A cable bundle tape winding and bundling device

Abstract

The present invention discloses a cable bundle tape winding and bundling device. Its winding module includes a vertical frame, a splicing gear, a tape seat, and a winding motor. The splicing gear is rotatably arranged on the vertical frame. The through hole in the middle of the splicing gear and the vertical frame allows the cable bundle to pass through. The tape seat is rotatably arranged on the splicing gear for placing the tape roll. The winding motor is connected to the splicing gear to drive its rotation, driving the tape roll to rotate around the cable bundle for winding. The sliding table module includes a lead screw, a sliding table, and a sliding motor. The sliding table is arranged on the lead screw. The sliding motor is connected to the lead screw to drive its rotation, causing the sliding table to reciprocate. The vertical frame is rotatably arranged on the sliding table. By adjusting the relative rotation angle between the vertical frame and the sliding table, the helix angle α of the tape winding on the cable bundle is adjusted. By changing the speeds of the winding motor and the sliding motor, the overlapping width b of the tape on the cable bundle is adjusted. The present invention realizes the automatic and mechanized winding and bundling of cable bundles, liberates the labor force, and ensures the quality.

Description

Technical Field

[0001] The present invention relates to the field of cable bundle encapsulation, and particularly to a cable bundle tape winding and bundling device. Background Art

[0002] In many industries, cables need to be bundled into bundles with tape before wiring. This not only makes the circuit wiring clear, but also has a certain protective effect on the cables. Especially in industries such as large household appliance manufacturing, there are strict quality requirements for using tape to bundle cable bundles. For example, Figure 9 As shown, there are strict requirements for the spiral angle α of the bundling winding and the overlapping width b of the tape. At present, the commonly used manual winding is time-consuming and laborious, and it is difficult to guarantee the quality. Summary of the Invention

[0003] The purpose of the present invention is to overcome the deficiencies of the prior art and provide a cable bundle tape winding and bundling device. Through a mechanized structural arrangement, the automatic winding and bundling of the cable bundle can be realized, and the spiral angle α of the bundling winding and the overlapping width b of the tape can be adjusted to meet a wider range of usage requirements.

[0004] The present invention adopts the following technical solutions: A cable bundle tape winding and bundling device includes a workbench, a sliding table module, a clamping module, and a winding module. The sliding table module is arranged on the workbench. The clamping module is arranged above the sliding table module and at both ends of the sliding table module for clamping the cable bundle. The winding module is arranged on the sliding table module for reciprocating movement. The winding module includes a vertical frame, a splicing gear, a tape seat, and a winding motor. The splicing gear is rotatably arranged on the vertical frame. There is a through hole in the middle of the splicing gear and the vertical frame for the cable bundle to pass through. The tape seat is rotatably arranged on the splicing gear for placing the tape roll. The winding motor is connected to the splicing gear to drive it to rotate, thereby driving the tape to wind around the cable bundle for winding. The sliding table module includes a lead screw, a sliding table, and a sliding motor. The sliding table is arranged on the lead screw. The sliding motor is connected to the lead screw to drive it to rotate, thereby driving the sliding table to reciprocate. The vertical frame is rotatably arranged on the sliding table. By adjusting the relative rotation angle between the vertical frame and the sliding table, the spiral angle α of the tape and the cable bundle winding can be adjusted. By changing the speeds of the winding motor and the sliding motor, the overlapping width b of the tape on the cable bundle can be adjusted.

[0005] As an improvement, the winding module further includes a driving gear and a plurality of guide wheels. The driving gear is arranged on the output shaft of the winding motor. The outer edge of the splicing gear forms mating teeth and meshes with the driving gear for transmission. The plurality of guide wheels are arranged in a circular arrangement on the vertical frame. The inner edge of the splicing gear is supported on the outer circumference of the plurality of guide wheels and rotates under the support of the plurality of guide wheels.

[0006] As an improvement, the splicing gear is composed of multiple arc-shaped pieces spliced together, and the multiple arc-shaped pieces are installed and fixed through connecting plates.

[0007] As an improvement, the tape dispenser includes a fixed ring and a quick-insert core. The fixed ring is arranged on the splicing gear, and the quick-insert core is detachably arranged on the fixed ring. The outer surface of the fixed ring is for installing the tape roll, and the inner surface is for inserting the quick-insert core. A boss for limiting the tape roll is arranged on the quick-insert core, and protruding teeth are arranged on the outer surface of the quick-insert core. A number of limiting holes for the protruding teeth to snap into and be limited are arranged on the inner surface of the fixed ring. The number of limiting holes is arranged along the axial direction of the fixed ring. When the protruding teeth snap into different limiting holes, the position of the boss is limited to adapt to tape rolls of different width specifications; a relief groove is formed on the quick-insert core, so that the quick-insert core can be pressed to deform towards the relief groove, and the protruding teeth are disengaged from the limiting holes.

[0008] As an improvement, the vertical frame is arranged on a dividing plate. A number of positioning holes are arranged on the dividing plate. A positioning pin is arranged on the sliding table. The positioning pin can move up and down and is inserted for limiting when aligned with the positioning holes. The vertical frame and the dividing plate rotate to adjust the angle, and the helix angle α of the cable bundle winding is locked by corresponding different positioning holes to the positioning pin.

[0009] As an improvement, the positioning pin is arranged on the sliding table through an adjustment mechanism. The adjustment mechanism includes a pin plate and a pin wrench. The pin plate is installed on the sliding table and forms a horizontal groove above for the positioning pin to slide. The positioning pin is arranged in the horizontal groove and passes through the horizontal groove upward and is hinged to the pin wrench. The pin wrench rotates to make the positioning pin rise or fall. When the positioning pin slides in the horizontal groove, it corresponds to different radius positions of the dividing plate. A number of positioning holes are arranged at different radius positions of the dividing plate for the positioning pin to insert, corresponding to more angle locking positions.

[0010] As an improvement, the sliding table module further includes a mounting base plate, front and rear side plates, guide posts, nut seats, lead screw nuts and linear bearings. The mounting base plate is arranged on the workbench. The front and rear side plates are installed on the front and rear sides of the mounting base plate. The two ends of the lead screw and the guide posts are arranged on the side plates. A lead screw nut is arranged in cooperation with the lead screw. The lead screw nut is installed on the nut seat. The nut seat is installed with the sliding table. Linear bearings are arranged on the sliding table. The linear bearings are sleeved on the guide posts and slide and are horizontally arranged in two groups to form a plane support structure.

[0011] As an improvement, the side plates extend upward to form vertical plates. Clamping modules are arranged on the front and rear vertical plates. The clamping modules include clamping cylinders and left and right claws arranged in cooperation with the clamping cylinders. Angular clamping mouths are formed oppositely on the left and right claws. When the angular clamping mouths on both sides are closed, a diamond-shaped clamping area is formed.

[0012] Advantages of the present invention: By relying on the design of the structure to position the cable bundle and through the coordinated operation of the sliding table module and the winding module, the tape can be automatically wound on the cable bundle. The spiral angle α of the bundling and winding and the overlapping width b of the tape can be adjusted and controlled, thus replacing manual labor to complete the original cumbersome winding process. Moreover, the winding efficiency and the finished product rate are higher, liberating the labor force, ensuring the quality, and meeting a wider range of usage requirements. BRIEF DESCRIPTION OF THE DRAWINGS

[0013] Figure 1 is a three-dimensional structural schematic diagram of the present invention.

[0014] Figure 2 is a three-dimensional structural schematic diagram of the winding module of the present invention.

[0015] Figure 3 is a partial three-dimensional structural schematic diagram of the winding module of the present invention.

[0016] Figure 4 is a three-dimensional structural schematic diagram of the working of the positioning pin and the adjustment of the indexing plate of the present invention.

[0017] Figure 5 is an exploded three-dimensional structural schematic diagram of the tape seat and the tape roll of the present invention.

[0018] Figure 6 is a top view structural schematic diagram of the indexing plate of the present invention.

[0019] Figure 7 is a three-dimensional structural schematic diagram of the sliding table module of the present invention.

[0020] Figure 8 is a three-dimensional structural schematic diagram of two states of the clamping module of the present invention.

[0021] Figure 9 is a schematic diagram of the cable bundle winding of the present invention. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0022] The following will give a detailed description of the specific embodiments of the present invention with reference to the accompanying drawings.

[0023] As Figures 1-8As shown, it is a specific embodiment of the cable bundle tape winding and bundling device of the present invention. This embodiment includes a workbench 1, a slide table module 3, a clamping module 5, and a winding module 6. The slide table module 3 is arranged on the workbench 1. The clamping module 5 is arranged above the slide table module 3 and at both ends of the slide table module 3 for clamping the cable bundle. The winding module 6 is arranged on the slide table module 3 for reciprocating movement. The winding module 6 includes a vertical frame 601, a splicing gear 605, a tape seat 606, and a winding motor 607. The splicing gear 605 is rotatably arranged on the vertical frame 601. There is a through hole in the middle of the splicing gear 605 and the vertical frame 601 for the cable bundle to pass through. The tape seat 606 is rotatably arranged on the splicing gear 605 for placing the tape roll. The winding motor 607 is connected to the splicing gear 605 to drive it to rotate, so as to drive the tape roll to rotate around the cable bundle for winding. The slide table module 3 includes a lead screw 303, a slide table 306, and a sliding motor 310. The slide table 306 is arranged on the lead screw 303. The sliding motor 310 is connected to the lead screw 303 to drive it to rotate, so as to drive the slide table 306 to perform reciprocating motion. The vertical frame 601 is rotatably arranged on the slide table 306. By adjusting the relative rotation angle between the vertical frame 601 and the slide table 306, the helix angle α of the tape winding on the cable bundle is adjusted. By changing the speeds of the winding motor 607 and the sliding motor 310, the overlapping width b of the tape on the cable bundle is adjusted.

[0024] When the present invention is in use, the cable bundle passes through the through holes in the middle of the splicing gear 605 and the vertical frame 601, and both ends are respectively placed in the clamping module 5 to complete positioning. The vertical frame 601 is rotated according to the required helix angle α of the tape winding on the cable bundle, and rotated to the required angle on the slide table 306 for positioning, so as to complete the accurate adjustment of the helix angle α. The overall device can be configured with a control cabinet 2 and a touch screen 7 connected to each other. A control module is set in the control cabinet 2, which is signal-connected to the driving components, such as the above-mentioned winding motor 607 and sliding motor 310. Then, the user can input parameters through the touch screen 7, set parameters such as winding frequency and feed speed, so that the winding motor 607 and the sliding motor 310 are in corresponding appropriate parameters during operation, achieving the accurate adjustment of the overlapping width b of the tape on the cable bundle. A tape roll is placed on the tape seat 606, and the tape is pulled out and attached to the cable bundle. When the device starts to run, the winding motor 607 drives the tape seat 606 to perform circular rotation, so that the tape is wound around the cable bundle. The sliding motor 310 drives the winding module 6 to move forward, so that the tape is wound around the entire cable bundle at a predetermined helix angle α and overlapping width b. After the tape winding and bundling of the entire cable bundle is completed, the staff cuts off the tape and removes the cable bundle, and the device can be reset to perform the winding and bundling of the next cable bundle. The winding and bundling process of the present invention well replaces the original cumbersome manual winding process, making the winding efficiency and the finished product rate higher, liberating the labor force, ensuring the quality, and meeting a wider range of use requirements.

[0025] As an improved specific implementation manner, the winding module 6 further includes a driving gear 602 and a plurality of guide wheels 604. The driving gear 602 is arranged on the output shaft of the winding motor 607. The outer edge of the splicing gear 605 forms mating teeth and meshes with the driving gear 602 for transmission. The plurality of guide wheels 604 are arranged in a circular pattern on the vertical frame 601. The inner edge of the splicing gear 605 is supported on the outer circumference of the plurality of guide wheels 604 and rotates under the support of the plurality of guide wheels 604.

[0026] As Figure 2 , 3 shown in

[0027] As an improved specific implementation manner, the splicing gear 605 is formed by splicing a plurality of arc-shaped pieces, and the plurality of arc-shaped pieces are installed and fixed through a connecting plate 603.

[0028] As Figure 2 , 3 shown in

[0029] As a specific improved embodiment, the tape dispenser 606 includes a fixing ring 6062 and a quick-insert core 6061. The fixing ring 6062 is arranged on the splicing gear 605, and the quick-insert core 6061 is detachably arranged on the fixing ring 6062. The outer surface of the fixing ring 6062 is for installing the tape roll, and the inner surface is for inserting the quick-insert core 6061. A boss 6063 for limiting the tape roll is arranged on the quick-insert core 6061, and protrusions 6064 are arranged on the outer surface of the quick-insert core 6061. A plurality of limiting holes 6065 for the protrusions 6064 to be snapped into for limiting are arranged on the inner surface of the fixing ring 6062. The plurality of limiting holes 6065 are arranged along the axial direction of the fixing ring 6062. When the protrusions 6064 are snapped into different limiting holes 6065, the position of the boss 6063 is limited to adapt to tape rolls of different width specifications; a relief groove 6066 is formed on the quick-insert core 6061, so that the quick-insert core 6061 can be pressed to deform towards the relief groove 6066, and the protrusions 6064 are disengaged from the limiting holes 6065.

[0030] As Figure 3 , 5 shown, the fixing ring 6062 is installed on the splicing gear 605 from one side, and the tape roll 9 is sleeved on the outer surface cylinder of the fixing ring 6062. After the quick-insert core 6061 is installed on the fixing ring 6062 from the other side of the splicing gear 605, the front and rear limits can be formed by the boss 6063 of the quick-insert core 6061 and the splicing gear 605 to stabilize the tape roll 9; if the fixing ring 6062 and the quick-insert core 6061 are on the same side of the splicing gear 605, then the front and rear limits are formed by the fixing ring 6062 and the quick-insert core 6061 to stabilize the tape roll 9. There are protrusions 6064 on the outer surface cylinder of the quick-insert core 6061. The quick-insert core 6061 is inserted into the inner surface round hole of the fixing ring 6062, and the inner surface has limiting holes 6065. The protrusions 6064 are snapped into the limiting holes 6065 to achieve quick installation. Pressing both ends of the quick-insert core 6061 to make the quick-insert core 6061 deform structurally through the relief groove 6066 can disengage the protrusions 6064 from the limiting holes 6065 for quick disassembly. And a plurality of limiting holes 6065 are arranged axially to meet the installation requirements of tape rolls 9 of different width models respectively, making the equipment more widely applicable.

[0031] As a specific improved embodiment, the vertical frame 601 is arranged on a dividing plate 610. A plurality of positioning holes 6101 are arranged on the dividing plate 610. A positioning pin 611 is arranged on the sliding table 306. The positioning pin 611 can move up and down and is inserted for limiting when aligned with the positioning holes 6101. The vertical frame 601 and the dividing plate 610 rotate to adjust the angle, and the spiral angle α of the cable bundle winding is locked by the corresponding positioning pin 611 through different positioning holes 6101.

[0032] As Figure 1 , 2As shown, the relative angle between the vertical frame 601 and the sliding table 306 is locked by the provided indexing plate 610 and positioning structure, and the angular position is better determined. Multiple positioning holes 6101 marked with angles are pre-designed on the indexing plate 610. The indexing plate 610 and the vertical frame 601 rotate around the sliding table 306. When the positioning hole 6101 marked with the required angle corresponds to the positioning pin 611, the position of the indexing plate 610 and the vertical frame 601 can be locked by the positioning pin 611 descending and inserting into the corresponding positioning hole 6101, thereby determining the spiral angle α of the tape winding and maintaining the stability of the structure well.

[0033] As a specific embodiment of the improvement, the positioning pin 611 is arranged on the sliding table 306 through an adjustment mechanism. The adjustment mechanism includes a pin plate 609 and a pin wrench 608. The pin plate 609 is installed on the sliding table 306 and forms a horizontal slot 612 for the positioning pin 611 to slide on the upper part. The positioning pin 611 is arranged in the horizontal slot 612 and passes through the horizontal slot 612 upward and is hinged to the pin wrench 608. The pin wrench 608 rotates to make the positioning pin 611 rise or fall. When the positioning pin 611 slides in the horizontal slot 612, it corresponds to different radius positions of the indexing plate 610. A number of positioning holes 6101 are arranged at different radius positions of the indexing plate 610 for the positioning pin 611 to insert, corresponding to more angular locking positions.

[0034] As Figure 2 、 4 As shown in FIGS. 6, the pin plate 609 is fixed to the side of the sliding table 306. The upper part of the pin plate 609 extends inward and forms a plane, and the horizontal slot 612 is machined on this plane. The horizontal slot 612 is preferably on the rotation radius of the indexing plate 610. Then the movement of the positioning pin 611 in the horizontal slot 612 is the movement along the rotation radius of the indexing plate 610, which can better align with the positioning hole 6101 on the indexing plate 610. The pin wrench 608 is hinged to one end of the positioning pin 611 passing through the pin plate 609 above. A spring is arranged between the positioning pin 611 and the pin plate 609 to provide an elastic force when the pin wrench 608 rotates to make the positioning pin 611 descend, so that the positioning pin 611 is inserted into the positioning hole 6101 more stably; operating the pin wrench 608 to lift the positioning pin 611 can separate it from the indexing plate 610. By arranging a number of positioning holes 6101 at different radius positions of the indexing plate 610 for the positioning pin 611 to insert, as Figure 6 shown, the positioning holes 6101 can be set more dispersedly and in a larger number to meet more refined angle adjustment and positioning. Since the positioning pin 611 can move in the horizontal slot 612 to reach different radius positions, the positioning holes 6101 at different radius positions can be aligned and locked. On the basis of realizing more refined angle adjustment, this also reduces the design difficulty of the original indexing plate 610 wanting to set more hole structures under a single radius circumference.

[0035] As an improved specific implementation method, the slide module 3 also includes a mounting base plate 304, front and rear side plates 301, guide columns 302, nut seats 307, screw nuts 308 and linear bearings 305. The mounting base plate 304 is arranged on the workbench 1, and the front and rear side plates 301 are installed on the front and rear sides of the mounting base plate 304. The screw 303 and the two ends of the guide column 302 are arranged on the side plate 301. The screw nut 308 is arranged on the screw 303, and the screw nut 308 is installed on the nut seat 307. The slide 306 is installed on the nut seat 307, and the linear bearing 305 is arranged on the slide 306. The linear bearing 305 is sleeved on the guide column 302 for sliding and two groups are horizontally arranged to form a planar support structure.

[0036] like Figure 1 , 7 As shown, the mounting base 304 is stably mounted on the workbench 1, and the front and rear side panels 301 form a right-angle structure with good strength on the mounting base 304. The side panels 301 are rotatably mounted on the screw rod 303, and the guide column 302 is fixedly mounted above the screw rod 303; the sliding motor 310 is connected to the screw rod 303 through a coupling 309 to drive the rotation; the slide 306 has a built-in linear bearing 305, and a nut seat 307 is installed on the lower side of the slide 306 and a screw nut 308 is built in. The screw nut 308 is sleeved on the screw rod 303, and the slide 306 can be controlled to move along the screw rod 303 by the sliding motor 310; preferably, two sets of guide columns 302 and linear bearings 305 are horizontally arranged, so that the slide 306 is stably supported by a plane and can perform stable translation.

[0037] As an improved specific implementation method, the side panel 301 extends upward to form a vertical panel 4, and a clamping module 5 is arranged on the front and rear vertical panels 4. The clamping module 5 includes a clamping cylinder 501 and a left claw 502 and a right claw 503 arranged on the clamping cylinder 501 to cooperate with each other. The left claw 502 and the right claw 503 form an angular clamping opening 504 on each side, and a diamond-shaped clamping area 505 is formed when the angular clamping openings 504 on both sides are closed.

[0038] like Figure 1 , 8 As shown, the side panels 301 and the vertical panels 4 are installed and arranged correspondingly to form front and rear extreme positions for the installation of the clamping module 5, wherein the clamping cylinder 501 drives the left claw 502 and the right claw 503 to separate and close, and when closing, the left claw 502 and the right claw 503 can clamp the cables therein; in specific implementation, the angular clamping opening 504 formed on the left claw 502 and the right claw 503 can form a structural limit at the oblique upper and lower positions, and the diamond-shaped clamping area 505 formed when closing allows the cable bundle to be evenly clamped and concentrated, so that the bundled cable bundles are not easily squeezed and offset from each other, and the whole can have better contact and mutual resistance.

[0039] The above are only the preferred embodiments of the present invention, and the protection scope of the present invention is not limited to the above embodiments. All technical solutions falling within the concept of the present invention belong to the protection scope of the present invention. It should be noted that for those of ordinary skill in the art, without departing from the principle of the present invention, several improvements and refinements should also be regarded as within the protection scope of the present invention.

Claims

1. A cable bundle tape winding and bundling device, characterized in that: It includes a workbench (1), a sliding table module (3), a clamping module (5) and a winding module (6). The sliding table module (3) is arranged on the workbench (1). The clamping module (5) is arranged above the sliding table module (3) and at both ends of the sliding table module (3) for clamping the cable bundle. The winding module (6) is arranged on the sliding table module (3) to perform reciprocating movement. The winding module (6) includes a vertical frame (601), a splicing gear (605), a tape seat (606) and a winding motor (607). The splicing gear (605) is rotatably arranged on the vertical frame (601). There is a through hole in the middle of the splicing gear (605) and the vertical frame (601) for the cable bundle to pass through. The tape seat (606) is rotatably arranged on the splicing gear (605) for placing the tape roll. The winding motor (607) is connected to the splicing gear (605) to drive it to rotate, so as to drive the tape roll to rotate around the cable bundle for winding. The sliding table module (3) includes a lead screw (303), a sliding table (306) and a sliding motor (310). The sliding table (306) is arranged on the lead screw (303). The sliding motor (310) is connected to the lead screw (303) to drive it to rotate, so as to drive the sliding table (306) to perform reciprocating movement. The vertical frame (601) is rotatably arranged on the sliding table (306). By adjusting the relative rotation angle between the vertical frame (601) and the sliding table (306), the helix angle α of the tape winding the cable bundle is adjusted. By changing the speeds of the winding motor (607) and the sliding motor (310), the overlapping width b of the tape on the cable bundle is adjusted; The winding module (6) further includes a driving gear (602) and a plurality of guide wheels (604). The driving gear (602) is arranged on the output shaft of the winding motor (607). The outer edge of the splicing gear (605) forms mating teeth and meshes with the driving gear (602) for transmission. The plurality of guide wheels (604) are arranged in a circular pattern on the vertical frame (601). The inner edge of the splicing gear (605) is supported on the outer circumference of the plurality of guide wheels (604) and rotates under the support of the plurality of guide wheels (604); The tape holder (606) includes a fixing ring (6062) and a quick-insert core (6061). The fixing ring (6062) is arranged on the splicing gear (605), and the quick-insert core (6061) is detachably arranged on the fixing ring (6062). The outer surface of the fixing ring (6062) is for installing a tape roll, and the inner surface is for inserting the quick-insert core (6061). A boss (6063) for limiting the tape roll is arranged on the quick-insert core (6061), and protruding teeth (6064) are arranged on the outer surface of the quick-insert core (6061). A plurality of limiting holes (6065) for the protruding teeth (6064) to be inserted and limited are arranged on the inner surface of the fixing ring (6062). The plurality of limiting holes (6065) are arranged along the axial direction of the fixing ring (6062). When the protruding teeth (6064) are inserted into different limiting holes (6065), the position of the boss (6063) is limited to adapt to tape rolls of different width specifications. A relief groove (6066) is formed on the quick-insert core (6061), so that the quick-insert core (6061) can be pressed to deform towards the relief groove (6066) to disengage the protruding teeth (6064) from the limiting holes (6065). The upright frame (601) is arranged on a dividing plate (610). A plurality of positioning holes (6101) are arranged on the dividing plate (610). A positioning pin (611) is arranged on the sliding table (306). The positioning pin (611) can move up and down and is inserted for limiting when aligned with the positioning holes (6101). The upright frame (601) and the dividing plate (610) rotate to adjust the angle, and the spiral angle α of the cable bundle winding is locked by corresponding the positioning pin (611) with different positioning holes (6101). The positioning pin (611) is arranged on the sliding table (306) through an adjustment mechanism. The adjustment mechanism includes a pin plate (609) and a pin wrench (608). The pin plate (609) is installed on the sliding table (306) and forms a horizontal groove (612) above for the positioning pin (611) to slide. The positioning pin (611) is arranged in the horizontal groove (612) and protrudes out of the horizontal groove (612) above and is hinged to the pin wrench (608). The pin wrench (608) rotates to make the positioning pin (611) rise or fall. When the positioning pin (611) slides in the horizontal groove (612), it corresponds to different radial positions of the dividing plate (610). A plurality of positioning holes (6101) are arranged at different radial positions of the dividing plate (610) for the positioning pin (611) to insert, corresponding to more angle locking positions.

2. A cable bundle tape winding and bundling device according to claim 1, characterized in that: The splicing gear (605) is formed by splicing a plurality of arc-shaped pieces, and the plurality of arc-shaped pieces are installed and fixed through a connecting plate (603).

3. A cable bundle tape winding and bundling device according to claim 1, characterized in that: The slide table module (3) further includes a mounting base plate (304), front and rear side plates (301), guide posts (302), nut seats (307), lead screw nuts (308) and linear bearings (305). The mounting base plate (304) is arranged on the workbench (1), and the front and rear side plates (301) are installed on the front and rear sides of the mounting base plate (304). The two ends of the lead screw (303) and the guide posts (302) are arranged on the side plates (301). A lead screw nut (308) is arranged in a matching manner on the lead screw (303). The lead screw nut (308) is installed on the nut seat (307). A slide table (306) is installed on the nut seat (307). Linear bearings (305) are arranged on the slide table (306). The linear bearings (305) are sleeved on the guide posts (302) for sliding and are horizontally arranged in two groups to form a plane support structure.

4. A cable bundle tape winding and bundling device according to claim 3, characterized in that: the side plates (301) extend upward to form vertical plates (4), and clamping modules (5) are arranged on the front and rear vertical plates (4). The clamping module (5) includes a clamping cylinder (501) and a left claw (502) and a right claw (503) arranged in cooperation on the clamping cylinder (501). Opposite angular clamping openings (504) are formed on the left claw (502) and the right claw (503). When the angular clamping openings (504) on both sides are closed, a diamond-shaped clamping area (505) is formed.

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