High-efficiency wire arranging device for paper-wrapped copper flat wire

Abstract

The present application relates to paper package copper flat wire manufacturing equipment technical field, especially paper package copper flat wire with high -efficient wire arrangement device. Technical problem: because paper package copper flat wire is affected by its own stress when arranging wire and is easy to arch, and the current wire arrangement device is not convenient to apply stable tension to paper package copper flat wire when arranging wire, leading to paper package copper flat wire not enough close when arranging wire, and because paper package copper flat wire is easy to produce unnecessary overlap when arranging wire, and the current wire arrangement device is difficult to correct overlapping paper package copper flat wire when arranging wire, leading to the wire layer of arranging wire not enough flat, thereby leading to the wire arrangement effect of paper package copper flat wire is poor. Paper package copper flat wire with high -efficient wire arrangement device, including frame, frame is fixedly connected with two support seats. Contact lever can apply stable tension to paper package copper flat wire while not pressing paper package copper flat wire, thereby making paper package copper flat wire more close when arranging wire, enhancing the wire arrangement effect of paper package copper flat wire.

Description

Technical Field

[0001] This invention relates to the field of paper-insulated copper flat wire manufacturing equipment, and in particular to a high-efficiency wire laying device for paper-insulated copper flat wire. Background Technology

[0002] In the field of power transmission and electronic equipment manufacturing, paper-insulated copper flat wire is widely used due to its excellent conductivity and insulation properties. After the paper-insulated copper flat wire is produced, it needs to be wound up. Random winding not only affects the appearance of the product, but may also damage the insulation layer. Therefore, a winding device is needed to wind the paper-insulated copper flat wire. During winding, the winding device will use reciprocating guide wheels and limit rollers to evenly arrange the paper-insulated copper flat wire on the reel, thereby completing the winding of the paper-insulated copper flat wire.

[0003] Because paper-insulated copper flat wires are prone to arching due to their own stress during the laying process, and current laying devices are not convenient for applying stable tension to the paper-insulated copper flat wires during laying, the paper-insulated copper flat wires are not laid tightly enough. Furthermore, because paper-insulated copper flat wires are prone to unnecessary overlap during laying, and current laying devices are difficult to correct the overlapped paper-insulated copper flat wires during laying, the wire layers are not flat enough, resulting in poor laying effect of paper-insulated copper flat wires. Summary of the Invention

[0004] To overcome the above-mentioned shortcomings, the present invention provides a high-efficiency wire laying device for paper-insulated copper flat wire, which can apply stable tension to the paper-insulated copper flat wire to make the wire laying tighter and correct overlapping paper-insulated copper flat wires to make the wire layer flatter, thereby enhancing the wire laying effect of paper-insulated copper flat wire.

[0005] The technical implementation of the present invention is as follows: a high-efficiency wire laying device for paper-insulated copper flat wire includes a frame, two support seats fixedly connected to the frame, two support rollers rotatably connected between the two support seats, a wire spool placed on the two support rollers, insertion holes on both sides of the wire spool, paper-insulated copper flat wire connected to the wire spool, a fixing mechanism for fixing the wire spool on the frame, a driving component for driving the wire spool on the frame, and a wire laying mechanism for laying wire on the frame.

[0006] Optionally, the fixing mechanism includes a hydraulic rod fixed to the frame. A guide frame is fixed to the telescopic rod of the hydraulic rod. Both ends of the guide frame have inclined slots. Sliding frames are slidably connected to both sides of the frame. The two sliding frames are slidably connected to the inclined slots at both ends of the guide frame. Two rotating disks are rotatably connected to the frame. Synchronizing columns are slidably connected inside the two rotating disks. The two synchronizing columns are aligned with the insertion holes on both sides of the coil. The ends of the two synchronizing columns that are far apart from each other are rotatably connected to the two sliding frames.

[0007] Optionally, the drive assembly includes a geared motor, which is fixedly connected to the frame. A first gear is fixedly connected to the output shaft of the geared motor, and a second gear is fixedly connected to the rotating disk near the geared motor. The second gear meshes with the first gear.

[0008] Optionally, each of the two synchronization posts has several grooves.

[0009] Optionally, the wiring mechanism includes a support frame fixed to the machine frame, a bidirectional reciprocating screw rotatably connected to the support frame, a translation frame slidably connected to the support frame, the translation frame being threadedly connected to the bidirectional reciprocating screw, two limiting rollers rotatably connected to the translation frame, both limiting rollers contacting the paper-insulated copper flat wire, two first guide wheels rotatably connected to one side of the translation frame, both first guide wheels contacting the paper-insulated copper flat wire, and a synchronization component for synchronization is provided on the bidirectional reciprocating screw.

[0010] Optionally, the synchronization component includes a first synchronization pulley, which is fixed to the end of the bidirectional reciprocating screw away from the geared motor. A second synchronization pulley is fixed to a rotating disk near the first synchronization pulley, and a synchronization belt is wound between the second synchronization pulley and the first synchronization pulley.

[0011] Optionally, it also includes an anti-arching mechanism, which is mounted on a guide frame and used to extrude paper-wrapped copper flat wire. The anti-arching mechanism includes a limit frame, which is fixedly connected to the guide frame. A support block is fixedly connected to the frame, and a rotating arm is rotatably connected to the support block. Cranks are provided at both ends of the bottom of the rotating arm. The two ends of the limit frame are in contact with the cranks at the bottom of the rotating arm, respectively. Slider blocks are slidably connected to both ends of the upper part of the rotating arm. A contact rod is fixedly connected between the two sliders. Torsion springs are connected between the bottom ends of the rotating arm and the support block.

[0012] Optionally, the contact rod is made of rubber.

[0013] Optionally, it also includes an anti-overlapping mechanism, which is disposed on the slider to prevent the paper-wrapped copper flat wires from overlapping. The anti-overlapping mechanism includes a connecting frame, which is fixed between the two sliders. The connecting frame has a strip groove. A crankshaft is rotatably connected inside the rotating arm. The top end of the crankshaft is slidably connected to the strip groove of the connecting frame. A first bevel gear is fixedly connected to the bottom end of the crankshaft. A support sleeve is fixedly connected to the frame. A drive shaft is rotatably connected inside the support sleeve. The drive shaft is rotatably connected to the rotating arm. A second bevel gear is fixedly connected to the end of the drive shaft near the rotating arm. The second bevel gear meshes with the first bevel gear. A second drive wheel is fixedly connected to the end of the drive shaft away from the rotating arm. A first drive wheel is fixedly connected to a rotating disk near the second drive wheel. A drive belt is wound around the first drive wheel and the second drive wheel.

[0014] Optionally, it also includes a stabilizing component, which is mounted on a translation frame and used to stabilize the paper-insulated copper flat wire. The stabilizing component includes a rotating frame, which is rotatably connected to the translation frame. Two second guide wheels are rotatably connected to the rotating frame, and both second guide wheels are in contact with the paper-insulated copper flat wire.

[0015] Compared with the prior art, the present invention has the following advantages: 1. The rotating frame will automatically adapt to the tilt angle of the paper-covered copper flat wire by means of the second guide wheel, so that the second guide wheel continuously stabilizes the paper-covered copper flat wire, thereby preventing the paper-covered copper flat wire from twisting and shaking, and enhancing the wiring effect of the paper-covered copper flat wire.

[0016] 2. The torsion spring applies downward pressure to the contact rod through the rotating arm and slider, squeezing the paper-insulated copper flat wire. At the same time, the rubber contact rod can apply resistance to the movement of the paper-insulated copper flat wire without damaging it, so that the contact rod applies stable tension to the paper-insulated copper flat wire, thereby making the paper-insulated copper flat wire more tightly laid and further enhancing the laying effect of the paper-insulated copper flat wire.

[0017] 3. While laying the wires, the paper-insulated copper flat wires are moved back and forth by the contact rod to correct the overlapping paper-insulated copper flat wires, thereby making the wire layers flatter and further enhancing the laying effect of the paper-insulated copper flat wires. Attached Figure Description

[0018] Figure 1 This is a three-dimensional structural diagram of the present invention.

[0019] Figure 2 This is a partial three-dimensional structural schematic diagram of the present invention.

[0020] Figure 3 This is a three-dimensional structural diagram of the fixing mechanism and the wiring mechanism of the present invention.

[0021] Figure 4 This is a cross-sectional three-dimensional structural diagram of the fixing mechanism of the present invention.

[0022] Figure 5 This is a schematic diagram of the disassembled three-dimensional structure of the fixing mechanism of the present invention.

[0023] Figure 6 This is a three-dimensional structural diagram of the wiring mechanism and synchronization component of the present invention.

[0024] Figure 7 This is a three-dimensional structural diagram of the wiring mechanism of the present invention.

[0025] Figure 8 This is a partial cross-sectional three-dimensional structural schematic diagram of the wiring mechanism of the present invention.

[0026] Figure 9This is a three-dimensional structural diagram of the fixing mechanism and anti-arching mechanism of the present invention.

[0027] Figure 10 This is a three-dimensional structural diagram of the anti-arching mechanism of the present invention.

[0028] Figure 11 This is a three-dimensional structural diagram of the anti-arching mechanism and the anti-overlapping mechanism of the present invention.

[0029] Figure 12 This is a partial three-dimensional structural diagram of the anti-overlapping mechanism of the present invention.

[0030] Figure 13 This is a partial three-dimensional structural diagram of the anti-overlapping mechanism of the present invention.

[0031] Figure 14 This is a three-dimensional structural diagram of the stabilizing component of the present invention.

[0032] The components in the attached diagram are labeled as follows: 1: Frame, 2: Support base, 3: Support roller, 4: Wire reel, 41: Paper-insulated copper flat wire, 5: Fixing mechanism, 51: Hydraulic rod, 52: Guide frame, 53: Sliding frame, 54: Rotary disk, 55: Synchronizing column, 561: Gear motor, 562: First gear, 563: Second gear, 6: Wire laying mechanism, 61: Support frame, 62: Bidirectional reciprocating screw, 63: Translation frame, 64: Limit roller, 65: First guide wheel, 7: Synchronizing assembly, 71: First synchronous wheel 72: Synchronous belt, 73: Second synchronous pulley, 8: Anti-arching mechanism, 81: Limiting frame, 82: Support block, 83: Rotating arm, 84: Slider, 85: Contact rod, 86: Torsion spring, 9: Anti-overlapping mechanism, 91: Connecting frame, 92: Crankshaft, 931: First bevel gear, 932: Second bevel gear, 94: Drive shaft, 95: Support sleeve, 961: First drive wheel, 962: Drive belt, 963: Second drive wheel, 10: Stabilizing component, 101: Rotating frame, 102: Second guide wheel. Detailed Implementation

[0033] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0034] Example 1: A high-efficiency cable laying device for paper-insulated copper flat wire, such as... Figures 1-14As shown, the device includes a frame 1, on which two support seats 2 are bolted together. Two support rollers 3 are rotatably connected between the two support seats 2. A wire reel 4 is placed on the two support rollers 3. The support rollers 3 support the wire reel 4. Insertion holes are provided on both sides of the wire reel 4. Paper-insulated copper flat wire 41 is connected to the wire reel 4. The frame 1 is provided with a fixing mechanism 5 for fixing the wire reel 4, a driving assembly for driving the wire reel 4, and a wire laying mechanism 6 for laying the wire.

[0035] The fixing mechanism 5 includes a hydraulic rod 51, which is bolted to the frame 1. A guide frame 52 is bolted to the telescopic rod of the hydraulic rod 51. Both ends of the guide frame 52 have inclined grooves. Sliding frames 53 are slidably connected to both sides of the frame 1. The two sliding frames 53 are slidably connected to the inclined grooves at both ends of the guide frame 52. The inclined grooves of the guide frame 52 are used to press the sliding frames 53 to move. Two rotating disks 54 are rotatably connected to the frame 1. The rotating disks 54 are used to limit the movement of the wire reel 4. Synchronizing posts 55 are slidably connected inside the two rotating disks 54. The two synchronizing posts 55 are aligned with the insertion holes on both sides of the wire reel 4. The synchronizing posts 55 are used to insert into the insertion holes of the wire reel 4. The ends of the two synchronizing posts 55 that are far apart from each other are rotatably connected to the two sliding frames 53.

[0036] The drive assembly includes a geared motor 561, which is bolted to the frame 1. A first gear 562 is connected to the output shaft of the geared motor 561 via a keyway. A second gear 563 is connected to the rotating disk 54 near the geared motor 561 via a keyway. The second gear 563 meshes with the first gear 562.

[0037] Both synchronizing posts 55 have several grooves, which are used to increase the friction between the synchronizing posts 55 and the coil 4.

[0038] The cable laying mechanism 6 includes a support frame 61, which is bolted to the frame 1. A bidirectional reciprocating screw 62 is rotatably connected to the support frame 61, and a translation frame 63 is slidably connected to the support frame 61. The translation frame 63 is threadedly connected to the bidirectional reciprocating screw 62, which drives the translation frame 62 to move back and forth. Two limiting rollers 64 are rotatably connected to the translation frame 63, and both limiting rollers 64 are in contact with the paper-insulated copper flat wire 41. The limiting rollers 64 are used to limit the paper-insulated copper flat wire 41. Two first guide wheels 65 are rotatably connected to one side of the translation frame 63, and both first guide wheels 65 are in contact with the paper-insulated copper flat wire 41. The first guide wheels 65 are used to guide the paper-insulated copper flat wire 41. A synchronization component 7 for synchronization is provided on the bidirectional reciprocating screw 62.

[0039] The synchronization component 7 includes a first synchronization pulley 71, which is connected to the end of the bidirectional reciprocating screw 62 away from the reduction motor 561 via a keyway. A second synchronization pulley 73 is connected to the rotating disk 54 near the first synchronization pulley 71 via a keyway. A synchronization belt 72 is wound between the second synchronization pulley 73 and the first synchronization pulley 71. The synchronization belt 72 rotates a number of times through the first synchronization pulley 71 and the second synchronization pulley 73, which synchronizes the number of rotations of the reel 4 and the bidirectional reciprocating screw 62.

[0040] It also includes a stabilizing component 10, which is mounted on the translation frame 63 and is used to stabilize the paper-insulated copper flat wire 41. The stabilizing component 10 includes a rotating frame 101, which is rotatably connected to the translation frame 63. The rotating frame 101 is used to rotate with the tilt angle of the paper-insulated copper flat wire 41. Two second guide wheels 102 are rotatably connected to the rotating frame 101. Both second guide wheels 102 are in contact with the paper-insulated copper flat wire 41 and are used to stabilize the paper-insulated copper flat wire.

[0041] First, the wire reel 4 is placed on two support rollers 3 above the frame 1. Then, the paper-insulated copper flat wire 41 is passed sequentially between two first guide rollers 65, two limit rollers 64, and two second guide rollers 102. Next, the paper-insulated copper flat wire 41 is fixed on the wire reel 4. Then, the extension rod of the hydraulic rod 51 is extended, causing the guide frame 52 to move away from the wire reel 4. This causes the inclined grooves at both ends of the guide frame 52 to move the two sliding frames 53 towards each other, so that the two synchronous columns 55 are inserted into the insertion holes on both sides of the wire reel 4. Then, the reduction motor 561 is started. The rotation of the output shaft of the reduction motor 561 will drive one of the rotating disks 54 to rotate through the first gear 562 and the second gear 563, causing the rotating disk 54 to... One of the synchronizing columns 55 rotates, which drives the coil 4 to rotate via several grooves. The coil 4 begins to wind the paper-wrapped copper flat wire 41. Simultaneously, the coil 4 drives another rotating disk 54 via another synchronizing column 55, which in turn drives the second synchronizing wheel 73 to rotate. The rotation of the second synchronizing wheel 73 drives the first synchronizing wheel 71 to rotate via the synchronizing belt 72. The rotation of the first synchronizing wheel 71 drives the bidirectional reciprocating screw 62 to rotate, which in turn drives the translation frame 63 to move. The movement of the translation frame 63 guides the paper-wrapped copper flat wire 41 through the first guide wheel 65, the limiting roller 64, and the second guide wheel 102. Each time the coil 4 winds one revolution of the paper-wrapped copper flat wire 41, the translation frame 63 will... The guide wire 41 is offset by the width of one paper-wrapped copper flat wire 41, thereby arranging the paper-wrapped copper flat wire 41 evenly and completing the winding of the paper-wrapped copper flat wire 41. When the coil 4 has wound one layer of paper-wrapped copper flat wire 41, the translation frame 63 will move to the other end of the bidirectional reciprocating screw 62. Then the coil 4 continues to rotate, causing the translation frame 63 to move back through the bidirectional reciprocating screw 62, so that the paper-wrapped copper flat wire 41 on the coil 4 is passively stacked upwards to form a second layer. Then the coil 4 continues to rotate to complete the winding of the second layer. As the number of layers of paper-wrapped copper flat wire 41 wound on the coil 4 increases, the angle between the paper-wrapped copper flat wire 41 and the translation frame 63 will also increase. At this time, the rotating frame 101 will automatically adapt to the paper-wrapped copper flat wire 41 through the second guide wheel 102. The second guide wheel 102 rotates at an angle of inclination 1, which continuously stabilizes the paper-insulated copper flat wire 41, thereby preventing the paper-insulated copper flat wire 41 from twisting and shaking, and enhancing the wire laying effect of the paper-insulated copper flat wire 41. After the wire spool 4 winds a certain number of layers of paper-insulated copper flat wire 41, the reduction motor 561 is turned off, so that the wire spool 4 stops rotating. At the same time, the translation frame 63 stops guiding the paper-insulated copper flat wire 41 to move. Then, the extension rod of the control hydraulic rod 51 retracts, which drives the guide frame 52 to reset, so that the sliding frame 53 resets. The reset of the sliding frame 53 will drive the synchronous column 55 to be pulled out from the wire spool 4. Then, the paper-insulated copper flat wire 41 between the wire spool 4 and the second guide wheel 102 is disconnected by a cutting tool. Then, the wire spool 4 with completed wire laying is lifted away by a lifting device.

[0042] Example 2: Based on Example 1, such as Figures 1-10 As shown, it also includes an anti-arching mechanism 8, which is mounted on the guide frame 52 and is used to compress the paper-packaged copper flat wire 41. The anti-arching mechanism 8 includes a limit frame 81, which is bolted to the guide frame 52. A support block 82 is bolted to the frame 1, and a rotating arm 83 is rotatably connected to the support block 82. Both ends of the bottom of the rotating arm 83 are provided with cranks. The two ends of the limit frame 81 are in contact with the cranks at the bottom ends of the rotating arm 83, respectively. The guide frame 52 abuts against the cranks at the bottom ends of the rotating arm 83 through the limit frame 81. Both ends of the upper part of the rotating arm 83 are slidably connected with sliders 84. A contact rod 85 is bolted between the two sliders 84. The contact rod 85 is used to press the paper-packaged copper flat wire 41. Torsion springs 86 are connected between the bottom ends of the rotating arm 83 and the support block 82.

[0043] The contact rod 85 is made of rubber, which can prevent damage to the paper-insulated copper flat wire 41.

[0044] Initially, the guide frame 52 abuts against the cranks at both ends of the bottom of the rotating arm 83 via the limiting frame 81, causing the torsion spring 86 to be in a twisted state. When the guide frame 52 moves away from the coil 4, it will cause the limiting frame 81 to move together, so that the limiting frame 81 no longer abuts against the cranks at both ends of the bottom of the rotating arm 83. The torsion spring 86 returns to its original position, causing the rotating arm 83 to drive the slider 84 and contact rod 85 to rotate towards the coil 4. After the rotating arm 83 rotates to a certain angle, it will abut against the coil 4 via the slider 84 and contact rod 85. When the coil 4 begins to rotate and wind the paper-wrapped copper flat wire 41, the torsion spring 86, through the rotating arm 83... The slider 84 applies downward pressure to the contact rod 85 to compress the paper-wrapped copper flat wire 41. At the same time, the rubber contact rod 85 can apply resistance to the movement of the paper-wrapped copper flat wire 41 without damaging it, so that the contact rod 85 applies stable tension to the paper-wrapped copper flat wire 41, thereby making the paper-wrapped copper flat wire 41 more tightly wound and further enhancing the winding effect of the paper-wrapped copper flat wire 41. After the winding is completed, the guide frame 52 resets and abuts against the cranks at both ends of the bottom of the rotating arm 83, so that the rotating arm 83, slider 84 and contact rod 85 reset, and the torsion spring 86 returns to its initial state.

[0045] Example 3: Based on Example 2, such as Figures 1-13As shown, it also includes an anti-overlapping mechanism 9, which is mounted on the slider 84 to prevent the paper-wrapped copper flat wires 41 from overlapping. The anti-overlapping mechanism 9 includes a connecting frame 91, which is bolted between the two sliders 84. The connecting frame 91 has a slotted groove. A crankshaft 92 is rotatably connected inside the rotating arm 83. The top end of the crankshaft 92 is slidably connected to the slotted groove of the connecting frame 91. The crankshaft 92 drives the sliders 84 and the contact rod 85 to reciprocate through the slotted groove of the connecting frame 91. The bottom end of the crankshaft 92 is connected to a first bevel gear 931 through a keyway. Frame 1 A support sleeve 95 is bolted to the upper part of the rotating arm 83. A drive shaft 94 is rotatably connected inside the support sleeve 95. The drive shaft 94 is rotatably connected to the rotating arm 83. A second bevel gear 932 is connected to the end of the drive shaft 94 near the rotating arm 83 via a keyway. The second bevel gear 932 meshes with the first bevel gear 931. A second drive wheel 963 is connected to the end of the drive shaft 94 away from the rotating arm 83 via a keyway. A first drive wheel 961 is connected to the rotating disk 54 near the second drive wheel 963 via a keyway. A drive belt 962 is wound around the first drive wheel 961 and the second drive wheel 963.

[0046] As the rotating disk 54 drives the synchronous column 55 to rotate, it also drives the first transmission wheel 961 to rotate. The first transmission wheel 961 drives the second transmission wheel 963 to rotate via the transmission belt 962. The rotation of the second transmission wheel 963 drives the second bevel gear 932 to rotate via the transmission shaft 94. The second bevel gear 932 drives the crankshaft 92 to rotate via the first bevel gear 931. The rotation of the crankshaft 92 drives the connecting frame 91 to reciprocate through the strip groove of the connecting frame 91. The connecting frame 91 drives the contact rod 85 to reciprocate through the two sliders 84. In this way, while laying the wire, the paper-insulated copper flat wire 41 is moved back and forth by the reciprocating movement of the contact rod 85, so that the overlapping paper-insulated copper flat wires 41 are corrected, thereby making the wire layer of the laying more flat and further enhancing the laying effect of the paper-insulated copper flat wires 41.

[0047] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that variations may 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 high-efficiency cable laying device for paper-insulated copper flat wire, characterized in that: The device includes a frame (1), two support seats (2) fixed on the frame (1), two support rollers (3) rotatably connected between the two support seats (2), a wire spool (4) placed on the two support rollers (3), insertion holes on both sides of the wire spool (4), paper-insulated copper flat wire (41) connected to the wire spool (4), a fixing mechanism (5) for fixing the wire spool (4) on the frame (1), a driving component for driving the wire spool (4) on the frame (1), and a wiring mechanism (6) for wiring the wires on the frame (1). The fixing mechanism (5) includes a hydraulic rod (51), which is fixed to the frame (1). A guide frame (52) is fixed to the telescopic rod of the hydraulic rod (51). Both ends of the guide frame (52) are provided with inclined grooves. Both sides of the frame (1) are slidably connected to sliding frames (53). The two sliding frames (53) are slidably connected to the inclined grooves at both ends of the guide frame (52). Two rotating disks (54) are rotatably connected to the frame (1). Synchronous columns (55) are slidably connected inside the two rotating disks (54). The two synchronous columns (55) are aligned with the insertion holes on both sides of the coil (4). The ends of the two synchronous columns (55) that are far apart from each other are rotatably connected to the two sliding frames (53). The wiring mechanism (6) includes a support frame (61), which is fixed to the frame (1). A bidirectional reciprocating screw (62) is rotatably connected to the support frame (61), and a translation frame (63) is slidably connected to the support frame (61). The translation frame (63) is threadedly connected to the bidirectional reciprocating screw (62). Two limiting rollers (64) are rotatably connected to the translation frame (63), and both limiting rollers (64) are in contact with the paper-wrapped copper flat wire (41). Two first guide wheels (65) are rotatably connected to one side of the translation frame (63), and both first guide wheels (65) are in contact with the paper-wrapped copper flat wire (41). A synchronization component (7) for synchronization is provided on the bidirectional reciprocating screw (62). It also includes an anti-arching mechanism (8), which is mounted on a guide frame (52) and is used to extrude paper-wrapped copper flat wire (41). The anti-arching mechanism (8) includes a limit frame (81), which is fixedly connected to the guide frame (52). A support block (82) is fixedly connected to the frame (1). A rotating arm (83) is rotatably connected to the support block (82). Both ends of the bottom of the rotating arm (83) are provided with cranks. Both ends of the limit frame (81) are in contact with the cranks at both ends of the bottom of the rotating arm (83). Both ends of the upper part of the rotating arm (83) are slidably connected with sliders (84). A contact rod (85) is fixedly connected between the two sliders (84). Torsion springs (86) are connected between the bottom ends of the rotating arm (83) and the support block (82). It also includes an anti-overlapping mechanism (9), which is mounted on the slider (84) to prevent the paper-wrapped copper flat wire (41) from overlapping. The anti-overlapping mechanism (9) includes a connecting frame (91), which is fixed between the two sliders (84). The connecting frame (91) has a slot. A crankshaft (92) is rotatably connected inside the rotating arm (83). The top end of the crankshaft (92) is slidably connected to the slot of the connecting frame (91). A first bevel gear (931) is fixedly connected to the bottom end of the crankshaft (92). A support sleeve (95) is fixedly connected to the frame (1). 5) The drive shaft (94) is rotated internally connected to the rotating arm (83). The drive shaft (94) is rotatably connected to the rotating arm (83). A second bevel gear (932) is fixedly connected to one end of the drive shaft (94) near the rotating arm (83). The second bevel gear (932) meshes with the first bevel gear (931). A second drive wheel (963) is fixedly connected to one end of the drive shaft (94) away from the rotating arm (83). A first drive wheel (961) is fixedly connected to the rotating disk (54) near the second drive wheel (963). A drive belt (962) is wound around the first drive wheel (961) and the second drive wheel (963).

2. The high-efficiency cable laying device for paper-insulated copper flat wire according to claim 1, characterized in that: The drive assembly includes a geared motor (561), which is fixed to the frame (1). A first gear (562) is fixed to the output shaft of the geared motor (561), and a second gear (563) is fixed to the rotating disk (54) near the geared motor (561). The second gear (563) meshes with the first gear (562).

3. The high-efficiency cable laying device for paper-insulated copper flat wire according to claim 2, characterized in that: Several grooves are opened on both synchronization columns (55).

4. The high-efficiency cable laying device for paper-insulated copper flat wire according to claim 3, characterized in that: The synchronization component (7) includes a first synchronization pulley (71), which is fixed to the end of the bidirectional reciprocating screw (62) away from the geared motor (561). A second synchronization pulley (73) is fixed to the rotating disk (54) near the first synchronization pulley (71), and a synchronization belt (72) is wound between the second synchronization pulley (73) and the first synchronization pulley (71).

5. A high-efficiency cable laying device for paper-insulated copper flat wire according to claim 4, characterized in that: The contact rod (85) is made of rubber.

6. A high-efficiency cable laying device for paper-insulated copper flat wire according to claim 5, characterized in that: It also includes a stabilizing component (10), which is mounted on a translation frame (63) and is used to stabilize the paper-wrapped copper flat wire (41). The stabilizing component (10) includes a rotating frame (101), which is rotatably connected to the translation frame (63). Two second guide wheels (102) are rotatably connected to the rotating frame (101), and both second guide wheels (102) are in contact with the paper-wrapped copper flat wire (41).

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