Split type base assembling system and method in optical fiber fusion splicer tool box

Abstract

The invention belongs to the technical field of optical fiber fusion splicer tool box production, and particularly relates to a split type base assembling system and method in an optical fiber fusion splicer tool box, the assembling system comprises a frame body, a circulating conveying belt, a positioning assembly and an assembling assembly, the bottom of the frame body is provided with the circulating conveying belt used for conveying a split type base; positioning assemblies used for positioning the optical fiber fusion splicer tool box body are symmetrically installed on the two sides of the upper portion of the frame body, and assembling assemblies used for assembling the optical fiber fusion splicer tool box body and the split type base into a whole are symmetrically installed on the two sides of the lower portion of the frame body. The device is reasonable in design, automatic feeding and discharging can be achieved, and the assembling efficiency is low; automatic assembling can be achieved, the reliability of connection between the assembled optical fiber fusion splicer tool box body and the split type base is high, and the storage safety of the optical fiber fusion splicer tool box body can be guaranteed through the damping function of the split type base.

Description

Technical Field

[0001] The invention belongs to the technical field of optical fiber fusion splicer tool box production, and in particular relates to a split base assembly system and method in an optical fiber fusion splicer tool box. Background Art

[0002] The split base of the fiber fusion splicer tool box is mainly based on the following functions and advantages: 1) Enhanced adaptability: The split base design makes the tool box more adaptable in complex and changeable construction environments. Since the construction site may have an uneven ground or limited space, the split base can flexibly adjust the angle and position between the two parts to ensure that the tool box is placed stably, which is convenient for operators to perform fiber fusion work. 2) Optimize weight distribution: The fiber fusion splicer and its accessories are usually heavy. The split base design can distribute the weight to two parts, thereby reducing the load-bearing pressure of a single part and improving the overall stability of the tool box. At the same time, this design also makes it more convenient and labor-saving to carry and move the tool box. 3) Improve work efficiency: During the fiber fusion process, operators need to frequently access various tools and equipment in the tool box, such as fiber cleavers, strippers, etc. The split base design can reasonably arrange the layout of these tools and equipment, so that operators can access them more quickly and conveniently, thereby improving work efficiency. 4) Protect equipment: The fiber fusion splicer is a precision electronic device and should be properly protected to prevent damage. The split base can provide more stable support for the welding machine by adding anti-shock and anti-slip designs, reducing the risk of equipment damage caused by vibration or collision.

[0003] The split base in the fiber fusion splicer tool box needs to be assembled with the tool box body using an assembly system. The traditional split base assembly system in the fiber fusion splicer tool box has shortcomings when used. First, it cannot realize automatic loading and unloading, and the assembly efficiency is low; second, it cannot realize automatic assembly, and the connection reliability after assembly is not ideal. Therefore, it needs to be optimized and improved. Summary of the invention

[0004] The purpose of the present invention is to overcome the above problems existing in the prior art and to provide a split base assembly system and method in a tool box of an optical fiber fusion splicer.

[0005] In order to achieve the above technical objectives and the above technical effects, the present invention is implemented through the following technical solutions:

[0006] The present invention provides a split base assembly system in a fiber optic fusion splicer tool box, comprising a frame, a circulating conveyor belt, a positioning component and an assembly component, wherein a circulating conveyor belt for conveying the split base is installed at the bottom of the frame, positioning components for positioning the fiber optic fusion splicer tool box body are symmetrically installed on both sides of the upper part of the frame, and assembly components for assembling the fiber optic fusion splicer tool box body and the split base into one are symmetrically installed on both sides of the lower part of the frame.

[0007] Further, in the split base assembly system in the above-mentioned optical fiber fusion splicer tool box, a lock block introduction groove is provided at the lower end of the optical fiber fusion splicer tool box body near the four corners, a lock block limiting groove is provided above the lock block introduction groove of the optical fiber fusion splicer tool box body, and a spring installation groove is provided above the lock block limiting groove of the optical fiber fusion splicer tool box body, and a compression spring is connected to the top of the spring installation groove;

[0008] A shock-absorbing base is installed near the four corners of the lower end of the split base, and two side opening grooves are respectively provided on both sides of the split base. A sleeve is fixed at the bottom end of the side opening groove, and a support shaft is slidingly restricted in the sleeve. A locking block is fixed at the upper end of the support shaft. A filler introduction pipe communicating with its inner cavity is provided at the bottom side end of the sleeve;

[0009] The cross-section of the locking block is a polygonal structure, the shape of the locking block introduction groove cooperates with the shape of the locking block, the locking block limiting groove is a cylindrical groove and its diameter is larger than the maximum diameter of the locking block, and the thickness value of the locking block limiting groove is equal to the thickness value of the locking block.

[0010] Furthermore, in the split base assembly system in the above-mentioned optical fiber fusion machine tool box, a plurality of groups of positioning grooves cooperating with the shock-absorbing base are equidistantly arranged on the outer side of the belt body of the circulating conveyor belt.

[0011] Furthermore, in the split base assembly system of the above-mentioned optical fiber fusion machine tool box, the positioning component includes a vertical lifting push rod, a transverse guide rail, a vertical guide rail, a transverse slider and an angular positioning block, the cylinder body of the vertical lifting push rod is fixed on the top plate of the frame, the vertical guide rail is fixed on the inner wall of the side plate of the frame, the movable end of the vertical lifting push rod is installed with a transverse guide rail, one end of the transverse guide rail is slidingly restricted on the vertical guide rail, the transverse guide rail is slidingly restricted with a transverse slider which forms a linear guide pair with it, and the lower side of the transverse slider is installed with an angular positioning block.

[0012] Furthermore, in the split base assembly system in the above-mentioned optical fiber fusion splicer tool box, the assembly components include a convex box, a horizontal telescopic push rod, a mounting plate, a mechanical clamp, a movable plate seat, a vertical ejection push rod, a push head, a semi-conical clamping ring, a servo motor, an active bevel gear, a resin storage bin, a material extraction pipe and a nozzle, the convex box is fixed to the side plate of the frame, a horizontal telescopic push rod is fixed to the inner side of the convex box, a mechanical clamp and a nozzle are installed on the movable end of the horizontal telescopic push rod through the mounting plate, and two parts that can be mutually connected are installed on the mechanical clamp For the displaced movable plate seat, two of the movable plate seats are equipped with vertical ejecting push rods and semi-conical clamping rings, the top of the vertical ejecting push rod is equipped with a push head, and the semi-conical clamping rings of the two movable plate seats are connected to form a driven conical clamping ring, a servo motor is installed on one of the movable plate seats, and the output end of the servo motor is equipped with an active conical gear meshing with the driven conical clamping ring; a resin storage bin is installed on the lower side of the convex box, and the output end of the built-in extraction pump of the resin storage bin is connected to the nozzle through a extraction pipe.

[0013] Furthermore, in the split base assembly system in the above-mentioned optical fiber fusion machine tool box, the semi-conical clamping ring is composed of a semi-circular body and a semi-circular air bag arranged on the inner side thereof, and the movable plate seat is provided with an active cavity for facilitating the semi-conical clamping ring to be connected to form a driven conical clamping ring and then rotated.

[0014] Furthermore, in the split base assembly system in the above-mentioned optical fiber fusion machine tool box, the nozzle can be inserted into the filler introduction tube of the split base.

[0015] The present invention also provides a method for assembling a split base in a tool box of an optical fiber fusion splicer, which is implemented based on the above-mentioned split base assembly system in a tool box of an optical fiber fusion splicer, and includes the following steps:

[0016] 1) The circulating conveyor belt transfers the split base to the assembly station, and the upper side of the split base is pre-clamped with the fiber optic fusion splicer tool box body; the vertical lifting push rod in the positioning assembly moves, and the linear guide pair is used to make the angle positioning block abut against the corresponding angle end of the fiber optic fusion splicer tool box body, thereby completing the positioning of the fiber optic fusion splicer tool box body;

[0017] 2) The horizontal telescopic push rod in the assembly component moves, so that the semi-conical clamping rings in the two movable plate seats of the mechanical clamp are located on the outside of the support shaft in the split base, and the nozzle is stuck in the filler introduction tube of the split base; the mechanical clamp drives the two movable plate seats to approach each other, so that the two semi-conical clamping rings are connected to form a driven conical clamping ring; the vertical ejecting push rods on the two movable plate seats move, the pusher heads move up and push the locking block into the locking groove of the locking block through the locking block introduction groove, the compression spring is pressed into the spring installation groove, and the support shaft moves up accordingly and its bottom end is located in the sleeve; the semi-circular airbag in the driven conical clamping ring is inflated, so that the driven conical clamping ring can rotate synchronously with the support shaft; the servo motor in the assembly component moves, the active conical gear rotates accordingly and drives the semi-conical clamping ring to rotate accordingly, the support shaft also rotates accordingly and drives the lock block to be misaligned with the lock block introduction groove; the resin storage bin in the assembly component is filled with room temperature curing resin into the interior of the sleeve through the extraction pipe and the nozzle to complete the assembly operation;

[0018] 3) Reset the assembly components, reset the positioning components, use the circulating conveyor belt to transfer the assembled tool box to the finished product transfer area, and use the external unloading robot to transfer the tool box to the finished product placement area.

[0019] The beneficial effects of the present invention are:

[0020] The present invention is reasonably designed, and is mainly composed of a frame, a circulating conveyor belt, a positioning component and an assembly component. The components cooperate with each other. On the one hand, it can realize automatic loading and unloading, and the assembly efficiency is low; on the other hand, it can realize automatic assembly. The connection reliability between the fiber optic fusion machine tool box body and the split base after assembly is high, and the shock absorption function of the split base can ensure the storage safety of the fiber optic fusion machine tool box body.

[0021] Of course, any product implementing the present invention does not necessarily need to achieve all of the above advantages at the same time. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings required for describing the embodiments will be briefly introduced below. Obviously, the accompanying drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other accompanying drawings can be obtained based on these accompanying drawings without paying creative work.

[0023] Figure 1 It is a structural schematic diagram of the split base assembly system in the optical fiber fusion splicer tool box of the present invention;

[0024] Figure 2 for Figure 1 A schematic diagram of the structure enlargement at the center A;

[0025] Figure 3 for Figure 1 A schematic diagram of the structure enlarged at B in the middle;

[0026] Figure 4 This is a usage state diagram of the split base assembly system in the optical fiber fusion splicer tool box of the present invention;

[0027] Figure 5 This is a schematic diagram of the structure of the optical fiber fusion splicer tool box body and the split base before assembly in the present invention;

[0028] Figure 6 It is a schematic diagram of the structure after the main body and the split base of the optical fiber fusion splicer tool box of the present invention are assembled;

[0029] Figure 7 It is a bottom view structural schematic diagram of the main part of the optical fiber fusion splicer tool box in the present invention;

[0030] Figure 8 It is a structural schematic diagram of a semi-conical clamping ring in the present invention;

[0031] In the accompanying drawings, the components represented by the reference numerals are listed as follows:

[0032] 1-frame, 2-circulating conveyor belt, 3-positioning assembly, 301-vertical lifting push rod, 302-lateral guide rail, 303-vertical guide rail, 304-lateral slider, 305-angular positioning block, 4-assembly assembly, 401-convex box, 402-horizontal telescopic push rod, 403-mounting plate, 404-mechanical clamping claw, 405-movable plate seat, 406-vertical ejecting push rod, 407-push head, 408-semi-conical clamping ring, 408a-semi-circular body, 408 b-semicircular air bag, 409-servo motor, 410-active bevel gear, 411-resin storage bin, 412-extraction pipe, 413-nozzle, 5-optical fiber fusion splicer tool box body, 501-lock block introduction slot, 502-lock block limit slot, 503-spring installation slot, 504-compression spring, 6-split base, 601-shock-absorbing base, 602-side opening slot, 603-sleeve, 604-support shaft, 605-lock block, 606-filler introduction tube. DETAILED DESCRIPTION

[0033] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0034] like Figure 1-Figure 8As shown, this embodiment provides a split base assembly system in a fiber optic fusion splicer tool box, including a frame 1, a circulating conveyor 2, a positioning component 3 and an assembly component 4. The bottom of the frame 1 is installed with a circulating conveyor 2 for conveying the split base 6, and the upper two sides of the frame 1 are symmetrically installed with positioning components 3 for positioning the fiber optic fusion splicer tool box body 5, and the lower two sides of the frame 1 are symmetrically installed with assembly components 4 for assembling the fiber optic fusion splicer tool box body 5 and the split base 6 into one.

[0035] In this embodiment, the lower end of the fiber fusion machine tool box body 5 is provided with a locking block introduction groove 501 near the four corners, the fiber fusion machine tool box body 5 is provided with a locking block limiting groove 502 above the locking block introduction groove 501, and the fiber fusion machine tool box body 5 is provided with a spring installation groove 503 above the locking block limiting groove 502, and the top of the spring installation groove 503 is connected to a compression spring 504.

[0036] In this embodiment, a shock-absorbing base 601 is installed near the four corners of the lower end of the split base 6, and two side opening grooves 602 are respectively provided on both sides of the split base 6. A sleeve 603 is fixed at the bottom end of the side opening groove 602, and a support shaft 604 is slidably restricted in the sleeve 603. A locking block 605 is fixed at the upper end of the support shaft 604. A filler introduction pipe 606 communicating with its inner cavity is provided at the bottom side end of the sleeve 603.

[0037] In this embodiment, the cross-section of the locking block 605 is a polygonal structure, the shape of the locking block introduction groove 501 cooperates with the shape of the locking block 605, the locking block limiting groove 502 is a cylindrical groove and its diameter is greater than the maximum diameter of the locking block 605, and the thickness value of the locking block limiting groove 502 is equal to the thickness value of the locking block 605.

[0038] In this embodiment, a plurality of groups of positioning grooves cooperating with the shock-absorbing base 601 are equidistantly arranged on the outer side of the belt body of the circulating conveyor belt 2 .

[0039] In this embodiment, the positioning assembly 3 includes a vertical lifting push rod 301, a transverse guide rail 302, a vertical guide rail 303, a transverse slider 304 and an angular positioning block 305. The cylinder of the vertical lifting push rod 301 is fixed on the top plate of the frame 1, and the vertical guide rail 303 is fixed on the inner wall of the side plate of the frame 1. The movable end of the vertical lifting push rod 301 is installed with a transverse guide rail 302, one end of the transverse guide rail 302 is slidably restricted on the vertical guide rail 303, and a transverse slider 304 constituting a linear guide pair is slidably restricted on the transverse guide rail 302, and an angular positioning block 305 is installed on the lower side of the transverse slider 304.

[0040] In this embodiment, the assembly component 4 includes a convex box 401, a horizontal telescopic push rod 402, a mounting plate 403, a mechanical clamp 404, a movable plate seat 405, a vertical ejector push rod 406, a push head 407, a semi-conical clamping ring 408, a servo motor 409, an active bevel gear 410, a resin storage bin 411, a material extraction pipe 412 and a nozzle 413. The convex box 401 is fixed to the side plate of the frame 1, the horizontal telescopic push rod 402 is fixed to the inner side of the convex box 401, and the movable end of the horizontal telescopic push rod 402 is installed with a mechanical clamp 404 and a nozzle 413 through the mounting plate 403. Two movable plate seats 405 capable of relative displacement are installed on the mechanical clamp 404, and vertical material ejection push rods 406 and semi-conical clamping rings 408 are installed on the two movable plate seats 405. A push head 407 is installed on the top of the vertical material ejection push rod 406. The semi-conical clamping rings 408 of the two movable plate seats 405 are connected to form a driven conical clamping ring. A servo motor is installed on one of the movable plate seats 405, and an active conical gear 410 meshing with the driven conical clamping ring is installed at the output end of the servo motor. A resin storage bin 411 is installed on the lower side of the convex box 401, and the output end of the pumping pump built into the resin storage bin 411 is connected to the nozzle 413 through a pumping pipe 412.

[0041] In this embodiment, the semi-conical clamping ring 408 is composed of a semi-circular body 408a and a semi-circular airbag 408b arranged on the inner side thereof, and a movable cavity is opened in the movable plate seat 405 to facilitate the semi-conical clamping ring 408 to be connected to form a driven conical clamping ring and then rotated.

[0042] In this embodiment, the nozzle 413 can be inserted into the filler introduction tube 606 of the split base 6 .

[0043] This embodiment also provides a method for assembling a split base in a fiber optic fusion splicer tool box, comprising the following steps:

[0044] 1) The circulating conveyor belt 2 transfers the split base 6 to the assembly station, and the optical fiber fusion splicer tool box body 5 is pre-clamped and placed on the upper side of the split base 6; the vertical lifting push rod 301 in the positioning assembly 3 moves, and cooperates with the linear guide rail pair to make the angular positioning block 305 abut against the corresponding angular end of the optical fiber fusion splicer tool box body 5, completing the positioning of the optical fiber fusion splicer tool box body 5;

[0045] 2) The horizontal telescopic push rod 402 in the assembly component 4 moves, so that the semi-conical clamping ring 408 in the two movable plate seats 405 of the mechanical clamping jaws 404 is located outside the support shaft 604 in the split base 6, and the nozzle 413 is clamped into the filler introduction pipe 606 of the split base 6. The mechanical clamping jaws 404 drive the two movable plate seats 405 to approach each other, so that the two semi-conical clamping rings 408 are connected to form a driven conical clamping ring. The vertical push rods 406 on the two movable plate seats 405 move, and the push head 407 moves up and pushes the locking block 605 into the locking block locking groove 502 through the locking block introduction groove 501. The compression spring 504 is pushed into the spring installation groove 503, and the support shaft 604 moves up accordingly and its bottom end is located in the sleeve 603. The semi-circular airbag 408b in the driven conical clamping ring is inflated, so that the driven conical clamping ring can rotate synchronously with the support shaft 604. The servo motor 409 in the assembly component 4 is activated, and the active bevel gear 410 rotates accordingly and drives the semi-conical clamping ring to rotate accordingly, and the support shaft 604 also rotates accordingly and drives the lock block 605 to be misaligned with the lock block introduction groove 501. The resin storage bin 411 in the assembly component 4 is filled with room temperature curing resin into the interior of the sleeve 603 through the extraction pipe 412 and the nozzle 413, and the assembly operation is completed;

[0046] 3) The assembly component 4 is reset, the positioning component 3 is reset, the assembled tool box is transferred to the finished product transfer area using the circulating conveyor belt 2, and the tool box is transferred to the finished product placement area using an external unloading robot.

[0047] The system of the present invention is reasonably designed, and is mainly composed of a frame 1, a circulating conveyor belt 2, a positioning component 3 and an assembly component 4. The components cooperate with each other. On the one hand, it can realize automatic loading and unloading, and the assembly efficiency is low; on the other hand, it can realize automatic assembly. The connection reliability between the fiber optic fusion machine tool box main body 5 and the split base 6 after assembly is high, and the shock absorption function of the split base can ensure the storage safety of the fiber optic fusion machine tool box main body 5.

[0048] The preferred embodiments of the present invention disclosed above are only useful to help explain the present invention. The preferred embodiments do not describe all the details in detail, nor do they limit the invention to specific implementation methods. Obviously, many modifications and changes can be made according to the content of this specification. This specification selects and specifically describes these embodiments in order to better explain the principles and practical applications of the present invention, so that those skilled in the art can understand and use the present invention well. The present invention is limited only by the claims and their full scope and equivalents.

Claims

1. A split base assembly system in a fiber optic fusion splicer tool box, characterized in that: It includes a frame, a circulating conveyor belt, a positioning component and an assembly component. A circulating conveyor belt for conveying a split base is installed at the bottom of the frame, positioning components for positioning a fiber optic fusion splicer tool box body are symmetrically installed on both sides of the upper part of the frame, and assembly components for assembling the fiber optic fusion splicer tool box body and the split base into one are symmetrically installed on both sides of the lower part of the frame.

2. The split base assembly system in the tool box of the optical fiber fusion splicer according to claim 1 is characterized in that: The lower end of the fiber fusion splicer tool box body is provided with a lock block introduction groove near the four corners, the fiber fusion splicer tool box body is provided with a lock block limiting groove above the lock block introduction groove, the fiber fusion splicer tool box body is provided with a spring installation groove above the lock block limiting groove, and the top of the spring installation groove is connected to a compression spring; A shock-absorbing base is installed near the four corners of the lower end of the split base, and two side opening grooves are respectively provided on both sides of the split base. A sleeve is fixed at the bottom end of the side opening groove, and a support shaft is slidingly restricted in the sleeve. A locking block is fixed at the upper end of the support shaft. A filler introduction pipe communicating with its inner cavity is provided at the bottom side end of the sleeve; The cross-section of the locking block is a polygonal structure, the shape of the locking block introduction groove cooperates with the shape of the locking block, the locking block limiting groove is a cylindrical groove and its diameter is larger than the maximum diameter of the locking block, and the thickness value of the locking block limiting groove is equal to the thickness value of the locking block.

3. The split base assembly system in the tool box of the optical fiber fusion splicer according to claim 2, characterized in that: The outer side of the belt body of the circulating conveyor belt is provided with a plurality of groups of positioning grooves matched with the shock-absorbing base at equal intervals.

4. The split base assembly system in the tool box of the optical fiber fusion splicer according to claim 3 is characterized in that: The positioning assembly includes a vertical lifting push rod, a transverse guide rail, a vertical guide rail, a transverse slider and an angular positioning block. The cylinder body of the vertical lifting push rod is fixed on the top plate of the frame, and the vertical guide rail is fixed on the inner wall of the side plate of the frame. The movable end of the vertical lifting push rod is installed with a transverse guide rail, one end of the transverse guide rail is slidingly restricted on the vertical guide rail, and the transverse guide rail is slidingly restricted with a transverse slider that forms a linear guide pair with it, and an angular positioning block is installed on the lower side of the transverse slider.

5. The split base assembly system in the optical fiber fusion splicer tool box according to claim 4, characterized in that: The assembly component includes a convex box, a horizontal telescopic push rod, a mounting plate, a mechanical clamp, a movable plate seat, a vertical ejecting push rod, a push head, a semi-conical clamping ring, a servo motor, an active bevel gear, a resin storage bin, a material extraction pipe and a nozzle. The convex box is fixed to the side plate of the frame, a horizontal telescopic push rod is fixed to the inner side of the convex box, and a mechanical clamp and a nozzle are installed on the movable end of the horizontal telescopic push rod through the mounting plate. Two movable plate seats capable of relative displacement are installed on the mechanical clamp, and the two movable plate seats are provided on the mechanical clamp. A vertical ejecting push rod and a semi-conical clamping ring are installed on the movable plate seat, a push head is installed on the top of the vertical ejecting push rod, and a driven conical clamping ring is formed after the semi-conical clamping rings of the two movable plate seats are connected, a servo motor is installed on one of the movable plate seats, and an active conical gear meshing with the driven conical clamping ring is installed on the output end of the servo motor; a resin storage bin is installed on the lower side of the convex box, and the output end of the built-in extraction pump in the resin storage bin is connected to the nozzle through a extraction pipe.

6. The split base assembly system in the tool box of the optical fiber fusion splicer according to claim 5, characterized in that: The semi-conical clamping ring is composed of a semi-circular body and a semi-circular air bag arranged inside the body, and a movable cavity is provided in the movable plate seat to facilitate the semi-conical clamping ring to be connected to form a driven conical clamping ring and then rotate.

7. The split base assembly system in the tool box of the optical fiber fusion splicer according to claim 6, characterized in that: The nozzle can be inserted into the filler introduction pipe of the split base.

8. A method for assembling a split base in a tool box of an optical fiber fusion splicer, which is implemented based on the system for assembling a split base in a tool box of an optical fiber fusion splicer according to claim 7, characterized in that: The steps include: 1) The circulating conveyor belt transfers the split base to the assembly station, and the upper side of the split base is pre-clamped with the fiber optic fusion splicer tool box body; the vertical lifting push rod in the positioning assembly moves, and the linear guide pair is used to make the angle positioning block abut against the corresponding angle end of the fiber optic fusion splicer tool box body, thereby completing the positioning of the fiber optic fusion splicer tool box body; 2) The horizontal telescopic push rod in the assembly component moves, so that the semi-conical clamping rings in the two movable plate seats of the mechanical clamp are located on the outside of the support shaft in the split base, and the nozzle is stuck in the filler introduction tube of the split base; the mechanical clamp drives the two movable plate seats to approach each other, so that the two semi-conical clamping rings are connected to form a driven conical clamping ring; the vertical ejecting push rods on the two movable plate seats move, the pusher heads move up and push the locking block into the locking groove of the locking block through the locking block introduction groove, the compression spring is pressed into the spring installation groove, and the support shaft moves up accordingly and its bottom end is located in the sleeve; the semi-circular airbag in the driven conical clamping ring is inflated, so that the driven conical clamping ring can rotate synchronously with the support shaft; the servo motor in the assembly component moves, the active conical gear rotates accordingly and drives the semi-conical clamping ring to rotate accordingly, the support shaft also rotates accordingly and drives the lock block to be misaligned with the lock block introduction groove; the resin storage bin in the assembly component is filled with room temperature curing resin into the interior of the sleeve through the extraction pipe and the nozzle to complete the assembly operation; 3) Reset the assembly components, reset the positioning components, use the circulating conveyor belt to transfer the assembled tool box to the finished product transfer area, and use the external unloading robot to transfer the tool box to the finished product placement area.

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