A docking device for intelligent cable manufacturing

Abstract

The present invention relates to the field of intelligent manufacturing of cables, and more specifically, a docking device for intelligent manufacturing of cables. It includes a metal cylinder and a notch, and two notches are provided at both ends of the metal cylinder. The two notches on the same side of the metal cylinder are arranged opposite to each other. A docking device for intelligent manufacturing of cables also includes anti-slip ridges and strip pieces, and strip pieces are provided on the upper and lower sides of the inner side of the metal cylinder, and each strip piece is provided with multiple anti-slip ridges from left to right. A docking device for intelligent manufacturing of cables also includes a hook, and a hook is provided at both ends of each strip piece, and the strip piece is detachably connected to the metal cylinder through two hooks. A docking device for intelligent manufacturing of cables also includes a lower seat and an arc groove, and the upper part of the lower seat is provided with an arc groove, and the metal cylinder is placed in the arc groove.

Description

Technical Field

[0001] The present invention relates to the field of intelligent cable manufacturing, and more particularly to a docking device for intelligent cable manufacturing. Background Art

[0002] A cable is a device for transmitting electrical energy or signals, typically consisting of several or several groups of wires. Prior art discloses a cable docking box comprising a base, a box mounted on the base, and a support mounting plate secured to the base and located within the box. The box also includes multiple support insulators secured to the support mounting plate and a cable plug secured to the support insulators. The plug has a cable input terminal and a cable output terminal. The input terminal is connected to the cable input wire, and the output terminal is connected to the cable output wire, thus completing a cable docking loop. Because the support mounting plate is mounted with multiple support insulators, multiple cable docking loops can be achieved. However, this type of cable docking box does not easily securely connect the conductive metal parts of the cables. Summary of the Invention

[0003] In order to overcome the deficiencies of the prior art, the present invention provides a docking device for intelligent cable manufacturing, which has the beneficial effect that the present invention can stably connect the conductive metal positions of the cable.

[0004] A cable intelligent manufacturing docking device comprises a metal cylinder and a notch, wherein two ends of the metal cylinder are each provided with two notches.

[0005] Preferably, the two notches on the same side of the metal cylinder are arranged opposite to each other.

[0006] A docking device for intelligent cable manufacturing also includes anti-slip edges and strip pieces. Strip pieces are provided on the upper and lower sides of the inner side of the metal tube, and each strip piece is provided with multiple anti-slip edges from left to right.

[0007] A docking device for intelligent cable manufacturing also includes hooks. Both ends of each strip piece are provided with hooks, and the strip piece is detachably connected to the metal cylinder through the two hooks.

[0008] A docking device for intelligent cable manufacturing also includes a lower seat and an arc groove. The upper part of the lower seat is provided with an arc groove, and a metal tube is placed in the arc groove. BRIEF DESCRIPTION OF THE DRAWINGS

[0009] The present invention will be further described in detail below with reference to the accompanying drawings and specific implementation methods.

[0010] Figure 1 Schematic diagram of part of the docking device Figure 1 ;

[0011] Figure 2Schematic diagram of part of the docking device Figure 2 ;

[0012] Figure 3 Schematic diagram of the metal cylinder structure Figure 1 ;

[0013] Figure 4 Schematic diagram of the metal cylinder structure Figure 2 ;

[0014] Figure 5 Schematic diagram of the metal cylinder structure Figure 3 ;

[0015] Figure 6 Schematic diagram of the structure of the lower seat and the pressing piece Figure 1 ;

[0016] Figure 7 Schematic diagram of the structure of the lower seat and the pressing piece Figure 2 ;

[0017] Figure 8 Schematic diagram of the tablet structure Figure 1 ;

[0018] Figure 9 Schematic diagram of the tablet structure Figure 2 ;

[0019] Figure 10 Schematic diagram of part of the docking device Figure 3 ;

[0020] Figure 11 Schematic diagram of part of the docking device Figure 4 ;

[0021] Figure 12 Schematic diagram of the structure of the pole;

[0022] Figure 13 is a structural diagram of the base;

[0023] Figure 14 Schematic diagram of the ring structure Figure 1 ;

[0024] Figure 15 Schematic diagram of the ring structure Figure 2 ;

[0025] Figure 16 Schematic diagram of the overall structure of the docking device Figure 1 ;

[0026] Figure 17 Schematic diagram of the overall structure of the docking device Figure 2 .

[0027] In the figure: metal tube 101; notch 102; anti-slip edge 103; strip 104; hook 105; bottom edge 106;

[0028] Lower seat 201; arc groove 202; square column 203; L-shaped column 204; telescopic rod I205; rib groove 206; steel stamp 207;

[0029] Pressing piece 301; V-shaped groove 302; plug 303; protrusion 304; V-shaped piece 305;

[0030] Vertical rod 401; shaft seat 402; convex shaft 403; shaft groove 404; annular cutter 405; cylinder 406; retaining ring 407; bidirectional threaded screw 408;

[0031] Base 501; slide rail 502; V-shaped clamp 503; connecting frame 504;

[0032] Ring 601; Scratching knife 602; Telescopic rod II 603; Stand 604;

[0033] Cable 701. DETAILED DESCRIPTION

[0034] In certain embodiments, see Figure 1-4 The problem to be solved in the figure is to make the left and right ends of the metal cylinder 101 press on the two cables respectively, and

[0035] Since the docking device for intelligent cable manufacturing includes a metal cylinder 101 and a notch 102, the two notches 102 are respectively provided at the two ends of the metal cylinder 101. When docking two cables, the ends of the two cables are first peeled to expose the conductive parts of the cables, and then the ends of the two cables are respectively inserted into the left and right ends of the metal cylinder 101. Then, pliers or other clamping tools are used to press the left and right ends of the metal cylinder 101 so that the left and right ends of the metal cylinder 101 are respectively pressed on the two cables. Since two notches 102 are provided at both ends of the metal cylinder 101, the metal cylinder 101 is easier to flatten, and the metal cylinder 101 is easier to clamp on the cable. Then, liquid tin is poured into the metal cylinder 101 so that the tin fills the gap in the metal cylinder 101, thereby completing the docking operation of the two cables.

[0036] In certain embodiments, see Figure 3-4 The problem solved in the figure is to facilitate the flattening of the metal cylinder 101 through the two opposite notches 102 on the same side, and

[0037] Since the two notches 102 on the same side of the metal cylinder 101 are arranged opposite to each other, it is convenient for the metal cylinder 101 to be flattened by the two opposite notches 102 on the same side.

[0038] In certain embodiments, see Figure 3-5 The problem solved in the figure is to effectively prevent the cable from sliding out of the metal cylinder 101, and

[0039] Since the docking device also includes anti-slip ridges 103 and strips 104, the two strips 104 are respectively arranged on the upper and lower sides of the inner side of the metal cylinder 101, and both strips 104 are provided with multiple anti-slip ridges 103 from left to right. Therefore, when the metal cylinder 101 is flattened, the two strips 104 will press on the upper and lower sides of the two cables, and the anti-slip ridges 103 on the strips 104 provide an anti-slip effect, effectively preventing the cables from slipping out of the metal cylinder 101.

[0040] In certain embodiments, see Figure 3-5 The problem solved in the figure is to facilitate hanging the strip 104 on the inner side of the metal cylinder 101 through two hooks 105, and

[0041] Since the docking device also includes a hook 105, a hook 105 is provided at both ends of the strip piece 104. The strip piece 104 can be detachably connected to the metal cylinder 101 through the two hooks 105, and then the strip piece 104 can be conveniently hung on the inner side of the metal cylinder 101 through the two hooks 105, and then the metal cylinder 101 can be flattened.

[0042] In certain embodiments, see Figure 1-7 The problem solved in the figure is to flatten the metal cylinder 101, and

[0043] Since the docking device also includes a lower seat 201 and an arc groove 202, the arc groove 202 is set on the upper part of the lower seat 201, and the metal cylinder 101 is placed on the arc groove 202. Then the lower seat 201 and the arc groove 202 provide an area for the metal cylinder 101 to be placed, which is convenient for flattening the metal cylinder 101.

[0044] In certain embodiments, see Figure 1-7 The problem solved in the figure is to prevent the metal cylinder 101 from shaking when it is flattened, and

[0045] Since the docking device for intelligent cable manufacturing also includes a bottom rib 106 and a rib groove 206, the rib groove 206 is arranged at the lower part of the arc groove 202, and the bottom rib 106 is arranged on the lower side of the metal tube 101. The bottom rib 106 is inserted into the rib groove 206, thereby preventing the metal tube 101 from rotating at will when placed on the arc groove 202, thereby making the metal tube 101 firmly placed and preventing the metal tube 101 from shaking when it is flattened.

[0046] In certain embodiments, see Figure 6-9 The problem solved in the figure is that the two pressing pieces 301 move downward and press on the two ends of the metal cylinder 101, and

[0047] Since the docking device also includes a square column 203, an L-shaped column 204, a telescopic rod I205 and a pressing plate 301, the L-shaped column 204 is vertically slidably connected to the rear part of the lower seat 201, the telescopic rod I205 is fixedly connected to the lower seat 201, the movable end of the telescopic rod I205 is arranged on the L-shaped column 204, and the upper part of the L-shaped column 204 is fixedly connected to the square column 203, and the two pressing plates 301 are respectively arranged at both ends of the square column 203, and the pressing plates 301 are both located above the metal cylinder 101. When the telescopic rod I205 is extended or retracted, it drives the L-shaped column 204 to slide vertically, and then drives the square column 203 and the two pressing plates 301 to slide vertically. The two pressing plates 301 move downward and press on the two ends of the metal cylinder 101, thereby flattening both ends of the metal cylinder 101, so that the two ends of the metal cylinder 101 are respectively pressed on the two ends of the two cables, completing the docking of the two cables.

[0048] In certain embodiments, see Figure 6-7 , the problem solved in the figure is to mark the metal cylinder 101, and,

[0049] Since the docking device also includes a steel stamp 207, the steel stamp 207 can be pressed on the middle of the metal cylinder 101 when it moves downward, thereby marking the metal cylinder 101, marking the docking date and other information.

[0050] In certain embodiments, see Figure 8-9 The problem solved in the figure is to make the pressing sheet 301 more stably pressed on the upper side of the metal cylinder 101, and

[0051] Since the docking device also includes a V-shaped groove 302, a V-shaped groove 302 is provided on the lower side of the pressing sheet 301, and the pressing sheet 301 can slide on the square column 203. The pressing sheet 301 is tightened and fixed on the square column 203 by screws, and the distance between the two pressing sheets 301 can be adjusted so that the two pressing sheets 301 are pressed at different positions on the metal cylinder 101. The V-shaped groove 302 on the lower side of the pressing sheet 301 can make the pressing sheet 301 more stably pressed on the upper side of the metal cylinder 101.

[0052] In certain embodiments, see Figure 8-9 , the problem solved in the figure is to improve the bonding effect between the metal cylinder 101 and the cable, and,

[0053] Since the docking device also includes a pin 303, a protrusion 304 and a V-shaped piece 305, the pin 303 can be plugged into the pressing piece 301, and the pin 303 is tightened and fixed to the pressing piece 301 by screws. A plurality of V-shaped pieces 305 are provided on the pin 303 from left to right, and a plurality of protrusions 304 are provided on the lower side of the plurality of V-shaped pieces 305. Furthermore, by installing the pin 303 on the pressing piece 301, a plurality of V-shaped pieces 305 are added to the pressing piece 301. The plurality of V-shaped pieces 305 can also be pressed on the metal cylinder 101, thereby pressing out a plurality of indentations on the metal cylinder 101, thereby further improving the bonding effect between the metal cylinder 101 and the cable.

[0054] The docking device also includes a vertical pole 401, a convex shaft 403, an axis groove 404, an annular knife 405, a cylinder 406, a retaining ring 407 and a base 501. The vertical pole 401 is provided with an axis groove 404 at both ends, and the cylinder 406 is provided with one at the top and bottom. The front sides of the two cylinders 406 are provided with a convex shaft 403, and the two convex shafts 403 are respectively inserted into the two axis grooves 404. The two convex shafts 403 can move vertically in their respective axis grooves 404. An annular knife 405 is provided in the middle of each cylinder 406, and a retaining ring 407 is provided at the front and rear ends of each cylinder 406. The vertical pole 401 is fixedly connected to the base 501.

[0055] In certain embodiments, see Figure 1-17 ,The problem solved in the figure is to facilitate the stripping of the cable, and,

[0056] The two protruding shafts 403 can slide vertically on the two shaft grooves 404, thereby adjusting the distance between the two cylinders 406 and adjusting the two annular blades 405 to the appropriate distance to accommodate cables of different diameters. The plastic-sheathed cable is passed between the two annular blades 405, and the two annular blades 405 then make two upper and lower cuts on the cable sheath, thereby conveniently splitting the cable sheath in half and facilitating cable peeling. The front and rear retaining rings 407 on the cylinder 406 prevent the cable from moving forward and backward, allowing the cable to enter the center between the two annular blades 405.

[0057] The docking device also includes an axle seat 402 and a bidirectional threaded screw 408. The front parts of the two convex shafts 403 are respectively rotatably connected to the two axle seats 402. The upper and lower parts of the bidirectional threaded screw 408 have opposite thread rotation directions. The upper and lower parts of the bidirectional threaded screw 408 are respectively matched with the two axle seats 402 through threads. The bidirectional threaded screw 408 is driven by a motor to rotate around its own axis, and the motor that drives the bidirectional threaded screw 408 is fixed on the base 501.

[0058] In certain embodiments, see Figure 1-17The problem solved in the figure is to drive the two convex shafts 403 and the two cylinders 406 closer or farther away, and

[0059] The bidirectional threaded screw 408 rotates about its own axis to drive the two shaft seats 402 closer or farther away, thereby driving the two convex shafts 403 and the two cylinders 406 closer or farther away, thereby adjusting the distance between the two annular knives 405.

[0060] The docking device also includes a slide rail 502, a V-shaped clamp 503 and a connecting frame 504. The left part of the base 501 is provided with a slide rail 502 in the front and rear directions. The lower ends of the two V-shaped clamps 503 are respectively slidably connected to the front and rear ends of the slide rail 502. The lower ends of the V-shaped clamps 503 are tightened and fixed to the slide rail 502 by screws. The two V-shaped clamps 503 are located on the left side of the two cylinders 406. The left parts of the two connecting frames 504 are respectively fixedly connected to the outside of the two V-shaped clamps 503. The two retaining rings 407 on the cylinder 406 are slidably connected to the cylinder 406 in the front and rear directions. The right part of the connecting frame 504 on the front side is fixedly connected between the two retaining rings 407 on the front side, and the right part of the connecting frame 504 on the rear side is fixedly connected between the two retaining rings 407 on the rear side.

[0061] In certain embodiments, see Figure 1-17 The problem solved in the figure is to make the cable move stably between the two annular knives 405 for peeling, and

[0062] The two V-shaped plates 503 can slide back and forth on the slide rails 502, thereby adjusting the spacing between the two V-shaped plates 503. The cable is inserted between the two V-shaped plates 503, allowing the cable to move stably from left to right, and then stably move between the two annular blades 405 for peeling. In addition, when the two V-shaped plates 503 slide back and forth, they drive the corresponding retaining rings 407 to slide on the cylinder 406 through the two connecting frames 504, thereby allowing the two retaining rings 407 on the cylinder 406 to adapt to the spacing between the two V-shaped plates 503.

[0063] The docking device also includes a ring sleeve 601, a cutting knife 602, a telescopic rod II603 and a stand 604. The stand 604 is fixedly connected to the base 501. The ring sleeve 601 is rotatably connected to the upper part of the stand 604. The ring sleeve 601 is located between the cylinder 406 and the V-shaped splint 503. The cutting knife 602 is slidably connected to the ring sleeve 601. The telescopic rod II603 is fixedly connected to the ring sleeve 601. The movable end of the telescopic rod II603 is fixedly connected to the outer end of the cutting knife 602.

[0064] In certain embodiments, see Figure 1-17 , the problem solved in the figure is to remove the outer skin of the cable end, and,

[0065] When the telescopic rod II603 is extended or retracted, it can drive the cutter 602 to rise and fall, thereby driving the cutter 602 to press against the cable, and then making the ring sleeve 601 rotate around its own axis, thereby driving the cutter 602 to rotate around the axis of the ring sleeve 601, cutting the cable in a circle. When the two annular knives 405 have cut two upper and lower marks on the outer skin of the cable, the cable is cut in a circle to remove the outer skin at the end of the cable.

Claims

1. A cable docking device for intelligent manufacturing, comprising a metal tube and a notch, characterized in that: Two notches are provided at both ends of the metal cylinder; The two notches on the same side of the metal cylinder are arranged opposite to each other; It also includes anti-slip ridges and strips. Strips are provided on the upper and lower sides of the inner side of the metal cylinder. Each strip has multiple anti-slip ridges from left to right. It also includes hanging buckles, with hanging buckles provided at both ends of each strip piece, and the strip piece is detachably connected to the metal cylinder through the two hanging buckles; It also includes a lower seat and an arc groove, wherein the upper portion of the lower seat is provided with an arc groove, and the metal cylinder is placed in the arc groove; It also includes a bottom rib and a rib groove, wherein the lower part of the arc groove is provided with a rib groove, and the lower side of the metal tube is provided with a bottom rib, and the bottom rib is inserted into the rib groove; It also includes a square column, an L-shaped column, a telescopic rod I and a pressing piece. The L-shaped column is vertically slidably connected to the rear part of the lower seat. The lower seat is fixedly connected to the telescopic rod I. The movable end of the telescopic rod I is fixedly connected to the L-shaped column. The square column is fixedly connected to the upper part of the L-shaped column. Two pressing pieces are respectively provided at both ends of the square column, and both pressing pieces are located above the metal cylinder. It also includes a steel stamp, with the middle part of the square column fixedly connected with the steel stamp; It also includes a V-shaped groove, and each pressing plate is provided with a V-shaped groove on the lower side. The two pressing plates are both connected to the square column by transverse sliding. The pressing plates are tightened and fixed to the square column by screws; It also includes a plug post, a convex point and a V-shaped piece. The plug post is plugged into the pressing piece. The plug post is tightened and fixed to the pressing piece by screws. A plurality of V-shaped pieces are provided on the plug post from left to right. A plurality of convex points are provided on the lower side of each of the V-shaped pieces. The docking device also includes a vertical rod, a convex shaft, a shaft groove, an annular knife, a cylinder, a retaining ring and a base. The vertical rod is provided with a shaft groove at both ends, and the cylinder is provided with one at the top and bottom. The front sides of the two cylinders are provided with a convex shaft, and the two convex shafts are respectively inserted into the two shaft grooves. The two convex shafts can move vertically in their respective shaft grooves. The middle part of each cylinder is provided with an annular knife, and the front and rear ends of each cylinder are provided with retaining rings. The vertical rod is fixedly connected to the base. The docking device also includes a shaft seat and a bidirectional threaded screw. The front parts of the two convex shafts are respectively rotatably connected to the two shaft seats. The threads of the upper and lower parts of the bidirectional threaded screw rotate in opposite directions. The upper and lower parts of the bidirectional threaded screw are respectively matched with the two shaft seats through threads. The bidirectional threaded screw is driven by a motor to rotate around its own axis. The motor that drives the bidirectional threaded screw is fixed to the base. The docking device also includes a slide rail, a V-shaped clamp and a connecting frame. A slide rail in the front and rear directions is provided on the left side of the base. The lower ends of the two V-shaped clamps are respectively slidably connected to the front and rear ends of the slide rail. The lower ends of the V-shaped clamps are tightened and fixed to the slide rail by screws. The two V-shaped clamps are located on the left direction of the two cylinders. The left parts of the two connecting frames are respectively fixedly connected to the outer sides of the two V-shaped clamps. The two retaining rings on the cylinder are slidably connected to the cylinder in the front and rear directions. The right part of the connecting frame on the front side is fixedly connected between the two retaining rings on the front side, and the right part of the connecting frame on the rear side is fixedly connected between the two retaining rings on the rear side.

2. A cable intelligent manufacturing docking device according to claim 1, characterized in that: The docking device also includes a ring sleeve, a cutting knife, a telescopic rod II and a stand. The stand is fixedly connected to the base, the ring sleeve is rotatably connected to the upper part of the stand, the ring sleeve is located between the cylinder and the V-shaped splint, the ring sleeve is slidably connected to the cutting knife, the ring sleeve is fixedly connected to the telescopic rod II, and the movable end of the telescopic rod II is fixedly connected to the outer end of the cutting knife.

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