adjustment frame, 65-glue guide port, 66-second infrared detector, 67-fifth electrically controlled hydraulic telescopic shaft, 68-support block plate, 69-limiting roller, 70-rotating shaft, 71-stepping motor, 72-second power seat, 73-second transmission belt, 74-fourth hydraulic lifting cylinder, 75-second electric suction cup, 76-motor, 77-flip adjustment shaft, 78-support base frame, 79-connecting rod, 80-third transmission belt, 81-third power seat.

DETAILED DESCRIPTION

The present invention is further described below in conjunction with the accompanying drawings.

Example 1

As shown in FIGS. 1-4 , a high-precision LED light strip of the present invention comprises a first shell 1, a second shell 2 and a lamp body structure 3. A clamping limiter is provided between the first shell 1 and the second shell 2, and a lamp body structure 3 is provided between the first shell 1 and the second shell 2. The lamp body structure 3 can be used for power connection, and the lamp body structure 3 performs lighting work at the bottom, and the second shell 2 can perform light transmission processing;

The lamp body structure 3 includes a PCB board 4 and a docking shell block 5. The PCB board 4 is clamped on the upper limit of the docking shell block 5, and a first docking plug 6 is connected to the PCB board 4. The docking shell block 5 is docked with the first docking plug 6, and the connection between the docking shell block 5 and the first docking plug 6 is docked through a docking control seat 7. The docking control seat 7 can be docked with the second docking plug 8 again, so that the PCB board 4 and the LED module 9 are docked and combined, and power-on control can be performed, and the LED module 9 is bonded and fixed to the docking shell block 5;

Among them, through the structural setting of the docking control seat 7 and the docking shell block 5, it is convenient to dock and install the PCB board 4 and the LED module 9, wherein the docking control seat 7 is buckled with the first docking plug 6, and the lower end of the docking control seat 7 is buckled with the second docking plug 8, so as to achieve the purpose of transit connection, and no welding means are required, and rapid docking processing is performed. At the same time, the docking shell block 5 is snap-fitted with the PCB board 4, and the lower end of the docking shell block 5 is bonded and fixed to the supporting and matching seat 11, so as to facilitate rapid assembly processing. At the same time, an LED light strip 10 is arranged on the supporting and matching seat 11, and the LED light strip 10 is distributed in a ring shape, which can perform surround lighting work, and the LED light strip can be used on a CT machine.

Example 2

As shown in Figures 5-15, a high-precision LED light strip automatic assembly device of the present invention includes a transmission guide structure 12, a first assembly structure 13, a limit flip structure 14 and a second assembly structure 15. The transmission guide structure 12 can be used for the transmission of the docking shell block 5, so that the docking shell block 5 is guided to the first assembly structure 13. The first assembly structure 13 is used for the transmission of the LED module 9 and can bond the LED module 9 to the docking shell block 5. The first assembly structure 13 is also connected to the limit flip structure 14. The limit flip structure 14 can flip the docking shell block 5 and the LED module 9 for transmission, so that the back side of the docking shell block 5 is flipped upward. The second assembly structure 15 can clamp the PCB board 4 on the docking shell block 5, and the transmission guide structure 12, the first assembly structure 13, and the limit flip structure 14 are connected as a whole, and the second assembly structure 15 is controlled by a separate channel.

The transmission guide structure 12 includes a first power seat 20 and a first transmission belt 21. The first power seat 20 is driven to be provided with the first transmission belt 21. A first hydraulic telescopic device 17 is fixedly provided on one side of the first power seat 20. The first hydraulic telescopic device 17 controls the telescopic adjustment of the first propulsion rod 18. A loading component 16 is also provided at the position of the first power seat 20 near the first hydraulic telescopic device 17. The loading component 16 is fixed to the first power seat 20. The first hydraulic telescopic device 17 can push out the docking shell block 5 on the loading component 16. A first infrared detector 19 is provided on one side of the loading component 16 to sense the docking shell block 5, so as to facilitate the control of the first power seat 20 and the first transmission belt 21 for driving work.

A mounting frame 22 is fixedly connected to the side of the first power seat 20 away from the first hydraulic telescope 17, and a correction component 23 is connected to the upper limit of the mounting frame 22. The correction component 23 is used to support the docking shell block 5, and can drive the docking shell block 5 to be lifted and rotated, and can perform position calibration. A second hydraulic telescope 26 is fixedly installed on one side of the mounting frame 22. The second hydraulic telescope 26 controls the telescopic adjustment of the pressing roller 25 through the second pushing rod 24. The pressing roller 25 can press and fit the docking shell block 5 and the LED module 9. The transmission guide structure 12 can control the transmission of the docking shell block 5. The loading component 16 in the transmission guide structure 12 is used for the storage of the docking shell block 5. The docking shell block 5 can be made to fall by adjusting the inside of the loading component 16. Then, the first hydraulic telescope 17 controls the telescopic adjustment of the first pushing rod 18, so that The docking shell block 5 is pushed out and reaches the first conveyor belt 21. At this time, the first power seat 20 can control the rotation of the first conveyor belt 21 to realize the transmission of the docking shell block 5. At the same time, the first infrared detector 19 can sense the docking shell block 5, thereby controlling the operation of the first power seat 20 and the first conveyor belt 21. The docking shell block 5 can reach the correction component 23 through the transmission of the first conveyor belt 21. The setting of the mounting frame 22 facilitates the support of the third electrically controlled hydraulic telescopic shaft 58. Thereafter, the docking shell block 5 can reach the correction component 23 and perform rotation correction on the correction component 23. At the same time, the height adjustment of the docking shell block 5 can be controlled by the correction component 23. The second hydraulic telescopic device 26 can control the pressing roller 25 to move laterally through the second propulsion rod 24, so that the docking shell block 5 and the LED module 9 can be pressed by the pressing roller 25 to improve the degree of fit.

The loading component 16 includes a storage rack 27, a support platform 28, a first hydraulic lifting cylinder 29, a telescopic adjustment connecting plate 30 and a blocking plate 31. The storage rack 27 is fixedly connected to the support platform 28, and a first hydraulic lifting cylinder 29 is installed in the middle of the support platform 28. The first hydraulic lifting cylinder 29 controls the lifting and lowering adjustment of the blocking plate 31 through the telescopic adjustment connecting plate 30, and the blocking plate 31 is blocked at the central lower end of the storage rack 27. The blocking plate 31 can only adjust the height of one docking shell block 5 through the first hydraulic lifting cylinder 29 and the telescopic adjustment connecting plate 30. The storage rack 27 can store the docking shell blocks 5, and the support platform 28 supports the storage rack 27. At the same time, the first hydraulic lifting cylinder 29 can change the position of the blocking plate 31 at the lower end of the storage rack 27 by controlling the extension and retraction of the telescopic adjustment connecting plate 30, thereby causing the docking shell block 5 to fall.

The correction component 23 includes a partition 36, a second hydraulic lifting cylinder 39 is fixedly installed at the center of the partition 36, and the second hydraulic lifting cylinder 39 can adjust the position of the first gear disc 37 through a bearing disc frame 38, and at the same time, a mounting side frame 40 is fixedly connected to the side end of the bearing disc frame 38, and a motor 42 is installed on the mounting side frame 40, and the motor 42 drives the second gear disc 41 to rotate, and the second gear disc 41 is meshed and connected with the first gear disc 37, and the upper end of the first gear disc 37 is fixed to the moving plate 34, and a third hydraulic telescope 32 is installed on the upper end of the moving plate 34, and the third hydraulic telescope 32 controls the telescopic adjustment of the telescopic guide shaft 33, and a support plate 35 is fixed on the partition 36, and the telescopic guide shaft 33 is controlled by the third hydraulic telescope 32, so that the telescopic guide shaft 33 can be adapted and connected with the groove body at the bottom of the docking shell block 5, so as to limit the docking shell block 5, which is convenient The position of the docking shell block 5 is adjusted. At the same time, the support plate 35 is also provided with a sensor for sensing the position of the docking control seat 7. The correction component 23 is supported by the partition plate 36 and the support plate 35. The second hydraulic lifting cylinder 39 performs bottom limiting, and through extension and retraction, the first gear plate 37, the bearing disc frame 38, the mounting side frame 40, the second gear plate 41, the motor 42 and the third hydraulic telescopic device 32, the telescopic guide shaft 33, and the moving plate 34 can be changed. The position is adjusted to adjust the height. At the same time, the motor 42 can control the rotation of the second gear plate 41 to drive the first gear plate 37, so that the third hydraulic telescopic device 32, the telescopic guide shaft 33, and the moving plate 34 can be driven to rotate through the first gear plate 37 to achieve the purpose of angle correction. The support plate 35 is provided with a sensor for sensing the docking control seat 7, so as to facilitate the fixed-point limiting work.

The first assembly structure 13 includes a transmission channel 43 and a propulsion base 44. The lower end of the transmission channel 43 is fixedly provided with a propulsion base 44. The propulsion base 44 can drive the block to extend and retract, so that the LED module 9 can slide and adjust on the transmission channel 43. A third hydraulic lifting cylinder 47 is fixedly connected to the transmission channel 43. The lower end of the third hydraulic lifting cylinder 47 is telescopically connected to a first electric suction cup 48. The front end of the center of the transmission channel 43 is connected to a first bottom plate 51 and a second bottom plate 52. A first plate frame 49 is fixedly provided at the side end of the transmission channel 43. A first electrically-controlled hydraulic telescopic shaft 50 is installed on the first plate frame 49. The first electrically-controlled hydraulic telescopic shaft 50 controls the telescopic adjustment of the first bottom plate 51. A second base plate 54 is fixedly connected to the other side of 43, and a second electrically-controlled hydraulic telescopic shaft 53 is installed on the second base plate 54. The second electrically-controlled hydraulic telescopic shaft 53 controls the telescopic adjustment of the second base plate 52. A gluing component 45 is fixedly connected to the central lower end of the transmission channel 43, and a support block 46 is fixedly connected to the side end of the gluing component 45. The first assembly structure 13 is arranged in combination through the transmission channel 43, the pushing base 44, the gluing component 45, and the support block 46. The LED module 9 can slide on the transmission channel 43, and at the same time, the pushing base 44 pushes the bottom of the LED module 9, so that the LED module 9 can slide and adjust on the transmission channel 43, and the support block 46 at the lower end facilitates the support of the gluing component 45.

The gluing component 45 includes a first support frame 59, on which a third electrically-controlled hydraulic telescopic shaft 58 is installed, and a second support frame 60 is fixedly connected to the side end of the first support frame 59, and the third electrically-controlled hydraulic telescopic shaft 58 can change the position of a displacement adjustment frame 64, and the displacement adjustment frame 64 is telescopically limited in the first support frame 59 and the second support frame 60, and a heating seat 55 is hingedly provided on the displacement adjustment frame 64 through a hinge shaft 63, and one end of the heating seat 55 is connected to the glue guide port 65, and the other end of the heating seat 55 is connected to the glue brush roller 57 through a connecting guide pipe 56, and a fourth electrically-controlled hydraulic telescopic shaft 61 is hingedly provided at one end of the heating seat 55 close to the connecting guide pipe 56, and the fourth electrically-controlled hydraulic telescopic shaft 61 The lower end is hinged to the matching plate 62, and the matching plate 62 is fixed to the displacement adjustment frame 64. The transmission channel 43 in the first assembly structure 13 is connected to the first base plate 51 and the second base plate 52. When the LED module 9 reaches the first base plate 51 and the second base plate 52, the third hydraulic lifting cylinder 47 at this time can control the first electric suction cup 48 to descend, so as to limit the LED module 9 through the first electric suction cup 48. After that, the first electric-controlled hydraulic telescopic shaft 50 and the second electric-controlled hydraulic telescopic shaft 53 work to open the first base plate 51 and the second base plate 52. At this time, the first electric suction cup 48 can control the LED module 9 to descend, so that the LED module 9 reaches the specified position and realizes the matching connection with the docking shell block 5.

The limit flip structure 14 includes a second power seat 72 and a second transmission belt 73, the second power seat 72 is driven and connected to the second transmission belt 73, and a second infrared detector 66 is installed in the middle of the second power seat 72, and a stepper motor 71 is fixedly installed at the front end of the second power seat 72, and the stepper motor 71 controls the rotation adjustment of the rotating shaft 70, and a support block plate 68 is fixedly connected to the rotating shaft 70, and a fifth electrically-controlled hydraulic telescopic shaft 67 is installed on the support block plate 68. The fifth electrically-controlled hydraulic telescopic shaft 67 can control the telescopic adjustment of the limit roller 69, so that the docking shell block 5 and the LED module 9 can be clamped and flipped by the limit roller 69. The gluing component 45 is used for the glue brushing process, and the glue liquid is transferred to the heating seat 55 through the glue guide port 65, and then transferred through the connecting guide tube 56 and the glue brushing roller 57. At the same time, the third electrically-controlled hydraulic telescopic shaft 58 is telescopically regulated to change the overall position of the matching plate 62, the hinged connecting shaft 63, the displacement adjustment frame 64, the glue guide port 65, the heating seat 55, the connecting guide tube 56, and the glue brushing roller 57, so that the glue brushing roller 57 can change its position on the docking shell block 5, and perform all-round glue brushing along with the rotation of the docking shell block 5. At the same time, the fourth electrically-controlled hydraulic telescopic shaft 61 can control the telescopic operation so that the heating seat 55, the connecting guide tube 56, the glue brushing roller 57, and the glue guide port 65 can be rotated and adjusted through the hinged connecting shaft 63. The bottom of the fourth electrically-controlled hydraulic telescopic shaft 61 is also hinged, so that the heating seat 55, the connecting guide tube 56, the glue brushing roller 57, and the glue guide port 65 can be flipped and adjusted to prevent interference with the combination of the docking shell block 5 and the LED module 9.

The second assembly structure 15 includes a third transmission belt 80 and a third power seat 81. The third power seat 81 is connected to the third transmission belt 80, and the front end of the third power seat 81 is fixed to the supporting rod 79. The upper end of the supporting rod 79 is fixed with a motor 76. The motor 76 controls the flip adjustment of the supporting bracket 78 through the flip adjustment shaft 77. The upper limit of the motor 76 is installed with a fourth hydraulic lifting cylinder 74. The lower end of the fourth hydraulic lifting cylinder 74 is telescopically connected with a second electric suction cup 75. The second power seat 72 in the limited flip structure 14 can control the rotation of the second transmission belt 73, so that the docking shell block 5 and the LED module 9 move. The second infrared detector 66 is set The device can sense the docking shell block 5 and the LED module 9, which is convenient for controlling the second assembly structure 15, and can control the second power seat 72 to stop, which is convenient for positioning processing. After the docking shell block 5 and the LED module 9 are processed, the fifth electrically-controlled hydraulic telescopic shaft 67 controls the limit roller 69 to extend and retract, and limits the docking shell block 5 and the LED module 9 to the position between the two limit rollers 69. Then the stepper motor 71 can control the rotation shaft 70 to rotate, so that the fifth electrically-controlled hydraulic telescopic shaft 67, the support block plate 68, and the limit roller 69 are flipped and adjusted, thereby turning over the docking shell block 5 and the LED module 9 and placing them on the upper end of the second conveyor belt 73.

The motor 76 controls the flipping adjustment of the support frame 78 through the flipping adjustment shaft 77, and the support frame 78 can carry the PCB board 4. At the same time, the fourth hydraulic lifting cylinder 74 controls the second electric suction cup 75 to descend and can be adsorbed and connected with the PCB board 4. Then, the support frame 78 changes the height of the PCB board 4 by telescoping, so that the PCB board 4 is limitedly connected with the docking shell block 5, the support block 46 is fixed to the first supporting frame 59, and the bottom connection of the glue-applying component 45 is carried out. The glue guide port 65 is connected with the external glue guide tube, and the first bottom plate 51 and the second bottom plate 52 are separated, which can be used for LE The D module 9 is lowered and installed to provide space, and the third power seat 81 in the second assembly structure 15 can control the transmission of the third conveyor belt 80, so that the PCB board 4 is transmitted, and then the PCB board 4 arrives on the supporting base frame 78. At this time, the fourth hydraulic lifting cylinder 74 controls the second electric suction cup 75 to descend, and performs limited adsorption of the PCB board 4. Then the motor 76 drives the flip adjustment shaft 77 to rotate, so that the supporting base frame 78 is separated from the PCB board 4. Then the fourth hydraulic lifting cylinder 74 drives the second electric suction cup 75 to extend, so that the PCB board 4 descends and combines with the docking shell block 5 at the lower end.

The working principle is: the equipment is combined to produce and process LED light strips;

Among them, the transmission guide structure 12 can control the transmission of the docking shell block 5, and the loading component 16 in the transmission guide structure 12 is used for the storage of the docking shell block 5. The docking shell block 5 can be made to fall by adjusting the inside of the loading component 16. Then, the first hydraulic telescopic device 17 controls the telescopic adjustment of the first push rod 18 to push the docking shell block 5 out and reach the first conveyor belt 21. At this time, the first power seat 20 can control the rotation of the first conveyor belt 21 to realize the transmission of the docking shell block 5. At the same time, the first infrared detector 19 can sense the docking shell block 5, thereby controlling the first power seat 20. With the operation of the first conveyor belt 21, the docking shell block 5 can be transported to the correction component 23 by the first conveyor belt 21. The installation frame 22 is provided to facilitate the support of the third electrically controlled hydraulic telescopic shaft 58. After that, the docking shell block 5 can be transported to the correction component 23, and the rotation correction can be performed on the correction component 23. At the same time, the height adjustment of the docking shell block 5 can be controlled by the correction component 23. The second hydraulic telescopic device 26 can control the pressing roller 25 to move laterally through the second pushing rod 24, so that the docking shell block 5 and the LED module 9 can be pressed by the pressing roller 25 to improve the degree of fit.

The storage rack 27 can store the docking shell block 5, and the support stand 28 supports the storage rack 27. At the same time, the first hydraulic lifting cylinder 29 can change the position of the blocking plate 31 at the lower end of the storage rack 27 by controlling the extension and contraction of the telescopic adjustment connecting plate 30, so that the docking shell block 5 falls.

Among them, the correction component 23 is supported by the partition plate 36 and the support plate 35, and the second hydraulic lifting cylinder 39 is used for bottom limit. By telescoping, the first gear plate 37, the bearing disc frame 38, the mounting side frame 40, the second gear plate 41, the motor 42 and the third hydraulic telescopic device 32, the telescopic guide shaft 33, and the moving plate 34 can be changed, so as to adjust the height. At the same time, the motor 42 can control the rotation of the second gear plate 41 to realize the driving of the first gear plate 37, so that the third hydraulic telescopic device 32, the telescopic guide shaft 33, and the moving plate 34 can be driven to rotate through the first gear plate 37 to achieve the purpose of angle correction. The support plate 35 is provided with a sensor for sensing the docking control seat 7, so as to facilitate the fixed-point limit work;

The first assembly structure 13 is provided by a combination of a transmission channel 43, a push base 44, a glue component 45, and a support block 46. The LED module 9 can slide on the transmission channel 43. At the same time, the push base 44 pushes the bottom of the LED module 9, so that the LED module 9 can slide and adjust on the transmission channel 43. The support block 46 at the lower end facilitates the support of the glue component 45.

Among them, the transmission channel 43 in the first assembly structure 13 is connected with the first bottom plate 51 and the second bottom plate 52. When the LED module 9 reaches the first bottom plate 51 and the second bottom plate 52, the third hydraulic lifting cylinder 47 at this time can control the first electric suction cup 48 to descend, so that the LED module 9 is limited by the first electric suction cup 48, and then the first electric-controlled hydraulic telescopic shaft 50 and the second electric-controlled hydraulic telescopic shaft 53 work to open the first bottom plate 51 and the second bottom plate 52. At this time, the first electric suction cup 48 can control the LED module 9 to descend, so that the LED module 9 reaches the specified position and realizes the matching connection with the docking shell block 5;

Among them, the gluing component 45 is used for the glue brushing process. The glue liquid is conducted to the heating seat 55 through the glue guide port 65, and then conducted through the connecting guide tube 56 and the glue brushing roller 57. At the same time, the third electrically controlled hydraulic telescopic shaft 58 is telescopically regulated to change the overall position of the matching plate 62, the hinged connecting shaft 63, the displacement adjustment frame 64, the glue guide port 65, the heating seat 55, the connecting guide tube 56, and the glue brushing roller 57, so that the glue brushing roller 57 can change its position on the docking shell block 5, and perform all-round glue brushing with the rotation of the docking shell block 5. At the same time, the fourth electrically controlled hydraulic telescopic shaft 61 can make the heating seat 55, the connecting guide tube 56, the glue brushing roller 57, and the glue guide port 65 rotate and adjust through the hinged connecting shaft 63 through telescopic control. The bottom of the fourth electrically controlled hydraulic telescopic shaft 61 is also hinged, so that the heating seat 55, the connecting guide tube 56, the glue brushing roller 57, and the glue guide port 65 can be flipped and adjusted to prevent interference with the combination of the docking shell block 5 and the LED module 9;

Among them, the second power seat 72 in the limit flip structure 14 can control the second conveyor belt 73 to rotate, so that the docking shell block 5 and the LED module 9 move. The second infrared detector 66 is set to sense the docking shell block 5 and the LED module 9, which is convenient for controlling the second assembly structure 15. At the same time, it can control the second power seat 72 to stop, which is convenient for positioning processing. After the docking shell block 5 and the LED module 9 are processed, the fifth electrically-controlled hydraulic telescopic shaft 67 controls the limit roller 69 to extend and retract, and the docking shell block 5 and the LED module 9 are limited to the position between the two limit rollers 69. After that, the stepping motor 71 can control the rotation shaft 70 to rotate, so that the fifth electrically-controlled hydraulic telescopic shaft 67, the support block plate 68, and the limit roller 69 are flipped and adjusted, so that the docking shell block 5 and the LED module 9 are turned over and placed on the upper end of the second conveyor belt 73;

Among them, the third power seat 81 in the second assembly structure 15 can control the transmission of the third conveyor belt 80, so that the PCB board 4 is transmitted, and then the PCB board 4 arrives on the supporting frame 78. At this time, the fourth hydraulic lifting cylinder 74 controls the second electric suction cup 75 to descend, and performs the limited adsorption of the PCB board 4. Then the motor 76 drives the flip adjustment shaft 77 to rotate, so that the supporting frame 78 is separated from the PCB board 4. Then the fourth hydraulic lifting cylinder 74 drives the second electric suction cup 75 to extend, so that the PCB board 4 descends and combines with the docking shell block 5 at the lower end;

When in use, the docking shell block 5 is placed in the storage rack 27. At this time, the first hydraulic lifting cylinder 29 can control the telescopic adjustment connecting plate 30 and the blocking plate 31 to move downward, thereby vacating a position for the docking shell block 5. Then the first hydraulic telescopic device 17 pushes the first propulsion rod 18 to move, so that the docking shell block 5 is separated from the loading component 16 and reaches the lower end of the first infrared detector 19. The first infrared detector 19 senses the docking shell block 5. Then the first power seat 20 controls the first conveyor belt 21 to run, so that the docking shell block 5 is transmitted on the first conveyor belt 21, and then reaches the position of the correction component 23. At this time, the third hydraulic telescopic device 32 controls the telescopic guide shaft 33 to extend and retract, and limits the bottom of the docking shell block 5. Then the motor 42 drives the second gear disc 41 to rotate, so that the first gear disc 37 follows to engage and rotate, thereby changing the third hydraulic telescopic device 3 2. The position of the telescopic guide shaft 33 and the moving plate 34 makes the docking shell block 5 also move with it. At this time, the third electrically controlled hydraulic telescopic shaft 58 controls the telescopic adjustment to change the position of the connecting guide tube 56 and the rubber brush roller 57. At the same time, the glue guide port 65 supplies glue to the rubber brush roller 57 through the heating seat 55 and the connecting guide tube 56. With the rotation of the docking shell block 5, the glue brushing work on the docking shell block 5 is carried out. At this time, the third electrically controlled hydraulic telescopic shaft 58 reciprocates and telescopes to change the position of the rubber brush roller 57 to achieve comprehensive glue brushing. After the glue brushing is completed, the fourth electrically controlled hydraulic telescopic shaft 61 controls the telescopic movement so that the heating seat 55 is rotated and adjusted through the hinged connecting shaft 63, and then the docking shell block 5 continues to be controlled to rotate. When the sensor position on the support plate 35 is reached, the control motor 42 stops driving, and then the LED module 9 slides on the transmission channel 43 by pushing the base 44. When the first bottom plate 51 and the second bottom plate 52 are reached, the third hydraulic lifting cylinder 47 controls the first electric suction cup 48 to descend, and the LED module 9 is adsorbed and connected. At the same time, the first electrically-controlled hydraulic telescopic shaft 50 and the second electrically-controlled hydraulic telescopic shaft 53 are contracted, so that the first bottom plate 51 and the second bottom plate 52 are separated. Then, the third hydraulic lifting cylinder 47 continues to control the descent, so that the LED module 9 reaches the upper end of the docking shell block 5 for fitting connection. Then, the second hydraulic telescopic device 26 controls the second propulsion rod 24 and the pressing roller 25 to extend and retract, and the docking shell block 5 and the LED module 9 are pressed and combined. After the fixed combination, the fifth electrically-controlled hydraulic telescopic shaft 67 controls the limit roller 69 to extend, and the docking shell block 5 and the LED module 9 are limited at the center of the limit roller 69. At the same time, the stepping motor 71 drives the rotating shaft 70 to rotate, so that the limit roller 69 is turned over. The second power seat 72 drives the second conveyor belt 73 to run, so that the docking shell block 5 and the LED module 9 are transmitted on the second conveyor belt 73. When the second infrared detector 66 is reached, the second power seat 72 controls the second conveyor belt 73 to stop. At this time, the PCB board 4 moves under the drive of the third conveyor belt 80 and the third power seat 81 and reaches the supporting base frame 78. Then, the fourth hydraulic lifting cylinder 74 controls the second electric suction cup 75 to descend and combine with the PCB board 4. At the same time, the motor 76 drives the flip adjustment shaft 77 and the supporting base frame 78 to flip. Then, the fourth hydraulic lifting cylinder 74 continues to control the movement of the second electric suction cup 75 and the PCB board 4, so that the PCB board 4 is pressed and combined with the upper end of the docking shell block 5 to achieve the assembly purpose and complete the work.

Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims (9)

1. A high-precision LED light strip automatic assembly device, characterized in that it comprises a transmission guide structure (12), a first assembly structure (13), a limit flip structure (14) and a second assembly structure (15), wherein the transmission guide structure (12) can be used for the transmission of a docking shell block (5), so that the docking shell block (5) is guided to the first assembly structure (13), the first assembly structure (13) is used for the transmission of an LED module (9), and can bond the LED module (9) to the docking shell block (5), the first assembly structure (13) is simultaneously connected to the limit flip structure (14), the limit flip structure (14) can flip the docking shell block (5) and the LED module (9) for transmission, so that the back side of the docking shell block (5) is flipped upward, the second assembly structure (15) can clamp a PCB board (4) to the docking shell block (5), and the transmission guide structure (12), the first assembly structure (13) and the limit flip structure (14) are connected as a whole, and the second assembly structure (15) is controlled by a separate channel. 2. A high-precision LED light strip automatic assembly equipment according to claim 1, characterized in that: the transmission guide structure (12) includes a first power seat (20) and a first transmission belt (21), the first power seat (20) is driven to be provided with a first transmission belt (21), a first hydraulic telescopic device (17) is fixedly provided on one side of the first power seat (20), the first hydraulic telescopic device (17) controls the telescopic adjustment of the first propulsion rod (18), and a loading component (16) is also provided at the position of the first power seat (20) close to the first hydraulic telescopic device (17), the loading component (16) is fixed to the first power seat (20), the first hydraulic telescopic device (17) can push out the docking shell block (5) on the loading component (16), and a first infrared detector (19) is provided on one side of the loading component (16), which can sense the docking shell block (5) and facilitate the control of the first power seat (20) and the first transmission belt (21) to drive the work; A mounting frame (22) is fixedly connected to the side of the first power seat (20) facing away from the first hydraulic telescopic device (17); a correction component (23) is connected to the upper limit of the mounting frame (22); the correction component (23) is used to support the docking shell block (5) and can drive the docking shell block (5) to be lifted and rotated, and can perform position calibration; a second hydraulic telescopic device (26) is fixedly installed on one side of the mounting frame (22); a pressing roller (25) is controlled to be telescopically adjusted by a second pushing rod (24) on the second hydraulic telescopic device (26); and the pressing roller (25) can press and fit the docking shell block (5) and the LED module (9). 3. A high-precision LED light strip automatic assembly equipment according to claim 2, characterized in that: the loading component (16) includes a storage rack (27), a support frame (28), a first hydraulic lifting cylinder (29), a telescopic adjustment connecting plate (30) and a sealing plate (31); the storage rack (27) is fixedly connected to the support frame (28); a first hydraulic lifting cylinder (29) is installed in the middle of the support frame (28); the first hydraulic lifting cylinder (29) controls the lifting and lowering adjustment of the sealing plate (31) through the telescopic adjustment connecting plate (30), and the sealing plate (31) is blocked at the central lower end of the storage rack (27); the sealing plate (31) can only adjust the height of one docking shell block (5) through the first hydraulic lifting cylinder (29) and the telescopic adjustment connecting plate (30). 4. A high-precision LED light strip automatic assembly equipment according to claim 3, characterized in that: the correction component (23) includes a partition (36), a second hydraulic lifting cylinder (39) is fixedly installed at the center of the partition (36), and the second hydraulic lifting cylinder (39) can adjust the position of the first toothed disc (37) through a bearing disc frame (38), and at the same time, the side end of the bearing disc frame (38) is fixedly connected with a mounting side frame (40), and a motor (42) is installed on the mounting side frame (40), and the motor (42) drives the second toothed disc (41) to rotate, and the second toothed disc (41) is meshed with the first toothed disc (37), and The upper end of the first toothed disc (37) is fixed to the moving plate (34), and a third hydraulic telescopic device (32) is installed on the upper end of the moving plate (34). The third hydraulic telescopic device (32) controls the telescopic adjustment of the telescopic guide shaft (33). A support plate (35) is fixed on the partition plate (36). The telescopic adjustment of the telescopic guide shaft (33) is controlled by the third hydraulic telescopic device (32), so that the telescopic guide shaft (33) can be adapted and engaged with the groove body at the bottom of the docking shell block (5), thereby limiting the docking shell block (5) and facilitating the adjustment of the position of the docking shell block (5). At the same time, a sensor for sensing the position of the docking control seat (7) is also provided on the support plate (35). 5. A high-precision LED light strip automatic assembly device according to claim 4, characterized in that: the first assembly structure (13) includes a transmission channel (43) and a propulsion base (44), the lower end of the transmission channel (43) is fixedly provided with a propulsion base (44), the propulsion base (44) can drive the block to extend and retract, so that the LED module (9) can slide and adjust on the transmission channel (43), and the transmission channel (43) is fixedly connected with a third hydraulic lifting cylinder (47), the lower end of the third hydraulic lifting cylinder (47) is telescopically connected with a first electric suction cup (48), and the front end of the center of the transmission channel (43) is connected to a first bottom plate (51) and a second A bottom plate (52), a first plate frame (49) is fixedly provided at the side end of the transmission channel (43), and a first electrically controlled hydraulic telescopic shaft (50) is installed on the first plate frame (49), and the first electrically controlled hydraulic telescopic shaft (50) controls the telescopic adjustment of the first bottom plate (51); a second bottom plate (54) is fixedly connected to the other side of the transmission channel (43), and a second electrically controlled hydraulic telescopic shaft (53) is installed on the second bottom plate (54), and the second electrically controlled hydraulic telescopic shaft (53) controls the telescopic adjustment of the second bottom plate (52); a rubber component (45) is fixedly connected to the central lower end of the transmission channel (43), and a support block (46) is fixedly connected to the side end of the rubber component (45). 6. A high-precision LED light strip automatic assembly device according to claim 5, characterized in that: the glue-applying component (45) comprises a first support frame (59), a third electrically-controlled hydraulic telescopic shaft (58) is installed on the first support frame (59), and a second support frame (60) is fixedly connected to the side end of the first support frame (59), the third electrically-controlled hydraulic telescopic shaft (58) can change the position of the displacement adjustment frame (64), and the displacement adjustment frame (64) is extended between the upper limit position of the first support frame (59) and the second support frame (60). The displacement adjustment frame (64) is hingedly provided with a heating seat (55) through a hinged connecting shaft (63), one end of the heating seat (55) is connected to the glue guide port (65), and the other end of the heating seat (55) is connected to the glue brush roller (57) through a connecting guide tube (56), and a fourth electrically controlled hydraulic telescopic shaft (61) is hingedly provided at one end of the heating seat (55) close to the connecting guide tube (56), and the lower end of the fourth electrically controlled hydraulic telescopic shaft (61) is hingedly provided with a matching plate (62), and the matching plate (62) is fixed to the displacement adjustment frame (64). 7. A high-precision LED light strip automatic assembly equipment according to claim 6, characterized in that: the limit flipping structure (14) includes a second power seat (72) and a second transmission belt (73), the second power seat (72) is driven and connected to the second transmission belt (73), and a second infrared detector (66) is installed in the middle position of the second power seat (72), a stepper motor (71) is fixedly installed at the front end of the second power seat (72), and the stepper motor (71) controls the rotation adjustment of the rotating shaft (70), and a support block plate (68) is fixedly connected to the rotating shaft (70), and a fifth electro-hydraulic telescopic shaft (67) is installed on the support block plate (68), and the fifth electro-hydraulic telescopic shaft (67) can control the telescopic adjustment of the limit roller (69), so that the docking shell block (5) and the LED module (9) can be clamped and flipped by the limit roller (69). 8. According to claim 7, a high-precision LED light strip automatic assembly equipment is characterized in that: the second assembly structure (15) includes a third transmission belt (80) and a third power seat (81), the third power seat (81) is driven and connected to the third transmission belt (80), and the front end of the third power seat (81) is fixed to the supporting rod (79), and the upper end of the supporting rod (79) is fixed with an electric motor (76), and the motor (76) controls the flip adjustment of the supporting frame (78) through the flip adjustment shaft (77), and the upper limit of the motor (76) is installed with a fourth hydraulic lifting cylinder (74), and the lower end of the fourth hydraulic lifting cylinder (74) is telescopically connected with a second electric suction cup (75). 9. A high-precision LED light strip automatic assembly equipment according to claim 8, characterized in that: the motor (76) controls the flip adjustment of the support frame (78) through the flip adjustment shaft (77), and the support frame (78) can carry the PCB board (4), and at the same time the fourth hydraulic lifting cylinder (74) controls the second electric suction cup (75) to descend so as to be adsorbed and connected with the PCB board (4), and then the support frame (78) changes the height of the PCB board (4) by telescoping, so that the PCB board (4) and the docking shell block (5) are limitedly connected, the support block (46) is fixed to the first support frame (59) to connect the bottom of the gluing component (45), the glue guide port (65) is connected to the external glue guide tube, and the separation of the first bottom plate (51) and the second bottom plate (52) can provide space for the LED module (9) to be lowered and installed.