Multifunctional braided lead frame

Abstract

The present invention discloses a multifunctional braided lead frame, which includes a base, a frame assembly and a lead assembly, support bases are arranged on both sides of the top of the base, and a wire passing frame is arranged on the top of the support base, a first motor is arranged on the top of the wire passing frame, and a driving gear is arranged on the output end of the first motor, and a socket pile is arranged on the outer end of the wire passing frame. The mesh weaving adopted by the present invention is a staggered cross mesh weaving. Compared with the traditional flower mesh weaving, the braiding of the braided wire can be realized by rotating the frame in a circle without reducing the protection of the braided wire to the cable, and compared with the traditional flower mesh braided lead frame using a reversing gear and a reversing mechanism, the travel trajectory of the lead assembly can be greatly simplified, thereby reducing the probability of the braided wire being knotted due to the complexity of the displacement trajectory during the weaving process, and the simplification of the travel trajectory can make it easier for the visual component to observe the knotting or breaking of the braided wire.

Description

Technical Field

[0001] The invention relates to the technical field of lead frames, in particular to a multifunctional braided lead frame. Background Art

[0002] In the wire or cable industry, a braiding process is usually used to make the outer protective layer of cables or wires. This process is usually used to enhance the mechanical strength of the cable, provide electromagnetic shielding or prevent wear and tear. By weaving metal or fiber materials, the cable's tensile and compressive resistance can be effectively improved to prevent the cable from being damaged by stretching, bending or wear during use. A braided lead frame is usually used to weave the braided layer.

[0003] When braiding cables, the common braided lead frames on the market usually adopt flower net weaving to ensure the braiding strength. The flower net weaving is usually achieved by using a flower net braided lead frame with a reversing gear and a reversing mechanism. However, the travel trajectory of this lead frame is relatively complicated, and the braided wire is prone to knotting or breaking during the weaving process due to the complex displacement trajectory.

[0004] Therefore, in view of this, the existing structure and defects are studied and improved, and a multifunctional braided lead frame is proposed. Summary of the invention

[0005] The object of the present invention is to provide a multifunctional braided lead frame to solve the problems raised in the above background technology.

[0006] To achieve the above object, the present invention provides the following technical solutions:

[0007] A multifunctional braided lead frame, comprising a base, a frame assembly and a lead assembly, wherein support seats are arranged on both sides of the top of the base, and a wire-passing frame is arranged on the top of the support seats, a first motor is arranged on the top of the wire-passing frame, and a driving gear is arranged on the output end of the first motor, a socket pile is arranged on the outer end of the wire-passing frame, and cables are passed through the inner sides of the wire-passing frame and the socket pile, and the frame assembly is socketed on the outer end of the socket pile;

[0008] The frame assembly includes a rotating frame, a fixed frame, a lifting rod, a second motor, a winding pile, a first wire groove and a driven gear seat. The outer end of the rotating frame is provided with a fixed frame, and the top of the fixed frame is connected with the lifting rod, the output end of the lifting rod is connected with the second motor, and the output end of the second motor is provided with a winding pile, the outer end of the fixed frame is provided with a first wire groove, the outer end of the rotating frame is provided with a driven gear seat, the outer outer end of the winding pile is connected with a braided wire, and the inner side of the rotating frame is provided with a lead assembly.

[0009] Furthermore, the sleeve pile is sleeve-connected with the rotating frame, and the fixed frame is distributed in a ring shape at the outer end of the rotating frame.

[0010] Furthermore, the lifting rod drives the second motor to move up and down, and when the second motor moves up and down, it drives the winding pile to separate from the fixed frame.

[0011] Furthermore, the second motor drives the winding pile to rotate, and when the winding pile rotates, the braided wire is wound out.

[0012] Furthermore, the rotating frame and the driven gear seat are integrated, and the driven gear seat is meshed with the driving gear.

[0013] Furthermore, the lead assembly includes a first wire passing seat, a second wire passing groove, a first active wire passing wheel, a second active wire passing wheel, an electrically controlled rotating shaft and a second wire passing seat, the first wire passing seat having a second wire passing groove therein, and the first active wire passing wheel is disposed therein, the first wire passing seat having a second active wire passing wheel disposed at the bottom end of the first active wire passing wheel, the bottom end of the first wire passing seat having an electrically controlled rotating shaft, and the bottom end of the electrically controlled rotating shaft having a second wire passing seat.

[0014] Furthermore, the first line-through seat is fixedly connected to the rotating frame, and the first line-through seat is distributed in a ring shape at the outer end of the rotating frame.

[0015] Furthermore, the positions of the first wire passing seat and the wire winding pile correspond one to one, and the braided wire at the outer end of the wire winding pile passes through the first wire passing groove and the second wire passing groove to enter the first wire passing seat.

[0016] Furthermore, the first active wire-passing wheel and the second active wire-passing wheel rotate to drive the braided wire to pass out from the inside of the second wire-passing seat, and the rotation speed of the first active wire-passing wheel is greater than the rotation speed of the second active wire-passing wheel.

[0017] Furthermore, the second wire-passing seat is bent, and the electrically-controlled rotating shaft drives the second wire-passing seat to rotate.

[0018] The present invention provides a multifunctional braided lead frame, which has the following beneficial effects:

[0019] The first active wire-passing wheel and the second active wire-passing wheel in the present invention are symmetrically designed as two groups on the left and right, and the two groups of wheel bodies rotate in opposite directions when rotating, so that after the braided wire contacts the first active wire-passing wheel and the second active wire-passing wheel, the rotation of the two can drive the braided wire to be pulled in the direction of the second wire-passing seat, and the wire-leading of the active wire-passing wheel can enable the equipment to quickly realize the laying of the braided wire. Because the rotation speed of the first active wire-passing wheel is higher than that of the second active wire-passing wheel, the first active wire-passing wheel and the second active wire-passing wheel can first reel part of the braided wire into the first wire-passing seat for storage during the wire-leading process. If the size error causes the braided wire to be pulled in the direction of the second wire-passing seat during the braiding process, the first active wire-passing wheel and the second active wire-passing wheel can first reel part of the braided wire into the first wire-passing seat for storage during the wire-leading process. When the braided wire is wound at a speed lower than the braiding speed and becomes tense, the tensioning force generated by the tensioning will be transmitted to the second active wire wheel. At this time, the second active wire wheel will increase the rotation speed due to the tensioning force and wind out the braided wire stored in the first wire seat. Through this design, the situation of braided wire breakage can be greatly reduced. If the braided wire is too loose due to size error and is observed by the visual components outside the equipment, the second wire seat is driven to rotate by the electrically controlled shaft. Since the front end of the second wire seat is bent, the second wire seat can pull the braided wire to tighten it by rotating the second wire seat. Through this design, the situation of weaving affected by the untightened braided wire can be greatly reduced. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 It is a schematic diagram of the overall three-dimensional structure of the multifunctional braided lead frame of the present invention;

[0021] Figure 2 It is a schematic diagram of the overall structure of the multifunctional braided lead frame of the present invention from a side view;

[0022] Figure 3 It is a rear view structural schematic diagram of the frame assembly in the present invention;

[0023] Figure 4 It is a front view structural schematic diagram of the frame assembly in the present invention;

[0024] Figure 5 It is a schematic diagram of the structure of the winding pile winding in the present invention;

[0025] Figure 6 It is a schematic diagram of the separation structure of the winding pile and the fixed stand in the present invention;

[0026] Figure 7 It is a schematic diagram of the structure of the lead assembly in the present invention;

[0027] Figure 8 Schematic diagram of the braided wire being woven on the cable surface.

[0028] In the figure: 1, base; 2, support base; 3, wire rack; 4, first motor; 5, driving gear; 6, socket pile; 7, cable; 8, frame assembly; 801, rotating frame; 802, fixed stand; 803, lifting rod; 804, second motor; 805, winding pile; 806, first wire slot; 807, driven gear seat; 9, braided wire; 10, lead assembly; 1001, first wire seat; 1002, second wire slot; 1003, first active wire wheel; 1004, second active wire wheel; 1005, electric control shaft; 1006, second wire seat. DETAILED DESCRIPTION

[0029] See also Figures 1 to 8 The multifunctional braided lead frame provided by the present invention comprises a base 1, a frame assembly 8 and a lead assembly 10. Support bases 2 are arranged on both sides of the top of the base 1, and a wire rack 3 is arranged on the top of the support base 2. Two groups of frame assemblies 8 are arranged on the base 1. A first motor 4 is arranged on the top of the wire rack 3, and a driving gear 5 is arranged at the output end of the first motor 4. A socket pile 6 is installed at the outer end of the wire rack 3, and a cable 7 is passed through the inner side of the wire rack 3 and the socket pile 6, and the outer end of the socket pile 6 is socketed with the frame assembly 8.

[0030] The frame assembly 8 includes a rotating frame 801, a fixed frame 802, a lifting rod 803, a second motor 804, a winding pile 805, a first wire groove 806 and a driven gear seat 807. The outer end of the rotating frame 801 is provided with a fixed frame 802, and the top of the fixed frame 802 is connected with the lifting rod 803, the output end of the lifting rod 803 is connected with the second motor 804, and the output end of the second motor 804 is provided with a winding pile 805, the outer end of the fixed frame 802 is provided with a first wire groove 806, the outer end of the rotating frame 801 is provided with a driven gear seat 807, the outer outer shell of the winding pile 805 is connected with a braided wire 9, and the inner side of the rotating frame 801 is provided with a lead assembly 10.

[0031] A plurality of groups of lead wire assemblies 10 are disposed on the rotating frame 801 , and each group of lead wire assemblies 10 corresponds to a group of winding posts 805 .

[0032] The sleeve pile 6 is sleeve-connected with the rotating frame 801 , and the fixed frame 802 is distributed in a ring shape at the outer end of the rotating frame 801 .

[0033] When in use, the lifting rod 803 drives the second motor 804 to rise and fall, and when the second motor 804 rises and falls, it drives the winding pile 805 to separate from the fixed frame 802, and the second motor 804 drives the winding pile 805 to rotate, and when the winding pile 805 rotates, it drives the braided wire 9 to be wound out, and the rotating frame 801 and the driven gear seat 807 are integrated, and the driven gear seat 807 is meshed with the driving gear 5.

[0034] In some embodiments, the lead assembly 10 includes a first wire passing seat 1001, a second wire passing groove 1002, a first active wire passing wheel 1003, a second active wire passing wheel 1004, an electrically controlled rotating shaft 1005, and a second wire passing seat 1006. The first wire passing seat 1001 is provided with a second wire passing groove 1002, and the first wire passing seat 1001 is provided with a first active wire passing wheel 1003. The first wire passing seat 1001 is provided with a second active wire passing wheel 1004 at the bottom end of the first active wire passing wheel 1003. The bottom end of the first wire passing seat 1001 is provided with an electrically controlled rotating shaft 1005, and the bottom end of the electrically controlled rotating shaft 1005 is provided with a second wire passing seat 1006. The first wire passing seat 1001 is provided with a second wire passing wheel 1003. 001 is fixedly connected to the rotating frame 801, and the first wire-passing seat 1001 is distributed in a ring shape at the outer end of the rotating frame 801, the first wire-passing seat 1001 corresponds to the position of the winding pile 805 one by one, and the braided wire 9 at the outer end of the winding pile 805 passes through the first wire-passing groove 806 and the second wire-passing groove 1002 to enter the first wire-passing seat 1001, the first active wire-passing wheel 1003 and the second active wire-passing wheel 1004 rotate to drive the braided wire 9 to pass out from the inside of the second wire-passing seat 1006, and the rotation speed of the first active wire-passing wheel 1003 is greater than the rotation speed of the second active wire-passing wheel 1004, the second wire-passing seat 1006 is bent, and the electric control shaft 1005 drives the second wire-passing seat 1006 to rotate.

[0035] The specific operation is as follows: through the operation of the lifting rod 803, the second motor 804 and the winding pile 805 can be driven to move upward, so that the winding pile 805 can be separated from the fixed frame 802. At this time, after the staff puts the sleeve wrapped with the braided wire 9 on the outer end of the winding pile 805, the lifting rod 803 drives the second motor 804 and the winding pile 805 to reset, so that the equipment can load the braided wire 9. After the braided wire 9 is loaded, the winding pile 805 is driven to rotate by the second motor 804, so that the braided wire 9 can be wound out from the sleeve, and the staff passes the braided wire 9 through the first wire groove 806 and the second wire groove 1002, so that the braided wire 9 can enter the interior of the first wire seat 1001.

[0036] It should be noted that the first active wire-passing wheel 1003 and the second active wire-passing wheel 1004 are designed as two symmetrical groups on the left and right, and the two groups of wheels rotate in opposite directions, so that after the braided wire 9 contacts the first active wire-passing wheel 1003 and the second active wire-passing wheel 1004, the rotation of the two can drive the braided wire 9 to be pulled in the direction of the second wire-passing seat 1006.

[0037] After the braided wire 9 is led out from the second wire-passing seat 1006, the staff first fixes a group of braided wires 9 located on the left rotating frame 801 on the surface of the cable 7, and then arranges a group of braided wires 9 on the same position of the right rotating frame 801 in an interlaced manner with the braided wires 9 on the left, and fixes them on the surface of the cable 7, then winds out the braided wire 9 adjacent to the previous group on the left rotating frame 801, and then fixes them on the surface of the cable 7 in an interlaced manner with the fixed braided wire 9 on the right side. By reciprocating this operation, the braided wire 9 can be fixed on the outer end of the cable 7 in a mesh structure. At this time, the wire-taking device drives the cable 7 to pass through the wire-passing frame 3 and the socket pile 6 for displacement, and at the same time, the first motor 4 drives the driving gear 5 to rotate, so that the driven gear seat 807 can drive the fixed frame 802 to rotate at the outer end of the socket pile 6, and the continuous wire output of the winding pile 805 can make the braided wire 9 be woven on the surface of the cable 7 in a mesh shape.

[0038] In addition, since the rotation speed of the first active wire wheel 1003 is higher than that of the second active wire wheel 1004, the first active wire wheel 1003 and the second active wire wheel 1004 can firstly roll up part of the braided wire 9 into the first wire seat 1001 for storage during the wire guiding process. In the weaving process, if the winding speed of the braided wire 9 is lower than the weaving speed due to size error and the braided wire 9 is tightened, the tension generated by the tension will be transmitted to the second active wire wheel 1004. At this time, the second active wire wheel 1004 will increase the rotation speed due to the tension and make The braided wire 9 stored in the first wire holder 1001 is wound out. Through this design, the situation of the braided wire 9 breaking can be greatly reduced. If the braided wire 9 is too loose due to size error and is observed by the visual components outside the device, the second wire holder 1006 is driven to rotate by the electric control shaft 1005. Since the front end of the second wire holder 1006 is bent, the second wire holder 1006 can pull the braided wire 9 to tighten it through the rotation of the second wire holder 1006. Through this design, the situation of the braided wire 9 not being tightened and affecting the weaving can be greatly reduced. After all the braided wires 9 on the sleeve fixed on the winding pile 805 are wound out, the lifting rod 803 drives the second motor 804 to move upward, so that the winding pile 805 can be separated from the fixed stand 802, so that the sleeve on the winding pile 805 can be quickly replaced, and the staff only needs to connect the two sets of braided wires 9 end to end to quickly realize the wire replacement operation. The mesh weaving adopted by the equipment is a staggered cross mesh weaving. Compared with the traditional flower mesh weaving, it can be replaced without reducing the protection of the braided wire 9 to the cable 7 by just rotating the stand 80 The braiding wire 9 can be braided by rotating in a circle. Compared with the traditional flower net braiding lead frame using a reversing gear and a reversing mechanism, this can greatly simplify the travel trajectory of the lead assembly 10, thereby reducing the probability of the braided wire 9 being knotted due to the complex displacement trajectory during the braiding process. The simplification of the travel trajectory can make it easier for the visual components outside the device to observe the knotting or breaking of the braided wire 9. In addition, by simplifying the travel trajectory of the lead assembly 10, the motion interference between the lead assemblies 10 can be avoided and the difficulty of arranging additional components can be reduced.

[0039] In this device, the lifting rod 803, the second motor 804, the first active wire wheel 1003, the second active wire wheel 1004, the electric control shaft 1005 and other components are all fixed based on the rotating frame 801. This enables the device to quickly renew the braided wire 9 and adjust the tightness of the braided wire 9 compared to the traditional lead frame, thereby improving the stability during the weaving process.

[0040] In summary, when the multifunctional braided lead frame is used, the lifting rod 803 is first operated to drive the second motor 804 and the winding pile 805 to move upward, so that the winding pile 805 can be separated from the fixed stand 802. At this time, after the staff sleeves the sleeve wound with the braided wire 9 on the outer end of the winding pile 805, the lifting rod 803 drives the second motor 804 and the winding pile 805 to reset, so that the equipment can load the braided wire 9. After the braided wire 9 is loaded, the winding pile 805 is driven to rotate by the second motor 804, so that the braided wire 9 can be wound out from the sleeve;

[0041] Then the staff passes the braided wire 9 through the first wire groove 806 and the second wire groove 1002, so that the braided wire 9 can enter the first wire seat 1001. The first active wire wheel 1003 and the second active wire wheel 1004 are designed as two groups symmetrically on the left and right, and the two groups of wheels rotate in opposite directions when rotating, so that after the braided wire 9 contacts the first active wire wheel 1003 and the second active wire wheel 1004, the rotation of the two can drive the braided wire 9 to be pulled in the direction of the second wire seat 1006. A plurality of groups of lead components 10 are arranged on the rotating frame 801, and each group of lead components 10 corresponds to a group of winding piles 805, and two groups of frame components 8 are arranged on the base 1. After the braided wire 9 is led out from the second wire seat 1006, the staff first pulls the left A group of braided wires 9 of the side rotating frame 801 is fixed on the surface of the cable 7, and then a group of braided wires 9 at the same position of the right rotating frame 801 is arranged in a staggered manner with the braided wires 9 on the left side and fixed on the surface of the cable 7, and then the left rotating frame 801 is wound with the braided wires 9 adjacent to the previous group, and then fixed on the surface of the cable 7 in a staggered manner with the fixed right braided wires 9. By reciprocating this operation, the braided wires 9 can be fixed on the outer end of the cable 7 in a mesh structure. At this time, the wire-taking device drives the cable 7 to pass through the wire frame 3 and the socket pile 6 for displacement, and at the same time, the first motor 4 drives the driving gear 5 to rotate, so that the driven gear seat 807 can drive the fixed frame 802 to rotate at the outer end of the socket pile 6, and the continuous wire output of the winding pile 805 can make the braided wires 9 woven on the surface of the cable 7 in a mesh shape;

[0042] Then, because the rotation speed of the first active wire wheel 1003 is higher than that of the second active wire wheel 1004, the first active wire wheel 1003 and the second active wire wheel 1004 can first roll part of the braided wire 9 into the first wire seat 1001 for storage during the wire guiding process. During the weaving process, if the winding speed of the braided wire 9 is lower than the weaving speed due to size error and causes the braided wire 9 to be tightened, the tension generated by the tension will be transmitted to the second active wire wheel 1004. At this time, the second active wire wheel 1004 will increase its rotation speed due to the tension and make The braided wire 9 stored inside the first wire holder 1001 is wound out. Through this design, the situation of the braided wire 9 breaking can be greatly reduced. If the braided wire 9 is too loose due to size error and is observed by the visual component outside the device, the second wire holder 1006 is driven to rotate by the electric control shaft 1005. Since the front end of the second wire holder 1006 is bent, the second wire holder 1006 can pull the braided wire 9 to tighten it through the rotation of the second wire holder 1006. Through this design, the situation of the braided wire 9 not being tightened and affecting the braiding can be greatly reduced.

[0043] After all the braided wires 9 on the sleeve fixed on the winding pile 805 are wound out, the lifting rod 803 drives the second motor 804 to move upward, so that the winding pile 805 can be separated from the fixed stand 802, so that the sleeve on the winding pile 805 can be quickly replaced, and the staff only needs to connect the two sets of braided wires 9 end to end to quickly realize the wire replacement operation;

[0044] Finally, because the mesh weaving adopted by the device is an interlaced cross mesh weaving, compared with the traditional flower mesh weaving, the braided wire 9 can be woven without reducing the protection of the braided wire 9 to the cable 7, and the braiding of the braided wire 9 can be achieved by rotating the rotating frame 801 in a circle. Compared with the traditional flower mesh weaving lead frame using reversing gears and reversing mechanisms, this can greatly simplify the travel trajectory of the lead assembly 10, thereby reducing the probability of the braided wire 9 being knotted due to the complex displacement trajectory during the weaving process, and the simplification of the travel trajectory can make the visual components outside the device easier to observe. In addition, by simplifying the travel trajectory of the lead assembly 10, it is possible to avoid motion interference between the lead assemblies 10 and reduce the difficulty of arranging additional components. In this device, the lifting rod 803, the second motor 804, the first active wire wheel 1003, the second active wire wheel 1004, the electric control shaft 1005 and other components are all fixed based on the rotating frame 801. This allows the device to quickly renew the braided wire 9 and adjust the tightness of the braided wire 9 compared to traditional lead frames, thereby improving stability during the weaving process.

[0045] The embodiments of the present invention are given for the purpose of illustration and description, and are not intended to be exhaustive or to limit the invention to the disclosed forms. Many modifications and variations will be apparent to those of ordinary skill in the art. The embodiments are selected and described in order to better illustrate the principles and practical applications of the present invention and to enable those of ordinary skill in the art to understand the present invention and thereby design various embodiments with various modifications suitable for specific uses.

Claims

1. Multifunctional braided lead frame, characterized in that: The invention comprises a base (1), a frame assembly (8) and a lead assembly (10), wherein support seats (2) are arranged on both sides of the top of the base (1), and a wire rack (3) is arranged on the top of the support seat (2), a first motor (4) is arranged on the top of the wire rack (3), and a driving gear (5) is arranged on the output end of the first motor (4), a socket pile (6) is arranged on the outer end of the wire rack (3), and cables (7) are passed through the inner sides of the wire rack (3) and the socket pile (6), and the outer ends of the two socket piles (6) are both socketed with the frame assembly (8); The frame assembly (8) comprises a rotating frame (801), a fixed frame (802), a lifting rod (803), a second motor (804), a winding pile (805), a first wire groove (806) and a driven gear seat (807); the outer end of the rotating frame (801) is provided with a fixed frame (802), and the top end of the fixed frame (802) is connected with the lifting rod (803); the output end of the lifting rod (803) is connected with the second motor (804), and the output end of the second motor (804) is provided with a winding pile (805); the outer end of the fixed frame (802) is provided with a first wire groove (806), the outer end of the rotating frame (801) is provided with a driven gear seat (807), the outer outer surface of the winding pile (805) is connected with a braided wire (9), and the inner side of the rotating frame (801) is provided with a lead assembly (10); The sleeve pile (6) is sleeve-connected with the rotating frame (801), and the fixed frame (802) is distributed in a ring shape at the outer end of the rotating frame (801); the lifting rod (803) drives the second motor (804) to rise and fall, and the second motor (804) drives the winding pile (805) to separate from the fixed frame (802) when rising and falling; The second motor (804) drives the winding pile (805) to rotate, and when the winding pile (805) rotates, the braided wire (9) is wound out, the rotating frame (801) and the driven gear seat (807) are integrated, and the driven gear seat (807) is meshed with the driving gear (5); The lead assembly (10) comprises a first wire passing seat (1001), a second wire passing groove (1002), a first active wire passing wheel (1003), a second active wire passing wheel (1004), an electrically controlled rotating shaft (1005) and a second wire passing seat (1006); the first wire passing seat (1001) is provided with a second wire passing groove (1002) inside, the first wire passing seat (1001) is provided with a first active wire passing wheel (1003) inside, the first wire passing seat (1001) is provided with a second active wire passing wheel (1004) at the bottom end of the first active wire passing wheel (1003); the bottom end of the first wire passing seat (1001) is provided with an electrically controlled rotating shaft (1005), and the bottom end of the electrically controlled rotating shaft (1005) is provided with a second wire passing seat (1006); After the braided wires (9) are led out from the second wire-through seat (1006), a group of braided wires (9) located on the left rotating frame (801) are first fixed on the surface of the cable (7), and then a group of braided wires (9) located on the same position of the right rotating frame (801) are arranged in a staggered manner with the braided wires (9) on the left and fixed on the surface of the cable (7), and then the left rotating frame (801) and the braided wires (9) adjacent to the previous group are wound out and then fixed on the surface of the cable (7) in a staggered manner with the fixed right braided wires (9), and the reciprocating operation is performed so that the braided wires (9) are fixed to the outer end of the cable (7) in a mesh structure.

2. The multifunctional braided lead frame according to claim 1, characterized in that: The first wire connection seat (1001) is fixedly connected to the rotating frame (801), and the first wire connection seat (1001) is distributed in a ring shape at the outer end of the rotating frame (801).

3. The multifunctional braided lead frame according to claim 1, characterized in that: The positions of the first wire passing seat (1001) and the winding pile (805) correspond one to one, and the braided wire (9) at the outer end of the winding pile (805) passes through the first wire passing groove (806) and the second wire passing groove (1002) and enters the first wire passing seat (1001).

4. The multifunctional braided lead frame according to claim 1, characterized in that: The first active wire-passing wheel (1003) and the second active wire-passing wheel (1004) rotate to drive the braided wire (9) to pass out from the inside of the second wire-passing seat (1006), and the rotation speed of the first active wire-passing wheel (1003) is greater than the rotation speed of the second active wire-passing wheel (1004).

5. The multifunctional braided lead frame according to claim 1, characterized in that: The second line connection seat (1006) is bent, and the electric-controlled rotating shaft (1005) drives the second line connection seat (1006) to rotate.

Images