CN114275624B - A quantitative winding device for wire production - Google Patents

Abstract

The invention relates to a winding device, in particular to a quantitative winding device for wire production. The invention aims to provide a quantitative winding device for wire production, which is convenient for people to take out the wound wire. The invention provides a quantitative winding device for wire production, which comprises a support shell, a double-shaft motor, a handle, a clamping assembly and the like, wherein the double-shaft motor is arranged in the middle of the inner bottom of the support shell, the handle is arranged in the middle of the front side of the support shell in a sliding manner, and the clamping assembly is arranged at the upper part of the inner side of the support shell. When the clamping block moves to the inner side, the take-up reel can be clamped, one end of the electric wire is wound on the take-up reel manually, the double-shaft motor is used as driving force to drive the take-up reel to rotate, winding work is completed, then the push plate is pushed backwards, the clamping block can be driven to move to the outer side to loosen the take-up reel, and people can conveniently take out the take-up reel with the electric wire wound.

Description

A quantitative winding device for wire production

Technical field

The invention relates to a winding device, and in particular to a quantitative winding device for wire production.

Background technique

When the wires leave the factory, they need to be manually wound and packaged, but manual operations are cumbersome, resulting in low work efficiency.

Patent application CN215364215U, published on 20211231, discloses a wire rewinding device, which includes a translation push plate and a pulley, which can make the rewinding drum move freely in the horizontal direction, and can make the wire rewinding onto the rewinding drum more evenly. The first rotating column, the second rotating column and the spiral groove on the rotating column are designed to eliminate the residual surface and internal stress during production when the wire is rolled up, so that the wire can be more closely combined with the winding drum. The design The tension rod above the base is removed, so that the height of the winding drum can be adjusted freely, making the winding operation more convenient. The baffles on both sides of the second turntable are designed to effectively prevent the transmission belt from falling off. Although the above-mentioned patent can automatically rewind the wire, it is inconvenient to remove the wire after rewinding.

To sum up, there is an urgent need for a quantitative winding device for wire production that facilitates people to take out the rolled wires to solve the above problems.

Contents of the invention

In order to overcome the shortcomings of the existing wire winding device that it is generally inconvenient to take out the rolled wires when in use, the object of the present invention is to provide a quantitative winding device for wire production that facilitates people to take out the rolled wires. Volume device.

The present invention is realized through the following technical approaches:

A quantitative winding device for wire production, including a support shell, a clamping block, a biaxial motor, a grip, a clamping component, a driving component and a locking component. A biaxial motor is provided in the middle of the inner bottom of the support shell. The support shell There is a sliding handle in the middle of the front side, and a clamping assembly is provided on the inner upper part of the support shell. The clamping assembly is provided with clamping blocks for clamping the wire take-up disk at intervals, and the inner bottom of the support shell is provided with a drive wire take-up. The drive assembly for disk rotation, the lower front side of the support housing is provided with a locking assembly for limiting the clamping assembly.

To further explain, the clamping assembly includes a first push rod, a first spring, a first support rod, a movable block, a first guide rod, a second spring, a fixed block, a first sleeve, a first sliding shaft, and a third spring. and a turntable, a first push rod is provided on the back side of the handle, the first push rod is slidingly connected to the support shell, a first spring is symmetrically provided on the left and right between the back side of the first push rod and the support shell, and the left and right sides of the inner wall of the support shell are supported. There are first support rods in the middle of both sides, and two first guide rods are slidingly provided on the inside of the first support rod. There are movable blocks between the two adjacent first guide rods, and the movable blocks are connected with each other. The first push rod is in contact with the first guide rod. A second spring is wound around the first guide rod. Both ends of the second spring are connected to the first support rod and the first guide rod respectively. Fixed blocks are provided on the left and right sides of the top of the support shell. , the lower part of the fixed block is rotatably provided with a first sleeve, and the inner side of the first sleeve is provided with a first sliding shaft. The first sliding shaft is rotatably connected to the upper part of the adjacent movable block. The first sliding shaft is They are all wound with a third spring, and both ends of the third spring are connected to the first sleeve and the first sliding shaft respectively. The inner ends of the first sliding shafts are equipped with turntables, and the insides of the turntables are connected to three adjacent clamping blocks.

To further explain, the driving assembly includes a first support block, a second sleeve, a second sliding shaft, a fourth spring, a rotating groove block, a first clamping rod, a first transmission wheel and a first transmission belt, supporting the left and right sides of the inner bottom of the housing. There are two first support blocks on both sides. The upper parts of the two first support blocks on the inside are rotatably provided with second shaft sleeves. The output shafts on the left and right sides of the dual-axis motor are connected to the adjacent second shaft sleeves. , the second sliding shaft is slidingly provided on the outside of the second sleeve, the fourth spring is provided on the inside of the second sliding shaft and between the adjacent second shaft sleeve, and the rotating groove block is provided on the outside of the second sliding shaft. , the upper parts of the two first support blocks on the outside are rotatably provided with first clamping rods, the first clamping rods clamp the rotating groove blocks, and the first transmission wheels are provided on the outer sides of the first clamping rods and the first shaft sleeve. A first transmission belt is wound between the two corresponding first transmission wheels.

To further explain, the locking assembly includes a second guide rod, a slider, a fifth spring, a second clamping rod, a second push rod, a push plate and a sixth spring. The lower front side of the support shell is provided with a second guide symmetrically left and right. rods, the number of the second guide rods is four, and there are slide blocks sliding between the inner sides of the two adjacent second guide rods. The second guide rods are all wound with fifth springs, and the two ends of the fifth spring are respectively connected with The support shell is connected to the slider. The top of the slider is provided with a second clamping rod. The first push rod can contact the second clamping rod when it moves backward. The middle part of the front side of the lower part of the support shell is slidably provided with a second push rod. The second push rod can move backward to contact the slide block. There is a push plate in the middle of the bottom of the second push rod. The push plate is slidingly connected to the support shell. A third push rod is symmetrically arranged between the rear side of the second push rod and the support shell. Six springs.

Further explanation, it also includes a stop component for quantitatively winding the wire. The stop component includes a second support rod, a push rod, a seventh spring and a roller. Four second support rods are spaced in the middle of the bottom of the support housing. The support rod is located outside the dual-axis motor. There is a push rod sliding between the upper parts of the second support rod. The rotating groove blocks are all in contact with the push rod. There is a seventh spring between the push rod and the second support rod. The seventh spring The number is four, and the upper part of the push rod is equipped with a roller in the middle.

To further explain, a placement component for supporting the take-up reel is also included. The placement component includes a third support rod, a sliding frame, an eighth spring, a placement block, a fourth support rod, a third push rod and a ninth spring. The inner middle part of the support shell is provided with a third support rod symmetrically in front and back. The number of the third support rods is four. The upper parts of the two third support rods on the same side are slidingly provided with a sliding frame. The bottom of the sliding frame is adjacent to the sliding frame. There are eighth springs between the two third support rods, placement blocks are provided on the left and right sides between the sliding frames, and fourth support rods are symmetrically provided on the left and right sides of the inner bottom of the supporting shell, adjacent to There are third push rods sliding between the upper parts of the two fourth support rods. The third push rods are all in contact with the two sliding frames. The third push rods are all in contact with the adjacent movable blocks. The inside of the third push rod A ninth spring is arranged between the upper parts of the two fourth support rods on the same side.

To further explain, a guide assembly for guiding the wires is also included. The guide assembly includes a toothed belt, a fifth support rod, a first gear, a second transmission wheel, a second transmission belt, a second support block, a groove barrel, and a support shell. , support frame, guide block, sliding rod and second gear. There are toothed belts on the outside of the first transmission belt. A fifth support rod is symmetrically provided on the rear side of the inner bottom of the support shell. The upper part of the fifth support rod on the left is rotating. There are two first rotating rods. The upper part of the fifth support rod on the right side is rotatably provided with a second rotating rod. The first gears are provided on the left side of the first rotating rod. The first gears mesh with each other. The toothed belt on the left side When rotating, it will mesh with the first gear on the front side. The upper part of the rear side of the supporting shell is provided with a second support block symmetrically left and right. A groove barrel is rotatably provided between the second support blocks. The left and right sides of the groove barrel and the second rotor There are second transmission wheels on the left side of the rod and on the right side of the first rotating rod on the rear side. The number of the second transmission wheels is four. A second transmission belt is wound between the two adjacent second transmission wheels to support the shell. The upper part of the rear side is provided with a support shell. The support shell is located outside the second support block. A support frame is provided in the middle of the rear side of the inner bottom of the support shell. The support frame is provided with a sliding guide block. The lower part of the front side of the guide block is provided with a sliding The rod and the sliding rod are slidingly connected to the grooved cylinder. A second gear is provided on the right side of the second rotating rod. When the toothed belt on the right side rotates, it will mesh with the second gear.

To further explain, there is a circular hole in the upper part of the guide block.

Compared with the existing technology, the present invention has the following advantages:

1. When the clamping block of the present invention moves inward, it can clamp the take-up reel, and then manually wind one end of the wire on the take-up reel, and then use the biaxial motor as the driving force to drive the take-up reel to rotate, completing the process. After the winding operation, push the push plate backward to drive the clamp block to move outward to release the take-up reel, making it easier for people to take out the wrapped wire reel.

2. As there are more and more wires on the take-up reel, the wires will squeeze the roller and move downward, causing the rotating groove block to move inward to release the first clamping bar. At this time, the take-up reel will no longer rotate. That's it. Achieve the purpose of quantitative winding.

3. The placement block of the present invention can support the take-up reel, and when the clamping block releases the take-up reel, it can prevent the take-up reel from falling downward into the support shell.

Description of the drawings

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

Figure 2 is a schematic three-dimensional structural diagram of the present invention from another perspective.

Figure 3 is a schematic diagram of the internal three-dimensional structure of the present invention.

Figure 4 is a schematic diagram of the internal three-dimensional structure of the present invention from another perspective.

Figure 5 is a schematic structural diagram of the clamping assembly of the present invention.

Figure 6 is a schematic structural diagram of the driving assembly of the present invention.

Figure 7 is a partial structural diagram of the driving assembly of the present invention.

Figure 8 is a schematic structural diagram of the locking assembly of the present invention.

Figure 9 is a schematic diagram of the first partial structure of the locking assembly of the present invention.

Figure 10 is a schematic diagram of the second partial structure of the locking assembly of the present invention.

Figure 11 is a schematic structural diagram of the stop assembly of the present invention.

Figure 12 is a schematic structural diagram of the placement component of the present invention.

Figure 13 is a schematic structural diagram of the guide assembly of the present invention.

Figure 14 is a schematic structural diagram of the guide assembly of the present invention from another perspective.

Figure 15 is a schematic diagram of the first partial structure of the guide assembly of the present invention.

Figure 16 is a schematic diagram of the second partial structure of the guide assembly of the present invention.

Markings in the drawings: 1-support shell, 2-clamp block, 3-biaxial motor, 4-grip, 5-clamping component, 501-first push rod, 502-first spring, 503-first Support rod, 504-movable block, 505-first guide rod, 506-second spring, 507-fixed block, 508-first sleeve, 509-first sliding shaft, 510-third spring, 511-turntable, 6-Driving assembly, 601-first support block, 602-second sleeve, 603-second sliding shaft, 604-fourth spring, 605-rotating groove block, 606-first clamping rod, 607-first transmission Wheel, 608-first transmission belt, 7-locking component, 701-second guide rod, 702-slider, 703-fifth spring, 704-second clamping rod, 705-second push rod, 706-push plate , 707-sixth spring, 8-stop component, 801-second support rod, 802-ejector rod, 803-seventh spring, 804-roller, 9-placement component, 901-third support rod, 902-sliding frame , 903-eighth spring, 904-placement block, 905-fourth support rod, 906-third push rod, 907-ninth spring, 10-guide assembly, 1001-toothed belt, 1002-fifth support rod, 1003 -First gear, 1004-second transmission wheel, 1005-second transmission belt, 1006-second support block, 1007-trough, 1008-support shell, 1009-support frame, 1010-guide block, 1011-sliding rod, 1012-Second gear.

Detailed ways

The invention will now be described more fully hereinafter with reference to the accompanying drawings, in which currently preferred embodiments of the invention are shown. This invention may, however, be embodied in many different forms and should not be construed as limited to the embodiments set forth herein; rather, these embodiments are provided for thoroughness and completeness and will fully convey the scope of the invention. communicated to technical personnel.

Example 1

A quantitative winding device for wire production, referring to Figures 1 to 10, includes a support shell 1, a clamping block 2, a biaxial motor 3, a grip 4, a clamping component 5, a driving component 6 and a locking component 7. The inner upper part of the support shell 1 is provided with a clamping component 5. Clamping blocks 2 are welded at intervals on the clamping component 5. When the clamping block 2 moves inward, it can clamp the take-up reel. The inner bottom of the supporting shell 1 is bolted with a clamping assembly 5 in the middle. For the biaxial motor 3, a handle 4 is slidably provided in the middle of the front side of the support housing 1, a driving component 6 is provided at the inner bottom of the support housing 1, and a locking component 7 is provided on the lower front side of the support housing 1.

Referring to Figures 1-5, the clamping assembly 5 includes a first push rod 501, a first spring 502, a first support rod 503, a movable block 504, a first guide rod 505, a second spring 506, a fixed block 507, and a A sleeve 508, a first sliding shaft 509, a third spring 510 and a turntable 511. A first push rod 501 is provided on the rear side of the handle 4. The first push rod 501 is slidingly connected to the support shell 1. The first push rod A first spring 502 is provided symmetrically between the rear side of 501 and the support shell 1. A first support rod 503 is provided in the middle of the left and right sides of the inner wall of the support shell 1. Two first support rods 503 are slidingly provided on the inside of the first support rod 503. A guide rod 505. Movable blocks 504 are welded between the inner sides of two adjacent first guide rods 505. The movable blocks 504 are all in contact with the first push rod 501. The first guide rods 505 are each wound with a second spring 506. , both ends of the second spring 506 are connected to the first support rod 503 and the first guide rod 505 respectively. Fixed blocks 507 are welded to the left and right sides of the top of the support shell 1, and the lower parts of the fixed blocks 507 are rotatably provided with first The shaft sleeve 508 and the first sliding shaft 509 are slidingly provided on the inside of the first shaft sleeve 508. The first sliding shaft 509 is rotatably connected to the upper part of the adjacent movable block 504. The first sliding shaft 509 is wound with a third sliding shaft 509. The two ends of the spring 510 and the third spring 510 are respectively connected to the first sleeve 508 and the first sliding shaft 509. The inner ends of the first sliding shaft 509 are equipped with turntables 511, and the inner ends of the turntables 511 are connected to three adjacent clamping blocks. 2 connections.

Referring to Figures 4, 6 and 7, the driving assembly 6 includes a first support block 601, a second sleeve 602, a second sliding shaft 603, a fourth spring 604, a rotating groove block 605, a first clamping rod 606, a third A transmission wheel 607 and a first transmission belt 608. Two first support blocks 601 are welded on the left and right sides of the inner bottom of the support housing 1. The upper parts of the two first support blocks 601 on the inside are rotatably provided with second bushings 602. , the output shafts on the left and right sides of the dual-axis motor 3 are connected to the adjacent second sleeves 602, the second sliding shafts 603 are slidingly provided on the outside of the second sleeves 602, and the inner side of the second sliding shaft 603 is connected to the adjacent second sleeves 602. A fourth spring 604 is provided between the second sleeve 602 and the second sliding shaft 603. A rotating groove block 605 is provided on the outside of the second sliding shaft 603. A first clamping rod 606 is rotatably provided on the upper part of the two first support blocks 601 on the outside. , the first clamping rod 606 clamps the rotating groove block 605, the first transmission wheel 607 is provided on the outside of the first clamping rod 606 and the first sleeve 508, and there are two corresponding first transmission wheels 607 winding between the upper and lower ones. The first transmission belt 608 starts the biaxial motor 3 to drive the first clamping rod 606 to rotate, thereby driving the clamping block 2 to rotate, and the clamping block 2 can drive the take-up reel to rotate to complete the winding work.

Referring to Figures 1, 3, 8, 9 and 10, the locking assembly 7 includes a second guide rod 701, a slider 702, a fifth spring 703, a second clamping rod 704, a second push rod 705, a push rod 705 and a second push rod 705. The plate 706 and the sixth spring 707 are symmetrically welded with second guide rods 701 on the front side of the lower part of the supporting shell 1. The number of the second guide rods 701 is four, and the two adjacent second guide rods 701 are slidable on the inside. A slider 702 is provided, and a fifth spring 703 is wound around the second guide rod 701. Both ends of the fifth spring 703 are connected to the support shell 1 and the slider 702 respectively. The top of the slider 702 is provided with a second clamping rod. 704. The first push rod 501 can move backward to contact the second clamping rod 704. The second clamping rod 704 can limit the position of the first push rod 501. The middle part of the front side of the lower part of the support housing 1 is provided with a second push rod slidingly. Rod 705, the second push rod 705 can move backward to contact the slide block 702. A push plate 706 is provided in the middle of the bottom of the second push rod 705. The push plate 706 is slidingly connected to the support shell 1. The rear side of the second push rod 705 A sixth spring 707 is disposed symmetrically to the supporting shell 1 .

When people need to use the device, first put a take-up reel between the clamping blocks 2, and then push the handle 4 backward to drive the first push rod 501 to move backward, the first spring 502 compresses, and the first push rod 501 will squeeze the movable block 504 to move inward, the second spring 506 is compressed, the movable block 504 drives the first sliding shaft 509, the turntable 511 and the clamping block 2 to move inward, and the third spring 510 is compressed. When the first push rod 501 and When the second clamping rod 704 contacts, it squeezes the outside of the second clamping rod 704 and drives the slider 702 to move outward. The fifth spring 703 is compressed. When the first push rod 501 crosses the second clamping rod 704, the fifth spring 703 Restore the original state, drive the slider 702 and the second clamping rod 704 to move inward and reset, so that the second clamping rod 704 blocks the first push rod 501. At this time, the clamping block 2 can clamp the wire take-up reel, and then manually tighten the wire. One end is wound on the take-up reel, and then the biaxial motor 3 is started. The output shaft of the biaxial motor 3 drives the second sleeve 602 to rotate, thereby driving the second sliding shaft 603 and the rotating groove block 605 to rotate. The rotating groove block 605 drives the second sleeve 602 to rotate. The first clamping rod 606 rotates, and the first clamping rod 606 can drive the first sleeve 508 to rotate through the first transmission wheel 607 and the first transmission belt 608, thereby driving the first sliding shaft 509, the turntable 511 and the clamping block 2 to rotate, and the clamping block 2 The take-up reel is driven to rotate so that the wires can be wound up. At this time, the wires need to be moved manually to prevent the wires from being wound in the same place. When the take-up reel has wound up a certain amount of wires, turn off the biaxial motor 3. Then cut the wire, fix the take-up reel with your hands, and then push the push plate 706 backward to drive the second push rod 705 to move backward, the sixth spring 707 is compressed, and when the second push rod 705 contacts the slider 702 , driving the slider 702 and the second clamping rod 704 to move outward, the fifth spring 703 compresses, causing the second clamping rod 704 to release the first push rod 501, the first spring 502 returns to its original shape, driving the first push rod 501 and the handle Move 4 forward to reset, causing the first push rod 501 to separate from the movable block 504. The second spring 506 and the third spring 510 return to their original state, driving the movable block 504, the first sliding shaft 509, the turntable 511 and the clamping block 2 to the outside. The movement is reset, causing the clamp block 2 to release the take-up reel, and then release the push plate 706. The sixth spring 707 returns to its original state, driving the second push rod 705 and the push plate 706 to move forward and reset, so that the second push rod 705 and the sliding The block 702 separates, and the fifth spring 703 returns to its original state, driving the slide block 702 and the second clamping rod 704 to move inward and reset, and then take away the winding reel with the wire wrapped, and repeat the above operation to wind up the wire again.

Example 2

On the basis of Embodiment 1, with reference to Figures 1, 2, 3, 4 and 11, a stop component 8 is also included. The stop component 8 includes a second support rod 801, a push rod 802, and a seventh spring. 803 and roller 804, four second support rods 801 are welded at intervals in the middle of the inner bottom of the support housing 1. The second support rods 801 are located outside the biaxial motor 3, and a push rod 802 is slidably provided between the upper parts of the second support rods 801. The rotating groove blocks 605 are all in contact with the ejector rod 802. When the ejector rod 802 moves downward, it can squeeze the rotating groove block 605 and move inward to separate from the first clamping rod 606, so that the take-up disk stops rotating to achieve the purpose of quantitative winding. , there are seventh springs 803 between the push rod 802 and the second support rod 801, the number of the seventh springs 803 is four, and a roller 804 is rotatably provided in the middle of the upper part of the push rod 802.

As there are more and more wires on the take-up reel, when the wires come into contact with the roller 804, the roller 804 will be squeezed to move downward, driving the ejector pin 802 to move downward. The seventh spring 803 is compressed, and the ejector pin 802 is squeezed and rotated. The slot block 605 moves inward, and the fourth spring 604 is compressed, causing the rotating slot block 605 to separate from the first clamping rod 606. At this time, the wire take-up reel will stop rotating, and then the wire take-up reel with the wrapped wires can be manually removed. To achieve the purpose of quantitative winding, when the wire is separated from the roller 804, the seventh spring 803 returns to its original state, driving the ejector pin 802 and the roller 804 to move upward and reset, causing the ejector pin 802 to separate from the rotating groove block 605, and the fourth spring 604 returns to its original state. original state, driving the rotating groove block 605 to move outward and reset, so that the rotating groove block 605 blocks the first clamping rod 606 again. If the rotating groove block 605 moves outward and resets without blocking the first clamping rod 606, the first clamping rod 606 Will resist the rotating groove block 605, and the fourth spring 604 will not completely return to its original state. When the rotating groove block 605 rotates again, the rotating groove block 605 will be aligned with the first clamping rod 606, so that the fourth spring 604 returns to its original state, driving The rotating groove block 605 moves outward to reset and lock the first clamping rod 606 again.

Referring to Figures 1, 3, 4 and 12, a placement component 9 is also included. The placement component 9 includes a third support rod 901, a sliding frame 902, an eighth spring 903, a placement block 904, a fourth support rod 905, The third push rod 906 and the ninth spring 907 are symmetrically welded with a third support rod 901 in the middle of the inner side of the support shell 1. The number of the third support rods 901 is four. The upper part of the two third support rods 901 on the same side laterally. A sliding frame 902 is provided in each sliding frame. An eighth spring 903 is provided between the bottom of the sliding frame 902 and the two adjacent third support rods 901. Placement blocks 904 are welded to the left and right sides between the sliding frames 902. , the placement block 904 can support the take-up reel to prevent the take-up reel from falling downward into the inside of the support shell 1. The left and right sides of the inner bottom of the support shell 1 are symmetrically welded with fourth support rods 905, and the two adjacent ones Third push rods 906 are slidably provided on the upper parts of the fourth support rods 905. The third push rods 906 are all in contact with the two sliding frames 902. The third push rods 906 are all in contact with the adjacent movable blocks 504. A ninth spring 907 is provided between the inner side of the three push rods 906 and the upper parts of the two fourth support rods 905 on the same side.

When people need to use the device, the wire take-up reel can be placed between the tops of the placement blocks 904 so that the wire take-up reel is located between the clamping blocks 2. When the movable block 504 moves inward, it will drive the clamping block 2 to move inward. Clamp the take-up reel, and at the same time, the movable block 504 will squeeze the third push rod 906 to move inward, the ninth spring 907 will be compressed, the third push rod 906 will squeeze the sliding frame 902 to move downward, and the eighth spring 903 will be compressed. The sliding frame 902 drives the placement block 904 to move downward, causing the placement block 904 to separate from the take-up reel, thereby preventing the placement block 904 from interfering with the rotation of the take-up reel. When the movable block 504 moves outward and resets, it will drive the clamping block 2 to move toward the outside. The outer movement reset releases the take-up reel. At the same time, the movable block 504 will release the third push rod 906, and the ninth spring 907 returns to its original state, driving the third push rod 906 to move outward and reset, so that the third push rod 906 and the sliding frame 902 is separated, the eighth spring 903 returns to its original state, driving the sliding frame 902 and the placement block 904 to move upward and reset, so that the placement block 904 contacts the bottom of the take-up reel again, acting as a support to prevent the take-up reel from falling downward to the support shell. 1 interior.

Referring to Figures 1, 2, 3, 4, 13, 14, 15 and 16, a guide assembly 10 is also included. The guide assembly 10 includes a toothed belt 1001, a fifth support rod 1002, and a first gear. 1003. The second transmission wheel 1004, the second transmission belt 1005, the second support block 1006, the groove barrel 1007, the support shell 1008, the support frame 1009, the guide block 1010, the sliding rod 1011 and the second gear 1012. The outside of the first transmission belt 608 is A toothed belt 1001 is provided, and a fifth support rod 1002 is welded symmetrically left and right on the rear side of the inner bottom of the support shell 1. The upper part of the fifth support rod 1002 on the left is rotatably provided with two first rotating rods, and the fifth support on the right is provided with a toothed belt 1001. The upper part of the rod 1002 is rotatably provided with a second rotating rod, and the first gear 1003 is provided on the left side of the first rotating rod. The first gears 1003 mesh with each other. When the toothed belt 1001 on the left rotates, it will interact with the first gear 1003 on the front side. Engage, the upper rear side of the support shell 1 is provided with a second support block 1006 symmetrically left and right, a groove barrel 1007 is rotatably provided between the second support blocks 1006, the left and right sides of the groove barrel 1007, the left side and the rear side of the second rotating rod There are second transmission wheels 1004 on the right side of the first rotating rod. The number of the second transmission wheels 1004 is four. A second transmission belt 1005 is wound between the two adjacent second transmission wheels 1004 to support the shell 1. A support shell 1008 is welded to the upper part of the rear side. The support shell 1008 is located outside the second support block 1006. A support frame 1009 is provided in the middle of the rear side of the inner bottom of the support shell 1008. The support frame 1009 is provided with a sliding guide block 1010. The guide block 1010 There is a round hole in the upper part, and the guide block 1010 can guide the wire. A sliding rod 1011 is provided at the lower part of the front side of the guide block 1010. The sliding rod 1011 is slidingly connected to the groove barrel 1007. A second gear is provided on the right side of the second rotating rod. 1012. When the right toothed belt 1001 rotates, it will engage with the second gear 1012.

When people need to wind the wire on the wire take-up reel, first pass one end of the wire through the round hole on the upper part of the guide block 1010, and then wrap it around the wire take-up reel. When the first transmission belt 608 rotates, it will drive the teeth The belt 1001 rotates. When the toothed belt 1001 on the right meshes with the second gear 1012, the second gear 1012 is driven to rotate, thereby driving the second rotating rod to rotate. The second rotating rod passes through the second transmission wheel 1004 on the right and the second gear 1012 on the right. The second transmission belt 1005 can drive the grooved cylinder 1007 to rotate. The grooved cylinder 1007 drives the sliding rod 1011 to move to the right, thereby driving the guide block 1010 to move to the right. When the toothed belt 1001 on the right side is separated from the second gear 1012, the grooved cylinder 1007 Stop rotating, and at the same time, the toothed belt 1001 on the left meshes with the first gear 1003 on the front, thereby driving the first gear 1003 on the front to rotate, and then driving the first gear 1003 on the rear and the first rotating rod on the rear in reverse. Turn, the first rotating rod on the rear side can drive the groove cylinder 1007 to reverse through the second transmission wheel 1004 on the left and the second transmission belt 1005 on the left. The groove cylinder 1007 drives the slide rod 1011 and the guide block 1010 to move to the left and reset. When the toothed belt 1001 on the left side separates from the first gear 1003 on the front side, the groove barrel 1007 stops rotating. This reciprocation can make the guide block 1010 reciprocate left and right, thereby guiding the wires so that the wires can be wound evenly. On the take-up reel.

While the present invention has been described with reference to exemplary embodiments, it is to be understood that the invention is not limited to the disclosed exemplary embodiments. The scope of the following claims should be given the broadest interpretation so as to cover all modifications and equivalent structures and functions.

Claims (5)

1. The quantitative winding device for the wire production comprises a supporting shell (1), a clamping block (2), a double-shaft motor (3) and a handle (4), wherein the double-shaft motor (3) is arranged in the middle of the inner bottom of the supporting shell (1), the handle (4) is arranged in the middle of the front side of the supporting shell (1) in a sliding mode, the clamping block (2) is used for clamping a wire collecting disc, the quantitative winding device is characterized by further comprising a clamping assembly (5), a driving assembly (6) and a locking assembly (7), the clamping assembly (5) is arranged at the upper part of the inner side of the supporting shell (1), the clamping block (2) is arranged on the clamping assembly (5) at intervals, the driving assembly (6) used for driving the wire collecting disc to rotate is arranged at the inner bottom of the supporting shell (1), and the locking assembly (7) used for limiting the clamping assembly (5) is arranged at the front side of the lower part of the supporting shell (1);

the clamping assembly (5) comprises a first push rod (501), a first spring (502), a first supporting rod (503), a movable block (504), a first guide rod (505), a second spring (506), a fixed block (507), a first shaft sleeve (508), a first sliding shaft (509), a third spring (510) and a rotary table (511), wherein the first push rod (501) is arranged at the rear side of a grip (4), the first push rod (501) is slidably connected with a supporting shell (1), the first spring (502) is symmetrically arranged between the rear side of the first push rod (501) and the supporting shell (1), the middle parts of the left side and the right side of the inner wall of the supporting shell (1) are respectively provided with the first supporting rod (503), the inner sides of the first supporting rod (503) are respectively provided with two first guide rods (505), the movable blocks (504) are respectively arranged between the inner sides of the adjacent two first guide rods (505), the movable blocks (504) are respectively contacted with the first push rod (501), the second springs (506) are respectively wound on the first guide rods (505), the two ends of the second springs (506) are respectively connected with the first guide rods (505), the two inner sides of the first guide rods (505) are respectively provided with the fixed parts (507) respectively, the inner sides of the first guide rods (507) are respectively provided with fixed parts, the inner parts of the first guide rods are respectively provided with the fixed parts, the inner parts of the first guide rods are respectively, a first sliding shaft (509) is arranged on the inner side of the first shaft sleeve (508) in a sliding manner, the first sliding shaft (509) is connected with the upper parts of the adjacent movable blocks (504) in a rotating manner, a third spring (510) is wound on the first sliding shaft (509), two ends of the third spring (510) are respectively connected with the first shaft sleeve (508) and the first sliding shaft (509), a rotary disc (511) is arranged at the inner end of the first sliding shaft (509), and the inner side of the rotary disc (511) is connected with the adjacent three clamping blocks (2);

the driving assembly (6) comprises a first supporting block (601), a second shaft sleeve (602), a second sliding shaft (603), a fourth spring (604), a rotary groove block (605), a first clamping rod (606), a first driving wheel (607) and a first driving belt (608), wherein two first supporting blocks (601) are respectively arranged on the left side and the right side of the inner bottom of the supporting shell (1), the second shaft sleeve (602) is respectively arranged on the upper parts of the two first supporting blocks (601) on the inner side in a rotating mode, output shafts on the left side and the right side of the double-shaft motor (3) are respectively connected with the adjacent second shaft sleeve (602), the second sliding shaft (603) is respectively arranged on the outer side of the second shaft sleeve (602) in a sliding mode, the fourth spring (604) is respectively arranged between the inner side of the second sliding shaft (603) and the adjacent second shaft sleeve (602), the rotary groove block (605) is respectively arranged on the outer side of the second sliding shaft (603), the first clamping rod (606) is respectively arranged on the upper parts of the two first supporting blocks (601) on the outer sides, the first clamping rod (606) is respectively clamped on the rotary groove block (605), and the first clamping rod (607) is respectively arranged on the upper parts of the first driving belt (607) and the first driving belt (608);

the wire winding device is characterized by further comprising a stopping assembly (8) for quantitatively winding wires, the stopping assembly (8) comprises a second supporting rod (801), a top rod (802), seventh springs (803) and rollers (804), four second supporting rods (801) are arranged in the middle of the inner bottom of the supporting shell (1), the second supporting rods (801) are located on the outer side of the double-shaft motor (3), the top rods (802) are slidably arranged between the upper parts of the second supporting rods (801), the rotary groove blocks (605) are in contact with the top rods (802), seventh springs (803) are arranged between the top rods (802) and the second supporting rods (801), the number of the seventh springs (803) is four, and the rollers (804) are rotatably arranged in the middle of the upper parts of the top rods (802).

2. The quantitative winding device for wire production according to claim 1, wherein the locking assembly (7) comprises a second guide rod (701), a sliding block (702), a fifth spring (703), a second clamping rod (704), a second push rod (705), a push plate (706) and a sixth spring (707), the second guide rods (701) are symmetrically arranged on the left side and the right side of the lower part of the supporting shell (1), the number of the second guide rods (701) is four, the sliding blocks (702) are slidably arranged between the inner sides of two adjacent second guide rods (701), the fifth springs (703) are wound on the second guide rods (701), two ends of each fifth spring (703) are respectively connected with the supporting shell (1) and the sliding blocks (702), the second clamping rods (704) are arranged at the top of each sliding block (702), the first push rod (501) can contact with the second clamping rods (704) in a backward movement mode, the second push rod (705) is slidably arranged in the middle of the front side of the lower part of the supporting shell (1), the second push rod (705) moves backward and contacts with the sliding blocks (702), the second push rod (705) is symmetrically arranged at the bottom of the second push plate (706) and the left side of the supporting shell (1) is slidably arranged between the second push rod (706) and the supporting shell (706).

3. A quantitative winding device for electric wire production according to claim 2, further comprising a placement component (9) for supporting the winding drum, wherein the placement component (9) comprises a third support rod (901), a sliding frame (902) and an eighth spring (903), place piece (904), fourth bracing piece (905), third push rod (906) and ninth spring (907), the inboard middle part front and back symmetry of support shell (1) is equipped with third bracing piece (901), the quantity of third bracing piece (901) is four, all slidingtype be equipped with carriage (902) between two third bracing piece (901) upper portions of horizontal homonymy, all be equipped with eighth spring (903) between carriage (902) bottom and two adjacent third bracing pieces (901), the left and right sides between carriage (902) all is equipped with places piece (904), the left and right sides of support shell (1) inner bottom all is equipped with fourth bracing piece (905) front and back symmetry, all slidingtype be equipped with third push rod (906) between two adjacent fourth bracing piece (905) upper portions, third push rod (906) all contact with two carriage (902), all contact with adjacent movable block (504) between three push rod (906) inboard and two fourth bracing piece (905) upper portions of homonymy.

4. The quantitative winding device for wire production according to claim 3, further comprising a guiding component (10) for guiding the wire, wherein the guiding component (10) comprises a toothed belt (1001), a fifth supporting rod (1002), a first gear (1003), a second driving wheel (1004), a second driving belt (1005), a second supporting block (1006), a grooved drum (1007), a supporting shell (1008), a supporting frame (1009), a guiding block (1010), a sliding rod (1011) and a second gear (1012), the toothed belt (1001) is arranged on the outer side of the first driving belt (608), the fifth supporting rod (1002) is symmetrically arranged on the rear side of the inner bottom of the supporting shell (1), two first rotating rods are rotatably arranged on the upper part of the fifth supporting rod (1002) on the left side, the second rotating rods are rotatably arranged on the upper part of the fifth supporting rod (1002) on the right side, the first rotating rods are respectively provided with the first gears (1003), the first gears (1003) are meshed with each other, the toothed belt (1001) on the left side can be meshed with the first gears (1003) on the front side when rotating, the supporting shell (1) is symmetrically arranged on the rear side of the left side, the second supporting block (1006) is symmetrically arranged on the right side, the second rotating rods (1006) are rotatably arranged on the left side of the left side, the number of the second driving wheels (1004) is four, a second driving belt (1005) is wound between every two adjacent second driving wheels (1004), a supporting shell (1008) is arranged on the upper portion of the rear side of the supporting shell (1), the supporting shell (1008) is located on the outer side of a second supporting block (1006), a supporting frame (1009) is arranged in the middle of the rear side of the inner bottom of the supporting shell (1008), a guide block (1010) is arranged on the supporting frame (1009) in a sliding mode, a sliding rod (1011) is arranged on the lower portion of the front side of the guide block (1010), the sliding rod (1011) is connected with a groove drum (1007) in a sliding mode, a second gear (1012) is arranged on the right side of the second rotating rod, and the toothed belt (1001) on the right side is meshed with the second gear (1012) when rotating.

5. A quantitative winding device for electric wire production according to claim 4, characterized in that the upper part of the guide block (1010) is provided with a round hole.