Automatic wire core winding machine for wire production

Abstract

The invention discloses an automatic wire core winding machine for wire production, which comprises a top driving assembly, a bottom driving assembly, an end press-fitting assembly, a reciprocating screw rod, a cross and a wire guide assembly, and is characterized in that a press-fitting notch is formed in the cross; the end press-fitting assembly comprises a press-fitting electric push rod, a jacking electric push rod, a press-fitting head and a jacking piece. According to the winding machine, the bottom driving assembly is controlled to work through the rotating shaft at the top of the winding machine body, and the bottom driving assembly enables the top driving assembly to be in a synchronous working state through the four reciprocating lead screws; the press-fitting electric push rod controls the press-fitting head to press the hooping piece into the press-fitting notch, the cross is matched with the press-fitting head to move up and down outside the four reciprocating lead screws, the hooping piece can be press-fitted outside the multiple wire cores, the press-fitting effect of the head portions and the tail portions of the wire cores is achieved, the situations that wire ends are in disorder and the like are avoided, and the wound wire cores are convenient to transport and wind.

Description

[0001] This invention relates to the field of environmental protection equipment technology, and in particular to an automated wire core winding machine for wire production. Background Technology

[0002] The conductor is usually made of metal, such as copper or aluminum. Electric current is transmitted through the flow of free electrons within the conductor. In metal atoms, outer electrons easily break free from the nucleus, forming free electrons. These free electrons move directionally under the influence of an electric field, thus creating an electric current.

[0003] The conductivity of a wire core mainly depends on the conductivity, cross-sectional area, and length of its material. Materials with higher conductivity and wire cores with larger cross-sectional areas generally exhibit better conductivity and can carry a greater current. During the manufacturing process, to ensure conductivity, individual metal conductors are often twisted and wound together to form the wire core.

[0004] Existing wire core winding machines extract filaments from different coils and twist them into wire cores for subsequent wire production. However, in practical applications, the lack of effective support at both ends of the wire core during winding easily leads to messy wire ends in the initial and later stages of winding, affecting collection and subsequent use. Therefore, providing an automated wire core winding machine for wire production is a problem that urgently needs to be solved by those skilled in the art. Summary of the Invention

[0005] One objective of this invention is to provide an automated wire core winding machine for wire production, which solves the problem that existing wire core winding machines lack effective support at both ends of the wire core during the winding process, resulting in messy wire ends in the initial stage and during the completion of winding, which has a certain impact on the winding collection and subsequent use.

[0006] An automated wire core winding machine for wire production according to an embodiment of the present invention includes a top drive assembly, a bottom drive assembly, and an end pressing assembly, wherein the bottom drive assembly is disposed at the bottom of the top drive assembly; The end pressing assembly is positioned between the top drive assembly and the bottom drive assembly; The bottom drive assembly has a winding machine body at its bottom. The four corners of the top of the winding machine body are each fitted with a stand. The top of the four stands are fitted with a winding top seat. Multiple wire spool positioning rods are fitted with the three sides of the top of the winding machine body. Multiple wire guide components are provided on the three sides of the bottom of the winding top seat. The bottom drive assembly includes a tray, and a bottom sun gear connected to the internal rotating shaft of the winding machine body is provided at the center of the inner side of the tray. The bottom sun gear is externally meshed with four bottom planetary gears. The top drive assembly includes a top sun gear, four top planetary gears are externally meshed with the top sun gear, a suspension bracket is internally assembled with the top sun gear, a winding core plate is assembled with the center of the bottom of the suspension bracket, a reciprocating screw is assembled between each of the four bottom planetary gears and the four top planetary gears, a cross is provided on the outside of the four reciprocating screws, and a press-fit groove is opened inside the cross. The end pressing assembly includes a pressing electric push rod and a lifting electric push rod. The pressing electric push rod has a pressing head assembled and connected to its movable end, and the lifting electric push rod has a lifting component assembled and connected to its movable end. The wire reel is sleeved on the outside of the wire reel positioning rod. The wire guiding assembly guides the wire into the inside of the pressing groove. The lifting electric push rod pushes the clamping member to move to the top with the help of the lifting member. The pressing electric push rod controls the pressing head to press the clamping member into the inside of the pressing groove, so that the ends of multiple wires are clamped.

[0007] Preferably, the top of the winding top seat is fitted with a suspension plate, the top of the suspension bracket passes through the interior of the winding top seat and is threadedly connected with a limiting sleeve; the tray is assembled to the top of the winding machine body, and the two ends of the four reciprocating screws are all interference-fitted with bearings, and the bearings at both ends of the reciprocating screws are respectively embedded in the interior of the suspension plate and the tray.

[0008] Preferably, the cross is controlled by four reciprocating screws to move back and forth in the vertical direction. During the movement of the cross from bottom to top, the clamping member that clamps the ends of multiple wires inside the pressing groove passes through the inside of the winding core plate and is picked up and pulled.

[0009] Preferably, a guide groove is machined on the inner wall of the end of the pressing groove facing the pressing electric push rod, the cross-section of the clamping member and the guide groove is V-shaped, the wide opening of the clamping member and the guide groove is arranged facing each other, and the pressing head is movably connected to the inside of the pressing groove.

[0010] Preferably, a backing plate is integrally formed between the two uprights, a C-frame is assembled and connected to the bottom inner wall of the tray, a backing member is assembled and connected to the top inner wall of the C-frame in the opening direction, a backing member is provided on the inner side of the C-frame, a support strip is integrally formed on the inner side of the bottom of the backing member, and a movable slot is opened inside the lifting member; the fixed end of the lifting electric push rod is assembled to the bottom of the tray, the fixed end of the pressing electric push rod is assembled to the surface of the backing plate, multiple clamping members are stacked on the top of the support strip, the innermost clamping member is fastened to the outside of the backing member, the backing member is fastened to the outside of the outermost clamping member, the support strip is movably connected to the inside of the movable slot, and the lifting member pushes the innermost clamping member from the bottom to the top through the top of the C-frame, and is picked up and pressed into the inside of the pressing slot by the pressing head.

[0011] Preferably, the outer surfaces of the top and bottom of the backrest are integrally formed with a second guide rod, and the second guide rod is externally sleeved with a second spring; the second spring is supported between the surface of the backrest and the inner sidewall of the C-frame, and the two second guide rods are slidably connected inside the C-frame.

[0012] Preferably, each of the plurality of the thread guiding components includes a straightening disc, the bottom of which is integrally formed with an H-shaped frame, and the end of the H-shaped frame away from the straightening disc is rotatably connected to a first guide wheel and a second guide wheel, and the outer surfaces of the first guide wheel and the second guide wheel are each provided with an annular groove.

[0013] Preferably, a U-shaped frame is provided on the outside of the first guide wheel, and a first guide rod is integrally formed at both ends of the top of the U-shaped frame, and a first spring is sleeved to the outside of the first guide rod; The first spring is supported between the outer surface of the U-shaped frame and the horizontal plate of the H-shaped frame, and the first guide rod is slidably connected inside the horizontal plate of the H-shaped frame.

[0014] Preferably, the shortest distance between the bottom of the annular grooves on the first and second guide wheels is less than the diameter of the wire core, and the wire passes through the interior of the annular groove and converges inside the press-fit groove.

[0015] Preferably, the orthopedic disc has three arc-shaped grooves inside, and each of the three arc-shaped grooves has a bolt inside; the top of the bolt is threaded to the inside of the winding top seat, and the orthopedic disc is rotatably connected to the outside of the three bolts through the three arc-shaped grooves.

[0016] The beneficial effects of this invention are: This invention controls the rotation of the bottom sun gear via a rotating shaft at the top of the winding machine body. This rotation drives the four bottom planetary gears meshing with the bottom sun gear to rotate. The four bottom planetary gears drive the cross to move up and down through four reciprocating screws, and simultaneously control the rotation of the four top planetary gears. The four top planetary gears drive the rotation of the top sun gear located at the center of the bottom of the suspension plate. The top sun gear supports the winding core plate at its bottom, which winds the wire passing through it to form a wire core. When the end of the wire pulled from the coil is fed into the inside of the pressing groove, the pressing electric push rod controls the pressing head to press the clamping member into the inside of the pressing groove. With the cross moving up and down outside the four reciprocating screws, clamping members can be pressed onto the outside of multiple wire cores, achieving the pressing effect of the head and tail of the wire core, avoiding messy wire ends, and facilitating transportation and winding operations. This invention stacks multiple clamping members on top of the support bar, and uses a backing member supported by a second spring to fasten to the outside of the outermost clamping member, so that the innermost clamping member is fastened to the outside of the abutment member. Because the clamping members can be continuously replenished to the top of the lifting member, the additional pressure after the pressing head is pressed into the pressing groove by the pressing electric push rod when it is sent to the side of the pressing head away from the pressing electric push rod can be reduced. This invention applies pressure to a second guide wheel using a first guide wheel supported by a first spring. When the wire on the coil passes through the annular grooves on the first and second guide wheels, it provides a certain frictional resistance to the traction of the wire, preventing the wire from becoming too loose. At the same time, by using a straightening disc that rotates outside the three bolts through three arc-shaped grooves, the wire on the coil can be guided into the interior of the pressing groove, preventing interference between the wire and the winding top seat during the up-and-down movement of the cross screw outside the four reciprocating screws. Attached Figure Description

[0017] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used in conjunction with embodiments of the invention to explain the invention and do not constitute a limitation thereof. In the drawings: Figure 1 This is one of the structural schematic diagrams of an automated wire core winding machine for wire production proposed in this invention; Figure 2 This is the second schematic diagram of the structure of an automated wire core winding machine for wire production proposed in this invention; Figure 3 This is a schematic diagram of the main body of an automated wire core winding machine for wire production proposed in this invention; Figure 4 This is a schematic diagram of the connection structure of the top drive assembly and the end pressing assembly of an automated wire core winding machine for wire production proposed in this invention; Figure 5This is a cross-sectional view of a tray for an automated wire core winding machine for wire production proposed in this invention; Figure 6 This invention proposes an automated wire core winding machine for wire production. Figure 5 Enlarged diagram of section A in the middle; Figure 7 This is a schematic diagram of the connection structure of the cross and end pressing assembly of an automated wire core winding machine for wire production proposed in this invention. Figure 8 This invention proposes an automated wire core winding machine for wire production. Figure 7 Enlarged diagram of section B in the middle; Figure 9 This is a schematic diagram of the wire guiding assembly of an automated wire core winding machine for wire production proposed in this invention; Figure 10 This is a schematic diagram of the connection structure of the suspension plate and suspension bracket of an automated wire core winding machine for wire production proposed in this invention.

[0018] In the picture: 1. Winding top seat; 2. Winding machine body; 3. Top drive assembly; 301. Limiting screw sleeve; 302. Suspension disc; 303. Winding core plate; 304. Suspension bracket; 305. Top sun gear; 306. Top planetary gear; 4. Bottom drive assembly; 401. Tray; 402. Bottom planetary gear; 403. Bottom sun gear; 5. Wire reel positioning rod; 6. Frame; 7. Wire guiding assembly; 701. Correcting disc; 702. Bolt; 703. H-frame; 704. First spring; 705. First guide rod; 706. U-frame; 707. First guide wheel; 708. Second guide wheel; 8. End pressing assembly; 801. C-frame; 802. Lifting electric push rod; 803. Pressing electric push rod; 804. Pressing head; 805. Second guide rod; 806. Second spring; 807. Lifting component; 808. Abutment component; 809. Backing component; 810. Erection bar; 9. Reciprocating lead screw; 10. Cross joint; 11. Press-fit groove; 12. Clamping component; 13. Movable groove; 14. Guide groove; 15. Annular groove; 16. Backing plate; 17. Arc groove. Detailed Implementation

[0019] The present invention will now be described in further detail with reference to the accompanying drawings. These drawings are simplified schematic diagrams, illustrating only the basic structure of the invention, and therefore only show the components relevant to the invention.

[0020] Example 1: The technical solution in this application is to solve the problem that the two ends of the wire core in the above-mentioned wire core winding machine lack effective support during the winding process, and the wire ends are prone to becoming messy in the initial stage and after the winding is completed. This has a certain impact on the winding collection and subsequent use. The overall idea is as follows: To address the problems existing in the prior art, the present invention provides a schematic diagram of an automated wire core winding machine for wire production, with reference to... Figures 1 to 6 , Figure 10 The top drive assembly 3, the bottom drive assembly 4 located at the bottom of the top drive assembly 3, and the end pressing assembly 8 located between the top drive assembly 3 and the bottom drive assembly 4 are provided. The bottom of the bottom drive assembly 4 is provided with the winding machine body 2. The four corners of the top of the winding machine body 2 are all equipped with uprights 6. The top of the four uprights 6 is equipped with a winding top seat 1. The three sides of the top of the winding machine body 2 are all equipped with multiple wire spool positioning rods 5. The three sides of the bottom of the winding top seat 1 are all provided with multiple wire guide assemblies 7. like Figure 2 As shown, the bottom drive assembly 4 includes a tray 401. A bottom sun gear 403 connected to the internal rotating shaft of the winding machine body 2 is provided at the center of the inner side of the tray 401. Four bottom planet gears 402 are externally meshed with the bottom sun gear 403. like Figure 4 As shown, the top drive assembly 3 includes a top sun gear 305, four top planetary gears 306 are externally meshed with the top sun gear 305, a suspension bracket 304 is internally assembled with the top sun gear 305, a winding core plate 303 is assembled with the center of the bottom of the suspension bracket 304, a suspension disc 302 is assembled with the top of the winding top seat 1, the top of the suspension bracket 304 passes through the interior of the winding top seat 1 and is threadedly connected with a limit sleeve 301, a tray 401 is assembled to the top of the winding machine body 2, bearings are interference-fitted at both ends of the four reciprocating screws 9, and the bearings at both ends of the reciprocating screws 9 are respectively embedded in the interior of the suspension disc 302 and the tray 401, reciprocating screws 9 are assembled between the four bottom planetary gears 402 and the four top planetary gears 306, a cross 10 is provided on the exterior of the four reciprocating screws 9, the cross 10 is controlled by the four rotating reciprocating screws 9 to make reciprocating motion in the vertical direction, and a press-fit groove 11 is opened inside the cross 10; like Figures 5 to 8 As shown, the end pressing assembly 8 includes a pressing electric push rod 803 and a lifting electric push rod 802. The pressing electric push rod 803 is assembled with a pressing head 804 at its movable end, and the lifting electric push rod 802 is assembled with a lifting component 807 at its movable end. In this process, multiple wire coils are respectively attached to the outside of multiple wire coil positioning rods 5, and the ends of the wires are pulled out from the coils and passed through the wire guide assembly 7. The wire guide assembly 7 guides the wires into the interior of the pressing slot 11. When the lifting electric push rod 802 pushes the clamping member 12 to the top with the help of the lifting member 807, and the pressing electric push rod 803 controls the pressing head 804 to press the clamping member 12 into the interior of the pressing slot 11, the ends of multiple wires can be clamped. Secondly, the rotating shaft at the top of the winding machine body 2 controls the rotation of the bottom sun gear 403. The bottom sun gear 403 drives the four bottom planet gears 402 meshing with it to rotate. The four bottom planet gears 402 drive the cross 10 to move from bottom to top through the four reciprocating screws 9. The clamping member 12, which clamps the ends of multiple wires inside the pressing slot 11, carries the wire ends through the interior of the winding core plate 303 during the movement of the cross 10 from bottom to top, and is finally picked up and pulled at the top of the winding top seat 1. Meanwhile, when the top of the clamping member 12 is continuously pulled, the four bottom planetary gears 402 synchronously control the four top planetary gears 306 to rotate through the four reciprocating screws 9. The four top planetary gears 306 drive the top sun gear 305 located at the bottom center of the suspension plate 302 to rotate. During the rotation, the top sun gear 305 winds the wire through the winding core plate 303. Next, under the control of the four continuously rotating reciprocating screws 9, the cross 10 returns to the bottom, waiting for the end of the wire on the coil to enter the inside of the pressing groove 11, where it is pressed and fixed by the clamping member 12 that is about to be squeezed by the pressing electric push rod 803 and the pressing head 804. As the cross 10 continues to move to the top, the winding of the wire core is completed. Furthermore, to facilitate the fastening of the clamping member 12 at the top of the C-frame 801, the pressing head 804, controlled by the pressing electric push rod 803, presses onto the outside of the wire core, such as... Figure 7 As shown, a guide groove 14 is machined on the inner wall of the end of the press-fitting slot 11 facing the press-fitting electric push rod 803. The cross-section of the clamping member 12 and the guide groove 14 is V-shaped. By setting the wide openings of the clamping member 12 and the guide groove 14 facing each other, when the press-fitting electric push rod 803 controls the press-fitting head 804 to be movably connected inside the press-fitting slot 11, it is convenient for the clamping member 12 to quickly enter the interior of the press-fitting slot 11 and form a cylindrical sleeve inside the press-fitting slot 11 to clamp the outside of the wire core.

[0021] In this embodiment, the bottom sun gear 403 is rotated by the rotating shaft at the top of the winding machine body 2, which drives the four bottom planetary gears 402 meshing with the bottom sun gear 403 to rotate. The four bottom planetary gears 402 drive the cross 10 to move up and down through the four reciprocating screws 9, and simultaneously control the rotation of the four top planetary gears 306. The four top planetary gears 306 drive the top sun gear 305 located at the bottom center of the suspension plate 302 to rotate. The top sun gear 305 is supported by the winding core plate 303 at its bottom to wind the silk thread passing through it to form a core. Simultaneously, when multiple coils are respectively fitted onto the outside of multiple coil positioning rods 5, and the ends of the wires are pulled from the coils and fed into the press-fit groove 11, the lifting electric push rod 802 pushes the clamping member 12 to the top with the help of the lifting member 807, and the press-fit electric push rod 803 controls the press-fit head 804 to press the clamping member 12 into the press-fit groove 11, so that the ends of multiple wires can be clamped. At this time, the clamping member 12 moves with the cross 10 moving from the bottom to the top. When the top of the clamping member 12 passes through the inside of the winding core plate 303 and is pulled at the top of the winding top seat 1, the winding core plate 303, which rotates with the top sun gear 305, performs the work of winding the wire into a wire core. Furthermore, as the cross 10 moves from top to bottom under the control of four reciprocating screws 9, the wire core is continuously pulled until the cross 10 moves to one side of the pressing head 804. The end of the wire on the coil enters the interior of the pressing groove 11. At this time, the lifting electric push rod 802 pushes the clamping member 12 to move to the top, and the pressing electric push rod 803 pushes the pressing head 804 to control the clamping member 12 to first enter the interior of the guide groove 14 and deform, and then clamp the tail of the wire core inside the pressing groove 11. Finally, the pressing effect of the head and tail of the wire core is achieved, avoiding messy wire ends and facilitating transportation and winding operations.

[0022] Example 2: Based on Example 1, this application example describes the storage state of multiple clamping components 12 to be used. The overall concept is as follows: like Figures 5 to 8 As shown, a backing plate 16 is integrally formed between the two uprights 6. A C-shaped frame 801 is assembled and connected to the bottom inner wall of the tray 401. An abutment 808 is assembled and connected to the top inner wall of the C-shaped frame 801 in the opening direction. A back support 809 is provided on the inner side of the C-shaped frame 801. A support strip 810 is integrally formed on the inner side of the bottom of the back support 809. An movable slot 13 is opened inside the lifting member 807. In this way, by assembling the fixed end of the lifting electric push rod 802 to the bottom of the tray 401 and the fixed end of the pressing electric push rod 803 to the surface of the backing plate 16, when multiple clamping parts 12 are stacked on top of the support bar 810, the innermost clamping part 12 can be fastened to the outside of the abutment 808 and the backing part 809 can be fastened to the outside of the outermost clamping part 12, thereby realizing the storage function of multiple clamping parts 12 and reducing the pressure of manual replenishment; Meanwhile, the outer surfaces of the top and bottom of the backrest 809 are integrally formed with second guide rods 805. The second guide rods 805 are externally connected to second springs 806. By supporting the second springs 806 between the surface of the backrest 809 and the inner wall of the C-frame 801, the two second guide rods 805 are slidably connected inside the C-frame 801. The support bar 810 is movably connected inside the movable slot 13. This will not affect the lifting member 807 from bottom to top pushing the innermost clamping member 12 through the top of the C-frame 801 and being picked up and pressed into the inside of the pressing slot 11 by the pressing head 804. This will prevent the support bar 810 and the lifting member 807 from interfering with each other. Furthermore, when the innermost clamping member 12 is pushed upward by the lifting member 807 and passes through the interior of the C-frame 801, and is picked up by the pressing head 804, the gap between the lifting member 807 and the clamping member 12 can be eliminated by the second spring 806 pushing the multiple clamping members 12. When the lifting member 807 disengages from the clamping member 12 and the abutment member 808, the clamping member 12 is stably fastened to the outside of the abutment member 808.

[0023] In this embodiment, multiple clamping members 12 are stacked on top of the support bar 810. The backing member 809, supported by the second spring 806, is fastened to the outside of the outermost clamping member 12, and the innermost clamping member 12 is fastened to the outside of the abutment member 808. When the lifting electric push rod 802 controls the lifting member 807 to push the innermost clamping member 12 from the bottom to the top through the C-shaped frame 801, the support bar 810 moves outside the movable slot 13 without interference between the two. The clamping members 12 can be continuously added to the top of the lifting member 807, avoiding the frequent replenishment of clamping members 12 in a short period of time. Finally, when the clamping member 12 is sent to the side of the pressing head 804 away from the pressing electric push rod 803, the pressing electric push rod 803 controls the pressing head 804 to press into the inside of the pressing slot 11, thereby achieving the effect of fixing the wire core end.

[0024] Example 3: Based on Examples 1 and 2, this example describes the state in which the threads on the spool are guided and moved. The overall concept is as follows: like Figure 2 , Figure 4 , Figure 5 and Figure 9As shown, each of the multiple wire guiding components 7 includes a straightening disc 701. The bottom of the straightening disc 701 is integrally formed with an H-shaped frame 703. The end of the H-shaped frame 703 away from the straightening disc 701 is slidably connected to a first guide wheel 707 and a second guide wheel 708. The outer surfaces of the first guide wheel 707 and the second guide wheel 708 are both provided with annular grooves 15. The first guide wheel 707 is provided with a U-shaped frame 706 on its outside. Both ends of the top of the U-shaped frame 706 are integrally formed with a first guide rod 705. The first guide rod 705 is externally sleeved with a first spring 704. In this way, by making the shortest distance between the bottom of the annular groove 15 on the first guide wheel 707 and the second guide wheel 708 smaller than the diameter of the wire core, when the wire passes through the inside of the annular groove 15 and gathers inside the press-fit groove 11, a certain frictional resistance can be provided for the traction of the wire, so as to avoid the wire from being too loose. Meanwhile, by supporting the first spring 704 between the outer surface of the U-shaped frame 706 and the horizontal plate of the H-shaped frame 703, and by sliding the first guide rod 705 inside the horizontal plate of the H-shaped frame 703, the first spring 704 can apply pressure to the thread between the first guide wheel 707 and the second guide wheel 708 to ensure the effect of obstructed movement. Secondly, in order to allow the threads on the outer coils of different coil positioning rods 5 to pass through the interior of the thread guide assembly 7 at different positions, such as... Figure 4 and Figure 9 As shown, the straightening disc 701 has three arc-shaped grooves 17 inside, and each of the three arc-shaped grooves 17 is provided with a bolt 702. By connecting the top of the bolt 702 to the inside of the winding top seat 1, when the straightening disc 701 is rotatably connected to the outside of the three bolts 702 through the three arc-shaped grooves 17, it can automatically adjust its own angle according to the position of the wire coil positioning rod 5.

[0025] In this embodiment, by setting multiple wire guide components 7 at the three sides of the bottom of the winding top seat 1, which correspond one-to-one with the wire coil positioning rods 5 at the three sides of the winding machine body 2, when the wires on the wire coils outside the different wire coil positioning rods 5 can pass through the inside of the wire guide components 7 at different positions, the first guide wheel 707 supported by the first spring 704 applies pressure to the second guide wheel 708, so that when the wires on the wire coils pass through the annular grooves 15 on the first guide wheel 707 and the second guide wheel 708, a certain frictional resistance is provided for the traction of the wires, so as to avoid the wires being too loose; Meanwhile, by means of the straightening disc 701 rotating outside the three arc grooves 17 on the three bolts 702, it can automatically adjust its own angle according to the position of the wire coil positioning rod 5, which can guide the wire on the wire coil into the interior of the pressing groove 11. When the cross 10 moves up and down outside the four reciprocating screws 9, there will be no interference between the wire and the winding top seat 1.

[0026] Specifically, when using this device to perform operations: First, multiple coils are respectively fitted onto the outside of multiple coil positioning rods 5. The end of the wire is pulled out from the coil and passes through the two annular grooves 15 on the first guide wheel 707 and the second guide wheel 708. The first guide wheel 707, supported by the first spring 704, applies pressure to the second guide wheel 708 to provide frictional resistance for the traction of the wire. Then, one end of multiple wires is placed inside the pressing groove 11, and the lifting electric push rod 802 is activated to control the lifting component 807 to push the innermost clamping component 12 to the top. The lifting component 807 is movably connected to the outside of the support bar 810 through the movable groove 13. When the clamping component 12 moves through the C-frame 801 to one side of the pressing head 804, the pressing electric push rod 803 controls the pressing head 804 to press the clamping component 12 into the pressing groove 11 through the guide groove 14. During the process of the clamping component 12 forming a sleeve, the wires are clamped. Furthermore, the rotating shaft at the top of the winding machine body 2 controls the rotation of the bottom sun gear 403, which drives the four bottom planetary gears 402 meshing with the bottom sun gear 403 to rotate. The four bottom planetary gears 402 drive the cross 10 to move from the bottom to the top through the four reciprocating screws 9, and simultaneously control the rotation of the four top planetary gears 306. The cross 10 passes through the interior of the winding core plate 303 at the top of the clamping member 12 and is pulled at the top of the winding top seat 1. Immediately afterwards, the top of the wire core is continuously pulled, and the cross 10 is controlled by four reciprocating screws 9 to move from the top to the bottom until the cross 10 moves to one side of the pressing head 804. The end of the wire on the coil enters the interior of the pressing groove 11. At this time, the lifting electric push rod 802 pushes the clamping member 12 to move to the top, and the pressing electric push rod 803 pushes the pressing head 804 to control the clamping member 12 to first enter the interior of the guide groove 14 to deform, and then clamp the tail of the wire core inside the pressing groove 11.

[0027] It is worth noting that the traction at one end of the winding core follows the technology known in the art, and in order to keep the threads on a large number of spools wound together to form a core, the ends of the threads on different spools can be connected (including but not limited to pre-welding).

[0028] The above description is only a preferred embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the scope of the technology disclosed in the present invention, based on the technical solution and inventive concept of the present invention, should be covered within the scope of protection of the present invention.

Claims

1. An automated wire core winding machine for wire production, characterized in that, include: Top driver component (3); Bottom drive component (4), which is located at the bottom of top drive component (3); The end pressing assembly (8) is disposed between the top drive assembly (3) and the bottom drive assembly (4); The bottom drive assembly (4) is provided with a winding machine body (2) at the bottom. The four corners of the top of the winding machine body (2) are all equipped with uprights (6). The tops of the four uprights (6) are all equipped with a winding top seat (1). The three sides of the top of the winding machine body (2) are all equipped with multiple wire spool positioning rods (5). The three sides of the bottom of the winding top seat (1) are all equipped with multiple wire guide assemblies (7). The bottom drive assembly (4) includes a tray (401), and a bottom sun gear (403) connected to the internal rotating shaft of the winding machine body (2) is provided at the center of the inner side of the tray (401). The bottom sun gear (403) is externally meshed with four bottom planetary gears (402). The top drive assembly (3) includes a top sun gear (305), which is externally meshed with four top planetary gears (306). The top sun gear (305) is internally assembled with a suspension bracket (304). A winding core plate (303) is assembled at the center of the bottom of the suspension bracket (304). A reciprocating screw (9) is assembled between each of the four bottom planetary gears (402) and the four top planetary gears (306). A cross (10) is provided on the outside of the four reciprocating screws (9). A press-fit groove (11) is provided inside the cross (10). The end pressing assembly (8) includes a pressing electric push rod (803) and a lifting electric push rod (802). The pressing electric push rod (803) has a pressing head (804) assembled at its movable end, and the lifting electric push rod (802) has a lifting component (807) assembled at its movable end. The wire coil is sleeved on the outside of the wire coil positioning rod (5), the wire guide assembly (7) guides the wire into the inside of the pressing groove (11), the lifting electric push rod (802) pushes the clamping member (12) to the top with the help of the lifting member (807), and the pressing electric push rod (803) controls the pressing head (804) to press the clamping member (12) into the inside of the pressing groove (11), so that the ends of multiple wires are clamped.

2. The automated wire core winding machine for wire production according to claim 1, characterized in that, The top of the winding top seat (1) is fitted with a suspension plate (302), and the top of the suspension bracket (304) passes through the interior of the winding top seat (1) and is threadedly connected to a limiting sleeve (301). The tray (401) is assembled to the top of the winding machine body (2), and the two ends of the four reciprocating screws (9) are all fitted with bearings with interference fit, and the bearings at both ends of the reciprocating screws (9) are respectively embedded in the suspension plate (302) and the tray (401).

3. The automated wire core winding machine for wire production according to claim 1, characterized in that, The cross (10) is controlled by four reciprocating screws (9) to make a reciprocating motion in the vertical direction. The clamping member (12) that clamps the ends of multiple wires inside the press-fit groove (11) is picked up and pulled through the inside of the winding core plate (303) during the movement of the cross (10) from bottom to top.

4. The automated wire core winding machine for wire production according to claim 1, characterized in that, The inner wall of the end of the press-fitting slot (11) facing the press-fitting electric push rod (803) is machined with a guide slot (14). The cross-section of the clamping member (12) and the guide slot (14) is V-shaped. The wide openings of the clamping member (12) and the guide slot (14) are arranged facing each other. The press-fitting head (804) is movably connected to the inside of the press-fitting slot (11).

5. An automated wire core winding machine for wire production according to claim 1, characterized in that, A backing plate (16) is integrally formed between the two uprights (6). A C-shaped frame (801) is assembled and connected to the bottom inner wall of the tray (401). An abutment (808) is assembled and connected to the top inner wall of the C-shaped frame (801) in the opening direction. A back support (809) is provided on the inner side of the C-shaped frame (801). A support strip (810) is integrally formed on the inner side of the bottom of the back support (809). An movable slot (13) is opened inside the lifting member (807). The fixed end of the lifting electric push rod (802) is assembled to the bottom of the tray (401), the fixed end of the pressing electric push rod (803) is assembled to the surface of the back plate (16), multiple clamping parts (12) are stacked on the top of the support bar (810), the innermost clamping part (12) is fastened to the outside of the abutment (808), the back support (809) is fastened to the outside of the outermost clamping part (12), the support bar (810) is movably connected to the inside of the movable slot (13), the lifting part (807) pushes the innermost clamping part (12) from the bottom to the top through the top of the C-frame (801), and is picked up and pressed into the inside of the pressing slot (11) by the pressing head (804).

6. An automated wire core winding machine for wire production according to claim 5, characterized in that, The outer surfaces of the top and bottom of the backrest (809) are integrally formed with a second guide rod (805), and the second guide rod (805) is externally connected to a second spring (806). The second spring (806) is supported between the surface of the backrest (809) and the inner wall of the C-frame (801), and the two second guide rods (805) are slidably connected inside the C-frame (801).

7. An automated wire core winding machine for wire production according to claim 1, characterized in that, Each of the multiple thread guiding components (7) includes a straightening disc (701), and an H-shaped frame (703) is integrally formed on the bottom of the straightening disc (701). The end of the H-shaped frame (703) away from the straightening disc (701) is slidably connected to a first guide wheel (707) and a second guide wheel (708). The outer surfaces of the first guide wheel (707) and the second guide wheel (708) are both provided with annular grooves (15).

8. An automated wire core winding machine for wire production according to claim 7, characterized in that, The first guide wheel (707) is provided with a U-shaped frame (706) on its outside. Both ends of the top of the U-shaped frame (706) are integrally formed with a first guide rod (705). The first guide rod (705) is sleeved with a first spring (704). The first spring (704) is supported between the outer surface of the U-shaped frame (706) and the horizontal plate of the H-shaped frame (703), and the first guide rod (705) is slidably connected inside the horizontal plate of the H-shaped frame (703).

9. An automated wire core winding machine for wire production according to claim 7, characterized in that, The shortest distance between the bottom of the annular groove (15) on the first guide wheel (707) and the second guide wheel (708) is less than the diameter of the wire core. The wire passes through the interior of the annular groove (15) and gathers inside the press-fit groove (11).

10. An automated wire core winding machine for wire production according to claim 7, characterized in that, The correction disc (701) has three arc-shaped grooves (17) inside, and bolts (702) are installed inside each of the three arc-shaped grooves (17). The top of the bolt (702) is threaded to the inside of the winding top seat (1), and the straightening disc (701) is rotatably connected to the outside of the three bolts (702) through three arc grooves (17).

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