A fully automatic equipment and processing method for intelligent copper sleeve processing

Abstract

This invention relates to the field of copper processing technology, and in particular to a fully automatic equipment and method for intelligent copper sleeve processing. Supporting strips are equidistantly fixed on one side of a bearing rod, and loading threaded grooves are equidistantly arranged on the supporting strips. A positioning component is provided on the other side of the supporting strips, and the loading threaded grooves are connected to a clamping mechanism. During the milling process of copper sleeves, when temporary processing of a portion of the copper sleeve workpiece is required, this solution uses a corresponding clamping mechanism on the worktable in conjunction with the supporting strips for rapid temporary clamping and positioning, improving processing efficiency. For larger copper sleeve workpieces, this solution uses a first fastening component in the clamping mechanism for positioning; for smaller copper sleeve workpieces, a second fastening component is used for positioning. Furthermore, the second fastening component can position multiple small copper sleeve workpieces according to actual processing needs, further improving work flexibility.

Description

Technical Field

[0001] This invention relates to the field of copper processing technology, and in particular to a fully automated equipment and processing method for intelligent copper sleeve processing. Background Technology

[0002] A Chinese patent document with publication number CN217192813U discloses a milling machine for machining copper bushings. The design includes a frame, on which are mounted a fixing component for fixing the workpiece, a grinding component for grinding the workpiece, and a moving component for moving the workpiece. The grinding component includes a grinding motor and a pneumatic chuck. One end of the pneumatic chuck is detachably connected to a milling cutter. The output shaft of the grinding motor is fixedly connected to the other end of the pneumatic chuck. A first rotating rod is fixedly connected to one side of the grinding motor. A first rotating box is provided on the frame, and the first rotating rod is rotatably connected to the side of the first rotating box facing the pneumatic chuck and extends into the first rotating box.

[0003] In the above-mentioned scheme, the workpiece of the copper sleeve is clamped in the vertical direction, that is, the workpiece is placed upright on the worktable and then clamped and positioned by the clamping plate. In the above-mentioned scheme and the prior art, whether the workpiece is clamped vertically or horizontally, it needs to be adapted to the workpiece to be processed. That is, after the processing is completed, if temporary processing or supplementary processing is required at a certain position of the workpiece, the workpiece also needs to be positioned. The operation process is cumbersome, and different fixtures may need to be changed for different specifications of workpieces, which increases the workload of the workers and has a negative impact on the processing efficiency.

[0004] Therefore, this invention proposes a fully automated intelligent copper sleeve processing equipment and processing method to solve the above problems. Summary of the Invention

[0005] The purpose of this invention is to provide a fully automated intelligent copper sleeve processing equipment and method to solve the problems mentioned in the background art.

[0006] To achieve the above objectives, the present invention provides the following technical solution: a fully automatic intelligent copper sleeve processing equipment, including a worktable, wherein a loading trough is provided on the top of the worktable, and a limit groove is provided at the bottom of the loading trough;

[0007] The loading groove is provided with a support strip, which is fixedly arranged at equal intervals on one side of the bearing rod. Loading threaded grooves are arranged at equal intervals on the support strip. A positioning component is provided on the other side of the support strip. The loading threaded grooves are connected to the clamping mechanism.

[0008] Preferably, the positioning component includes a bearing block, a connecting through hole, a positioning screw, a limiting slide plate, and an internally threaded positioning cap; the bearing block is fixedly disposed on one side of the bearing rod, and a connecting through hole is provided through the bearing block; a limiting slide plate is fixedly disposed at the bottom end of the positioning screw, and the limiting slide plate is adapted to slide in the limiting slide groove; an internally threaded positioning cap is threadedly connected to the positioning screw.

[0009] Preferably, the clamping mechanism includes a first fastening component and a second fastening component, wherein the first fastening component includes a supporting threaded post, a fastening rod, a through hole, and a locking nut; the bottom end of the supporting threaded post is threadedly connected to the loading threaded groove on the supporting insert; the fastening rod has a through hole at its middle position and is sleeved on the supporting threaded post; and the locking nut is threadedly connected to the supporting threaded post.

[0010] Preferably, the second fastening assembly includes a storage box, a connecting threaded head, a placement slot, a filter plate, a limiting edge, a fitting groove, and a support structure; the connecting threaded head is fixedly provided at the center of the bottom end of the storage box, the connecting threaded head is threadedly connected to the loading threaded groove, the placement slot is provided at the top opening of the storage box, the limiting edge is provided on the arc-shaped side of the filter plate, and the fitting groove is provided on the straight side of the filter plate.

[0011] Preferably, the filter plate is a semi-circular plate, and two filter plates are joined together to form a filter tray, which is placed on the placement slot.

[0012] Preferably, the storage box tray is provided with a support structure, which includes a fixed cone, a support bar, a placement cylinder, a fixed frame, a positioning clamp, a connecting spring, a mounting plate, an adjusting threaded column, an auxiliary handle, and connecting accessories; the fixed cone is fixedly set at the center of the storage box tray, and the support bar is fixedly set at equal intervals on the cone surface of the fixed cone, and the placement cylinder is set at the top of the support bar.

[0013] Preferably, a fixing frame is fixedly provided on the side of the placement cylinder, and the fixing frame is connected to the inner cavity of the placement cylinder. A connecting spring is welded at equal intervals on one side of the positioning clamp, and the other end of the connecting spring is welded and fixedly provided on the mounting plate. The mounting plate is fixedly connected to the frame opening of the fixing frame by screws, and an adjusting threaded post is provided through the mounting plate. An auxiliary handle is fixedly provided at one end of the adjusting threaded post.

[0014] Preferably, the positioning clamping block is provided with connecting accessories, which include a receiving cavity, an auxiliary clamping plate, an auxiliary spring, a connecting block, a mating hole, a threaded cavity, a mounting threaded pin, and an auxiliary structure; the receiving cavity is provided in the positioning clamping block, and a threaded cavity is provided at the top of the receiving cavity; an auxiliary spring is fixedly provided at one end of the auxiliary clamping plate, and an auxiliary structure is provided at the other end of the auxiliary clamping plate; the other end of the auxiliary spring is fixedly provided on one side of the connecting block; a mating hole is provided in the connecting block; the mounting threaded pin is adapted to the mating hole and inserted into it, and the mounting threaded pin is adapted to the threaded cavity and threadedly connected.

[0015] Preferably, the auxiliary structure includes an auxiliary inclined surface, a clamping arc surface, and an anti-slip fixing strip; the auxiliary inclined surface is symmetrically disposed at one end of the auxiliary clamping plate, the clamping arc surface is disposed at the end face of one end of the auxiliary clamping plate, and an anti-slip fixing strip is fixedly disposed on the clamping arc surface, the anti-slip fixing strip being arc-shaped.

[0016] A processing method for a fully automated intelligent copper sleeve processing equipment, the processing method being as follows:

[0017] S1: First, install the support insert on the workbench. Slide the limiting slide plate at the bottom of the positioning screw into one of the limiting slots on the workbench. After reaching the appropriate position, put the bearing block on the positioning screw, that is, the positioning screw passes through the connecting through hole in the bearing block. At the same time, place the support insert in the loading slot at the corresponding position. Finally, connect the internal thread positioning cap to the positioning screw with threads, and then tighten the internal thread positioning cap.

[0018] S2: For large copper bushing workpieces, temporary positioning is achieved by installing the first fastening assembly. First, the bottom end of the support threaded column in the first fastening assembly is threadedly connected to the loading threaded groove. Then, the copper bushing workpiece is placed on the worktable with the support threaded column inside the workpiece. Next, the fastening rod is fitted onto the support threaded column until it contacts the top of the copper bushing. Then, the locking nut is threadedly connected to the support threaded column until it is tightened, causing the locking nut to press against the fastening rod. This completes the temporary positioning of the large copper bushing.

[0019] S3: For small copper bushing workpieces, temporary positioning is achieved by installing a second fastening assembly. The copper bushing workpiece is placed directly in the placement cylinder of the second fastening assembly until the bottom of the copper bushing workpiece contacts the fixed cone. The fixed cone provides support for the copper bushing workpiece. Then, the positioning block is pushed by rotating the adjusting threaded column to clamp and position the copper bushing workpiece. Temporary positioning of small copper bushings can be completed.

[0020] Compared with the prior art, the beneficial effects of the present invention are:

[0021] This solution includes a worktable with a loading groove on top and a limiting groove at the bottom. A support strip is installed in the loading groove, equidistantly fixed to one side of a support rod. Loading threaded grooves are equidistantly arranged on the support strip, and a positioning component is installed on the other side of the support strip. The loading threaded grooves are connected to a clamping mechanism. During the milling of copper bushings, when temporary processing of a portion of the workpiece is required, this solution utilizes a clamping mechanism on the worktable in conjunction with the support strip for rapid temporary clamping and positioning, improving processing efficiency. For larger copper bushings, the first fastening component in the clamping mechanism provides positioning; for smaller workpieces, a second fastening component provides positioning. This offers high work flexibility, and the second fastening component can position multiple small copper bushings according to actual processing needs, further enhancing work flexibility. Attached Figure Description

[0022] Figure 1 This is a schematic diagram of the connection between the clamping mechanism for copper sleeve processing of the present invention and the worktable structure on the left side;

[0023] Figure 2 for Figure 1 Enlarged schematic diagram of the structural connection at point A;

[0024] Figure 3 This is a schematic diagram on the right side showing the connection between the clamping mechanism for copper sleeve processing of the present invention and the worktable structure;

[0025] Figure 4 for Figure 3 Enlarged schematic diagram of the structural connection at point B;

[0026] Figure 5 This is a schematic diagram showing the connection between the bearing rod and the positioning component structure of the present invention;

[0027] Figure 6 This is an exploded top view of the second fastening component structure connection of the present invention;

[0028] Figure 7 For this Figure 6 Enlarged schematic diagram of the structural connection at point C;

[0029] Figure 8 This is an exploded bottom view of the second fastening component structure connection of the present invention;

[0030] Figure 9 for Figure 8 Enlarged schematic diagram of the structural connection at point D;

[0031] Figure 10 This is an exploded view of the support structure connection of the present invention;

[0032] Figure 11 This is a schematic diagram showing the connection between the positioning clamp and the connecting accessories of the present invention;

[0033] Figure 12 This is a schematic diagram of the internal structure connection of the positioning clamping block of the present invention;

[0034] Figure 13 for Figure 12 Enlarged schematic diagram of the structural connection at point E in the middle.

[0035] In the diagram: Workbench 1, Loading trough 11, Limiting slide 12, Bearing rod 201, Support strip 202, Loading threaded groove 203, Bearing block 301, Connecting through hole 302, Positioning screw 303, Limiting slide plate 304, Internal threaded positioning cap 305, Supporting threaded post 401, Fastening rod 402, Through hole 403, Locking nut 404, Storage box 501, Connecting threaded post head 502, Placement slot 503, Filter screen 504, Limiting edge 505 506, fitting groove, 601, fixed cone, 602, support bar, 603, placement cylinder, 604, fixed frame, 605, positioning clamp, 606, connecting spring, mounting plate, 607, adjusting threaded post, 608, auxiliary handle, 609, receiving cavity groove, 701, auxiliary clamping plate, 702, auxiliary spring, 703, connecting block, 704, mating hole, 705, threaded cavity, 706, mounting threaded pin, 707, auxiliary inclined surface, 801, clamping arc surface, 802, anti-slip fixing strip, 803. Detailed Implementation

[0036] The technical solutions in the embodiments of the present invention will be clearly and completely described below. All other embodiments obtained by those skilled in the art without inventive effort are within the scope of protection of the present invention.

[0037] Example 1: Please refer to Figures 1-13 A fully automatic intelligent copper sleeve processing device includes a worktable 1, a loading groove 11 on the top of the worktable 1, and a limit groove 12 at the bottom of the loading groove 11; wherein a support strip 202 is provided in the loading groove 11, the support strip 202 is fixedly arranged at equal intervals on one side of the bearing rod 201, and loading thread grooves 203 are arranged at equal intervals on the support strip 202, a positioning component is provided on the other side of the support strip 202, and the loading thread grooves 203 are connected to the clamping mechanism.

[0038] In the milling process of copper bushings, when temporary processing is required on a localized part of the workpiece, this invention uses a clamping mechanism on the worktable 1 in conjunction with a support insert 202 for quick temporary clamping and positioning, improving processing efficiency. For larger copper bushings, the first fastening component in the clamping mechanism is used for positioning, while for smaller workpieces, a second fastening component is used. This provides high work flexibility, and the second fastening component can position multiple small copper bushings according to actual processing needs, further enhancing work flexibility.

[0039] First, install the support insert 202 on the workbench 1. Slide the limiting slide plate 304 at the bottom of the positioning screw 303 into one of the limiting grooves 12 on the workbench 1. After reaching the appropriate position, put the bearing block 301 on the positioning screw 303, that is, the positioning screw 303 passes through the connecting through hole 302 in the bearing block 301. At the same time, place the support insert 202 in the loading groove 11 at the corresponding position. Finally, thread the internal thread positioning cap 305 to the positioning screw 303 and tighten the internal thread. The positioning component includes a bearing block 301, a connecting through hole 302, a positioning screw 303, a limiting slide plate 304, and an internally threaded positioning cap 305. The bearing block 301 is fixedly disposed on one side of the bearing rod 201, and a connecting through hole 302 is provided through the bearing block 301. The bottom end of the positioning screw 303 is fixedly provided with a limiting slide plate 304, which is adapted to slide in the limiting slide groove 12. An internally threaded positioning cap 305 is threadedly connected to the positioning screw 303.

[0040] For larger copper sleeve workpieces, this solution uses a first fastening assembly for positioning. First, the bottom end of the support threaded post 401 in the first fastening assembly is threadedly connected to the loading threaded groove 203. Then, the copper sleeve workpiece is placed on the worktable 1, with the support threaded post 401 positioned inside the workpiece. Next, the fastening rod 402 is fitted onto the support threaded post 401 until it contacts the top of the copper sleeve. Finally, the locking nut 404 is threaded onto the support threaded post 401 until it is tightened. 4. Pressing the fastening rod 402 together completes the temporary positioning of the large copper sleeve; the clamping mechanism includes a first fastening component and a second fastening component, wherein the first fastening component includes a support threaded post 401, a fastening rod 402, a through hole 403 and a locking nut 404; the bottom end of the support threaded post 401 is threadedly connected to the loading threaded groove 203 on the support insert 202, the fastening rod 402 has a through hole 403 in the middle position and is sleeved on the support threaded post 401, and the locking nut 404 is threadedly connected to the support threaded post 401.

[0041] When temporary processing of the small copper sleeve is required, the second fastening assembly needs to be replaced. This involves disassembling the first fastening component, loosening the threaded connection between the support threaded post 401 and the loading threaded groove 203, and removing the support threaded post 401. Then, the connecting threaded post head 502 at the bottom of the storage box 501 is threadedly connected to the loading threaded groove 203. Multiple second fastening assemblies can be installed according to actual processing needs to process multiple small copper sleeves. The second fastening assembly includes a storage box 501, a connecting threaded post head 502, a placement slot 503, a filter screen 504, a limiting edge 505, a fitting groove 506, and a support structure. A connecting threaded post 502 is fixedly provided at the center of the bottom end of the storage box 501. The connecting threaded post 502 is threadedly connected to the loading threaded groove 203. A placement slot 503 is provided at the top opening of the storage box 501. A limiting edge 505 is provided on the arc-shaped side of the filter screen plate 504, and a fitting groove 506 is provided on the straight side of the filter screen plate 504. The filter screen plate 504 is a semi-circular plate, and two filter screen plates 504 are joined together to form a filter screen tray, which is placed on the placement slot 503. A support structure is provided on the storage box 501, including a fixed cone 601, a support strip 602, and a placement slot 503. The system includes a cylindrical body 603, a fixed frame 604, a positioning clamp 605, a connecting spring 606, a mounting plate 607, an adjusting threaded post 608, an auxiliary handle 609, and connecting accessories. A fixed cone 601 is fixedly positioned at the center of the storage box tray 501, and support bars 602 are equidistantly fixed to the conical surface of the fixed cone 601. A cylindrical body 603 is positioned at the top of the support bars 602. A fixed frame 604 is fixedly fixed to the side of the cylindrical body 603, and the fixed frame 604 communicates with the inner cavity of the cylindrical body 603. A connecting spring 606 is equidistantly welded to one side of the positioning clamp 605, and the other side of the connecting spring 606... The end is welded and fixed on the mounting plate 607. The mounting plate 607 and the frame opening of the fixed frame 604 are fixedly connected by screws. The mounting plate 607 is provided with a through threaded connection of an adjusting threaded post 608. One end of the adjusting threaded post 608 is fixedly provided with an auxiliary handle 609. The copper sleeve workpiece is placed directly in the placement cylinder 603 in the second fastening assembly until the bottom end of the copper sleeve workpiece contacts the fixed cone 601. The fixed cone 601 provides support for the copper sleeve workpiece. Then, by rotating the adjusting threaded post 608, the positioning clamp 605 is pushed to clamp and position the copper sleeve workpiece. Temporary positioning of small copper sleeves can be completed.

[0042] In the clamping and positioning of the small copper sleeve, some of its ends are provided with annular flanges. After the small copper sleeve is placed on the fixed cone 601 and inserted, this solution uses connecting accessories in the positioning clamping block 605 to also limit and clamp the annular flange of the small copper sleeve, further improving the positioning stability. The connecting accessories include a receiving cavity groove 701, an auxiliary clamping plate 702, an auxiliary spring 703, a connecting block 704, a mating hole 705, a threaded cavity 706, a mounting threaded pin 707, and auxiliary structures. The receiving cavity groove 701 is set in the positioning clamping block 605, and the receiving cavity... The top of the groove 701 is provided with a threaded cavity 706. One end of the auxiliary clamping plate 702 is fixedly provided with an auxiliary spring 703, and the other end of the auxiliary clamping plate 702 is provided with an auxiliary structure. The other end of the auxiliary spring 703 is fixedly provided on one side of the connecting block 704. The connecting block 704 is provided with a mating hole 705. The threaded pin 707 is adapted to be inserted into the mating hole 705, and the threaded pin 707 is adapted to be threadedly connected to the threaded cavity 706. The auxiliary structure includes an auxiliary inclined surface 801, a clamping arc surface 802, and an anti-slip fixing strip 803. The auxiliary inclined surface 801 is symmetrically arranged in the auxiliary... One end of the clamping plate 702 has a clamping arc-shaped surface 802 set on the end face of one end of the auxiliary clamping plate 702. An anti-slip fixing strip 803 is fixedly installed on the clamping arc-shaped surface 802, and the anti-slip fixing strip 803 is arc-shaped. When the positioning clamping block 605 is pushed to clamp the side wall of the copper sleeve, the auxiliary clamping plate 702 set in the positioning clamping block 605 will first contact the side wall of the copper sleeve, and will continue to push the positioning clamping block 605 by adjusting the threaded post 608 until the adjusting threaded post 608 is tightened. Multiple auxiliary clamping plates 702 are set in the positioning clamping block 605, and the auxiliary clamping plates 702 are squeezed... The pressure surface is equipped with anti-slip fixing strips 803 to further improve its clamping stability. Furthermore, during the extrusion clamping process of the annular flange at the end of the copper sleeve, the corresponding extruded auxiliary clamping plate 702 retracts into the positioning clamping block 605. The upper auxiliary clamping plate 702 contacts and extrudes the side wall of the copper sleeve. At this time, the upper auxiliary clamping plate 702 also has a limiting effect on the annular flange. In addition, auxiliary inclined surfaces 801 are symmetrically arranged on the upper and lower sides of the extrusion end of the auxiliary clamping plate 702, which have a better contact extrusion limiting effect on the annular flange, avoiding gaps and preventing contact problems.

[0043] When processing the small copper sleeve, the collection tray 501 in the second fastening component of this solution serves to collect the debris generated during processing, preventing excessive debris from scattering and providing localized collection. Furthermore, it also collects the coolant or cooling oil when needed. During processing, the fixed cone 601 and the placement cylinder 603 are connected by the support strip 602. The side wall of the fixed cone 601 does not contact the placement cylinder 603, leaving a certain space so that debris or coolant scattered in the inner cavity of the placement cylinder 603 can flow along the fixed cone 601 into the collection tray 501.

[0044] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A fully automatic intelligent copper sleeve processing equipment, including a workbench (1), wherein a loading trough (11) is provided on the top of the workbench (1), and a limit groove (12) is provided at the bottom of the loading trough (11). Its features are: The loading groove (11) is provided with a support strip (202), the support strip (202) is fixedly arranged at equal intervals on one side of the bearing rod (201), and the support strip (202) is provided with loading thread grooves (203) at equal intervals. The other side of the support strip (202) is provided with a positioning component, and the loading thread grooves (203) are connected to the clamping mechanism. The clamping mechanism includes a first fastening component and a second fastening component, wherein the first fastening component positions the large copper sleeve and the second fastening component positions the small copper sleeve; The second fastening assembly includes a storage box (501), a connecting threaded head (502), a placement slot (503), a filter plate (504), a limiting edge (505), a fitting groove (506), and a support structure; the storage box (501) has a connecting threaded head (502) fixedly provided at the center of its bottom end, the connecting threaded head (502) being threadedly connected to the loading threaded groove (203), the storage box (501) has a placement slot (503) at the top opening, the filter plate (504) has a limiting edge (505) on its arc-shaped side, and a fitting groove (506) on its straight side; The storage box (501) is provided with a support structure, which includes a fixed cone (601), a support bar (602), a placement cylinder (603), a fixed frame (604), a positioning clamp (605), a connecting spring (606), a mounting plate (607), an adjusting threaded column (608), an auxiliary handle (609), and connecting accessories; the fixed cone (601) is fixedly set at the center of the storage box (501), and the support bar (602) is fixedly set at equal intervals on the cone surface of the fixed cone (601), and the placement cylinder (603) is set at the top of the support bar (602). A fixed frame (604) is fixedly provided on the side of the placement cylinder (603), and the fixed frame (604) is connected to the inner cavity of the placement cylinder (603). A connecting spring (606) is welded at equal intervals on one side of the positioning clamp (605), and the other end of the connecting spring (606) is welded and fixedly provided on the mounting plate (607). The mounting plate (607) and the frame opening of the fixed frame (604) are fixedly connected by screws, and an adjusting threaded post (608) is provided through the mounting plate (607) with a through thread. An auxiliary handle (609) is fixedly provided at one end of the adjusting threaded post (608). The positioning clamp (605) is provided with connecting accessories, which include a receiving cavity (701), an auxiliary clamp (702), an auxiliary spring (703), a connecting block (704), a mating hole (705), a threaded cavity (706), a mounting threaded pin (707), and an auxiliary structure. The receiving cavity (701) is provided in the positioning clamp (605), and a threaded cavity (706) is provided at the top of the receiving cavity (701). An auxiliary spring (703) is fixedly provided at one end of the auxiliary clamp (702), and an auxiliary structure is provided at the other end of the auxiliary clamp (702). The other end of the auxiliary spring (703) is fixedly provided on one side of the connecting block (704). A mating hole (705) is provided in the connecting block (704). The mounting threaded pin (707) is adapted to be inserted into the mating hole (705), and the mounting threaded pin (707) is adapted to be threadedly connected to the threaded cavity (706).

2. The fully automated intelligent copper sleeve processing equipment according to claim 1, characterized in that: The positioning component includes a support block (301), a connecting through hole (302), a positioning screw (303), a limiting slide plate (304), and an internal thread positioning cap (305). The support block (301) is fixedly disposed on one side of the support rod (201), and the connecting through hole (302) is provided through the support block (301). The bottom end of the positioning screw (303) is fixedly provided with a limiting slide plate (304), and the limiting slide plate (304) is adapted to slide in the limiting slide groove (12). The positioning screw (303) is threadedly connected with an internal thread positioning cap (305).

3. The fully automated equipment for intelligent copper sleeve processing according to claim 2, characterized in that: The first fastening assembly includes a support threaded post (401), a fastening rod (402), a through hole (403), and a locking nut (404). The bottom end of the support threaded post (401) is threadedly connected to the loading threaded groove (203) on the support insert (202). The fastening rod (402) has a through hole (403) in the middle position and is sleeved on the support threaded post (401). The locking nut (404) is threadedly connected to the support threaded post (401).

4. The fully automated equipment for intelligent copper sleeve processing according to claim 3, characterized in that: The filter plate (504) is configured as a semi-circular plate, and two filter plates (504) are joined together to form a filter disk, and the filter disk is placed on the placement slot (503).

5. The fully automated equipment for intelligent copper sleeve processing according to claim 4, characterized in that: The auxiliary structure includes an auxiliary inclined surface (801), a clamping arc surface (802), and an anti-slip fixing strip (803); the auxiliary inclined surface (801) is symmetrically arranged at one end of the auxiliary clamping plate (702), the clamping arc surface (802) is arranged on the end face of one end of the auxiliary clamping plate (702), and an anti-slip fixing strip (803) is fixedly arranged on the clamping arc surface (802), the anti-slip fixing strip (803) is set in an arc shape.

6. A processing method for a fully automated intelligent copper sleeve processing device as described in claim 5, characterized in that, The processing method is as follows: S1: First, install the support strip (202) on the workbench (1). First, slide the limiting slide plate (304) at the bottom of the positioning screw (303) into one of the limiting slide grooves (12) on the workbench (1). After reaching the appropriate position, put the bearing block (301) on the positioning screw (303), that is, the positioning screw (303) passes through the connecting through hole (302) in the bearing block (301). At the same time, place the support strip (202) in the loading groove (11) at the corresponding position. Finally, connect the internal thread positioning cap (305) to the positioning screw (303) with the thread and tighten the internal thread positioning cap (305). S2: For large copper sleeve workpieces, temporary positioning is achieved by installing the first fastening assembly. First, the bottom end of the support threaded column (401) in the first fastening assembly is threadedly connected to the loading threaded groove (203). Then, the copper sleeve workpiece is placed on the workbench (1) with the support threaded column (401) inside the copper sleeve workpiece. Next, the fastening rod (402) is fitted onto the support threaded column (401) until the fastening rod (402) contacts the top of the copper sleeve. Then, the locking nut (404) is threadedly connected to the support threaded column (401) until the locking nut (404) is tightened, so that the locking nut (404) presses against the fastening rod (402). The temporary positioning of the large copper sleeve is thus completed. S3: For small copper sleeve workpieces, temporary positioning is achieved by installing a second fastening assembly. The copper sleeve workpiece is placed directly in the placement cylinder (603) of the second fastening assembly until the bottom end of the copper sleeve workpiece contacts the fixed cone (601). The fixed cone (601) provides support for the copper sleeve workpiece. Then, the positioning clamp (605) is pushed by rotating the adjusting threaded column (608) to clamp and position the copper sleeve workpiece. Temporary positioning of small copper sleeves can be completed.

Images