WO2021235702A1 - Electric wire bender for indirect live wire, and electric wire-bending indirect live wire method using same - Google Patents

Abstract

The present invention relates to an electric wire bender for indirect live wire, and an electric wire-bending indirect live wire method using same to install electric wires on an electric pole, in which, when carrying out electrical wiring by means of indirect live wire work on an electric pole which is in a live wire state, the electric wire bender is for bending stripped electric wires at respective fixing portions thereof which are fastened to a dead-end clamp in order to fix the electric wires to the dead-end clamp and a suspension insulator. More specifically, disclosed are an electric wire bender for indirect live wire, and an electric wire-bending indirect live wire method using same, in which, for installation, replacement or repair work on electric wires installed on an electric pole, the electric wire bender is used when bending electric wires having various thicknesses in indirect live wire work in order to stably install the electric wires by means of the indirect live wire work, and especially, by preventing a swelling phenomenon occurring when strands of the electric wires, which have been stripped of outer sheaths, are bent, the electric wires may be easily fastened to a dead-end clamp to which the bent portions of the electric wires are fastened, and thus construction by means of indirect live wire may be possible, and at the same time, quality in construction is secured, and at the same time, work efficiency and safety may be improved.

Description

Wire bending machine for indirect live wire and wire bending indirect live wire method using the same

The present invention relates to a wire bending machine for bending a wire in a part fastened to a clamp in order to fix the wire to a dead-end clamp during wire wiring construction with an indirect live wire operation, and a wire bending method for installing an electric wire on an electric pole by using the indirect live wire operation As related to, and more specifically described, in the new construction, replacement, or repair work of electric wires installed on electric poles, electric wires of various thicknesses are stably fixed to the dead end clamp and used when bending the electric wires to be installed, especially the outer shell By preventing the bulging phenomenon that occurs when the bare wire of the wire is bent, so that the bent part of the wire can be easily fastened to the dead end clamp, it enables construction with an indirect live wire and works simultaneously with securing construction quality This is a technical field related to a wire bending machine for indirect live wire that can improve the efficiency and safety of the wire and an indirect live wire method for wire bending using the same.

In general, most of the electric power supplied to each consumer is made through distribution lines installed over almost all areas such as cities and suburbs. and overhead lines for supporting and installing power lines in the air above a predetermined height from the ground using insulating insulators.

Here, the underground line requires a separate pipeline to protect the power cable and requires additional auxiliary devices, so the construction is complicated, and the buried power cable itself has to be manufactured to insulate itself, so the problem is that it is expensive. However, the construction of underground lines is on the rise because of the advantages in terms of aesthetics or traffic obstructions.

Due to these problems such as construction cost and power operation, overhead lines are now the mainstream of distribution lines, and these overhead lines are power lines for transporting the power actually supplied to consumers, and lightning voltage induced in power lines due to lightning strikes. It consists of a neutral wire through which an unbalanced current flows and an overhead branch wire to reduce the voltage, and can be largely divided into two types, a straight type and a built-in type, according to the support method of the power line.

In addition, in the built-in method, both ends of the power line are fixed and supported through separate built-in clamps on both sides of the electric pole for positioning the overhead line at a predetermined height above the ground, and then the wire is installed on the outer circumferential surface of the steel wire. The overhead line is configured to support the wire and the jumper wire by fixing the jumper wire and the wire.

At this time, the jumper wire is installed by connecting both sides of the electric pole, and after peeling the outer shell of the fixed part, fixed to the dead end clamp and coupled, the dead end clamp is provided with a cover for insulating and protecting the power line.

However, in the electric wire constituting the jumper wire, due to the nature of the structure formed by twisting a plurality of wires, the bent part (hereinafter, referred to as the 'bend part') swells after the outer skin is peeled. With live wire work, the bent part cannot be inserted into the dead end clamp, making installation impossible, and there is a problem of lowering the construction quality.

In addition, due to the structural characteristics of the jumper wire as described above, the conventional indirect live wire tool uses a wire tong tool such as a gripstick that functions as a wire clipper, and the wire tube is a wire at the end of a long circular pole. It is equipped with tongs that can pick up the tongs, so that the operator places the tongs on the wire to be worked and then turns the rod to open or close the tongs to fix the jumper wire or wire. The role of pushing the jumper wire or wire is all And there is a problem in that it is impossible to bend to take a shape or fix it.

In order to solve the above problems, a wire holder that can perform indirect live wire work regardless of the thickness of the jumper wire or wire to be worked has been developed. There is a problem that construction is impossible for the built-in pole and the human pole, which must be fixed and installed.

The present invention is a technology devised to solve the problems according to the above-mentioned prior art. In the prior art, not only cannot bend the part where the outer sheath of the electric wire is covered by indirect live wire work, but also the wire is swollen due to the nature of the electric wire structure. Due to the phenomenon, installation in the dead end clamp is impossible and the construction quality is deteriorated, so the present technology solves this problem by inserting into the dead end clamp among the bending parts, that is, the bending part of the wire sheath, and fixing it. By preventing the bulging phenomenon by bending the skinned outer periphery of the electric wire to be compressed in a compressed state, the construction quality is secured and construction is easy, and after gripping the electric wire, the bending lever is moved by the driving motor of the driving stick. The main purpose of providing a wire bending machine for indirect live wire that enables bending work easily with indirect live wire work by bending the bent part of the electric wire without inflating the wires of the electric wire and wire bending indirect live wire method using the same will be.

The wire bending machine for indirect live wire of the present invention is coupled to the base frame and one side of the base frame to realize the desired object, and the holder part for gripping or releasing the electric wire is coupled to the other side of the base frame and , A gearbox having a worm gear therein and a lower portion coupled to one side of the gearbox, the bending lever connected to the worm gear and rotated forward and backward by the operation of the worm gear Indirect live wire, characterized in that it is configured We present a wire bending machine for

In addition, the holder part of the present invention is coupled to the upper side of one side of the base frame, so that when the bending lever is rotated forward, it is moved in the front downward direction, and when the bending lever is rotated backward, it is moved in the rear upward direction. It is characterized in that it is configured to include an upper holder coupled to and a lower holder coupled to a lower portion of one side of the base frame.

In addition, the upper holder of the present invention is formed on the lower surface, when the electric wire is gripped, it is configured to include an upper compression groove formed to surround the upper outer periphery of the electric wire, the lower holder is formed on the upper surface However, when the electric wire is gripped, it is characterized in that it comprises a lower compression groove formed to surround the lower outer periphery of the electric wire.

In addition, in the upper holder of the present invention, the lower part of the other side is coupled to the upper part of one side of the base frame, the front and the lower part are opened, and the guide body and the guide body formed by tilting the inner upper surface in the front lower direction. The upper part is coupled to the inner upper part so as to be slidable, and it is formed on the lower surface, and when the electric wire is gripped, it comprises a slide member having an upper compression groove formed to surround the upper outer periphery of the electric wire. do.

In addition, the slide member of the present invention is formed on the rear of the upper surface, the rear is installed in the elastic groove and the elastic groove is opened, the front is supported, the rear is supported on the inner rear surface of the guide body to elastically support the front. It is formed in front of the compression spring and the upper surface, and a through hole is formed in the rear surface to communicate with the elastic groove and the rear is fixedly coupled to the inner rear surface of the guide body, and penetrates the elastic groove, the compression spring and the through groove It is characterized in that it is configured to include a guide pin to be installed.

In addition, the slide member of the present invention is configured to include a guide groove formed to be inclined in the front downward direction on one side, the guide body is formed through one side, the coupling hole formed to correspond to the guide groove and It is characterized in that it is configured to include a guide bolt coupled to the coupling hole, the end of which is inserted into the guide groove.

In addition, the guide body of the present invention is configured to include a pair of guide rails formed to be opposite to each other on both inner side surfaces, and the slide member is formed to protrude from the upper side of both sides and is slidably coupled to the pair of guide rails It is characterized in that it is configured to include a guide projection.

In addition, the guide body of the present invention includes a guide bearing in which the front side of the other side is opened, and the slide member is coupled to the front side of the other side to contact the rear side of the bending lever when the bending lever is rotated backward. characterized by being

In addition, the bending lever of the present invention is rotatably coupled to the upper portion of one side and is configured to include a guide roller that is in contact with the upper portion of the outer periphery of the electric wire when it is rotated forward, and the guide roller is formed on the outer periphery of the center It is characterized in that it is configured to include a pressing groove.

In addition, the bending lever of the present invention is characterized in that it is configured to include an inclined portion inclined rearward toward the upper portion in the center.

In the wire bending indirect live wire method of the present invention, in order to realize the desired object as described above, the first wire fixing step of locating the bare wire of the wire with the outer sheath removed to the holder part of the wire bending machine and the first wire fixing step after the wire bending machine A second wire fixing step and fixing the second wire by operating the worm gear of the gearbox to rotate the bending lever forward so that the front of the wire is close to the bending lever and at the same time the rear of the wire is gripped by the holder of the wire bending machine After the step, the bending step of operating the worm gear of the wire bending machine gearbox to further rotate the bending lever forward so that the wire is bent by the bending lever, and after the bending step, the worm gear of the wire bending machine gearbox is operated to rotate the bending lever in the reverse direction We present a wire bending indirect live wire method comprising the wire releasing step of separating the bent wire fixed to the wire bending machine holder.

The wire bending machine for indirect live wire according to the present invention presented as described above and the wire bending indirect live wire method using the same, when bending the part to be bent from which the outer sheath of the fixed part wire is removed, is inserted into the dead and clamp of the front or rear part that is fixed. By compressing the outer periphery of the electric wire, the electric wire can be stably and firmly gripped, and the wire in the front or rear part inserted into the dead-end clamp is prevented from bulging, so that it is smoothly inserted and installed in the dead-end clamp. Thus, it is possible to obtain the effect of securing construction quality and facilitating installation of wires at the same time.

In addition, the present invention enables smooth indirect live wire work above a predetermined height from the ground by connecting the drive stick, and at the same time rotates the bending lever through the drive part of the drive stick to stably and smoothly bend the wire through indirect live wire work, , it is possible to obtain the effect of improving the efficiency of the work accordingly.

1 is a photograph showing an example of a wire structure.

Figure 2 is a photograph showing the swelling phenomenon of the electric wire.

3 is a side view showing a wire bending machine and a driving stick according to a preferred embodiment of the present invention.

Figure 4 is a perspective view showing a state before operation of the wire bending machine according to the preferred embodiment of the present invention.

Figure 5 is a right side view showing the state before operation of the wire bending machine according to the preferred embodiment of the present invention.

Figure 6 is a left side view showing a state before operation of the wire bending machine according to the preferred embodiment of the present invention.

7 is a perspective view showing a state after operation of the wire bending machine according to the preferred embodiment of the present invention.

8 is a perspective view from another angle showing a state after operation of the wire bending machine according to the preferred embodiment of the present invention.

9 is a right side view showing the state after operation of the wire bending machine according to the preferred embodiment of the present invention.

Figure 10 is a left side view showing a state after the operation of the wire bending machine according to the preferred embodiment of the present invention.

11 is a right side view showing a wire bending machine into which an electric wire is inserted according to a preferred embodiment of the present invention.

12 is a right side view showing a state in which a wire is bent by a wire bending machine according to a preferred embodiment of the present invention.

13 is an exploded perspective view showing an upper holder according to a preferred embodiment of the present invention.

14 is a side cross-sectional view showing an upper holder according to a preferred embodiment of the present invention.

Figure 15 is a side cross-sectional view showing the operation of the upper holder according to a preferred embodiment of the present invention.

16 is a partial rear view showing an upper holder and a lower holder holding a thin wire according to a preferred embodiment of the present invention.

17 is a partial rear view showing an upper holder and a lower holder holding a thick electric wire according to a preferred embodiment of the present invention.

18 is a perspective side view showing a state in which the bending lever is rotated backward according to a preferred embodiment of the present invention.

19 is a perspective side view showing a state in which the bending lever according to a preferred embodiment of the present invention is rotated forward by a slide member after being rotated backward;

20 is a perspective side view showing a state in which the bending lever is rotated backward according to a preferred embodiment of the present invention.

21 is a perspective side view showing a state in which the bending lever is rotated rearwardly and then rotated forward by the return member according to a preferred embodiment of the present invention.

*Detailed explanation of the main symbols in the drawing*

1: Driving stick 2: Wire bending machine

10: electric wire 12: outer sheath 14: bare wire

100: base frame 200: holder portion 210: upper holder

212: guide body 212a: coupling hole 212b: guide bolt

212c: guide rail 214: slide member 214a: upper compression groove

214b: elastic groove 214c: compression spring 214d: through groove

214e: guide pin 214f: guide groove 214g: guide projection

214h: guide bearing 220: lower holder 222: lower compression groove

300: gear box 310: worm gear 312: worm

312a: manual rotation unit 314: worm wheel

320: drive stick connector 400: bending lever 410: guide roller

412: pressing groove 420: inclined portion 430: return member

The present invention provides a wire bending machine (2) for bending the wire (10) of a portion fastened to the clamp in order to fix the wire (10) to the dead-end clamp when installing the wire, and wire bending for installing the wire on the electric pole using the same As it relates to an indirect live wire method, in more detail, in order to bend and stably install the wire 10 of various thicknesses in the new construction, replacement or repair work of the electric wire 10 installed on the electric pole, the electric wire 10 By compressing and fixing the outer periphery of the portion where the outer skin 12 is peeled and bent when bending the wire 14 (hereinafter referred to as a 'bend portion'), it is possible to prevent the bulging phenomenon in which the wire 14 is inflated, and thus By rotating the bending lever 400 through the driving motor 1a of the driving stick 1 as well as to facilitate the fastening of the dead end clamp (not shown) fastened to the bent portion of the electric wire 10 . It relates to a wire bending machine for indirect live wire that stably grips and fixes the wire 10 by indirect live wire work and then bends the wire 10 to easily work, and a wire bending indirect live wire method using the same.

The configuration for achieving the wire bending machine for indirect live wire of the present invention as described above is a base frame 100; and a holder part 200 coupled to one side of the base frame 100 to grip or release the wire 10 ); and a gearbox 300 coupled to the other side of the base frame 100 and having a worm gear 310 therein; and a bending lever 400 having a lower portion coupled to one side of the gearbox 300, connected to the worm gear 310 and rotating forward and backward by the operation of the worm gear 310; do it with

In addition, the holder part 200 of the present invention is coupled to the upper portion of one side of the base frame 100, when the bending lever 400 is rotated forward, it is moved in the front downward direction, and the bending lever 400 ) is rotated backward, the upper holder 210 coupled to move in the rear upward direction; and the lower holder 220 coupled to the lower portion of one side of the base frame 100; characterized in that it is configured to include .

In addition, the upper holder 210 of the present invention is formed on the lower surface, when the electric wire 10 is gripped, the upper compression groove (214a) formed to surround the upper outer periphery of the electric wire 10; The lower holder 220 is formed on the upper surface, and when the electric wire 10 is gripped, the lower compression groove 222 is formed to surround the lower outer periphery of the electric wire 10; It is characterized in that it comprises.

In addition, the upper holder 210 of the present invention is a guide in which the lower part of the other side is coupled to the upper part of one side of the base frame 100, the front and the lower part are opened, and the inner upper surface is inclined in the front downward direction. The body 212; and the guide body 212, the upper portion is coupled to be slidable on the inner upper portion, is formed on the lower surface, when the electric wire 10 is gripped, the upper outer periphery of the electric wire (10) and a slide member 214 having an upper compression groove 214a formed to surround it.

In addition, the slide member 214 of the present invention is formed in the rear of the upper surface, the rear is opened to the elastic groove (214b); and the elastic groove (214b) is installed in the front is supported, the rear is the guide body ( a compression spring 214c supported on the inner rear surface of the 212 and elastically supported forward; and a through groove 214d formed in front of the upper surface and having a through hole formed in the rear surface to communicate with the elastic groove 214b; and a guide pin 214e that is fixedly coupled to the inner rear surface of the guide body 212 and is installed through the elastic groove 214b, the compression spring 214c and the through groove 214d. characterized by being

In addition, the slide member 214 of the present invention is configured to include; a guide groove (214f) formed to be inclined in the front downward direction on one side, and the guide body 212 is formed through one side, and the A coupling hole (212a) formed to correspond to the guide groove (214f); and a guide bolt (212b) coupled to the coupling hole (212a) so that the distal end is inserted into the guide groove (214f); characterized in that it comprises a; do it with

In addition, the guide body 212 of the present invention is configured to include a pair of guide rails 212c formed to face the upper portions of both inner side surfaces, and the slide member 214 is formed to protrude from the upper portions of both side surfaces. and a guide protrusion (214g) slidably coupled to the pair of guide rails (212c).

In addition, when the guide body 212 of the present invention has the other side front open, the slide member 214 is coupled to the other side front side and the bending lever 400 is rotated rearward, the bending lever 400 ) guide bearing (214h) in contact with the rear surface; characterized in that it is configured to include.

In addition, the bending lever 400 of the present invention is rotatably coupled to an upper portion of one side and when rotated forward, a guide roller 410 that is in contact with the upper outer periphery of the electric wire 10; The guide roller 410 is characterized in that it comprises;

In addition, the bending lever 400 of the present invention is characterized in that it is configured to include a;

The configuration for achieving the wire bending indirect live wire method of the present invention as described above is a first wire fixing step in which the bare wire 14 of the wire 10 from which the sheath 12 is removed is placed in the holder part 200 of the wire bending machine. (S10); and after the first wire fixing step (S10), by operating the worm gear 310 of the wire bending machine gearbox 300, the wire 14 of the wire 10 is close to the bending lever 400 and at the same time A second wire fixing step (S20) of rotating the bending lever 400 forward so that the rear of the wire 14 of the wire 10 is gripped by the holder part 200 of the wire bending machine (S20); and the second wire fixing step ( After S20), a bending step of further rotating the bending lever 400 forward so that the wire 10 is bent by the bending lever 400 by operating the worm gear 310 of the wire bending machine gearbox 300 (S30); And after the bending step (S30), by operating the worm gear 310 of the wire bending machine gearbox 300 to rotate the bending lever 400 in the reverse direction, the bent wire 10 fixed to the wire bending machine holder part 200 It characterized in that it is configured to include; a wire releasing step (S40) to separate.

Hereinafter, the present invention will be described in detail with reference to FIGS. 1 to 21 showing an embodiment of the present invention.

First, the electric wire 10 has a structure in which a plurality of wires 14 are twisted, and an outer shell 12 surrounds the wire 14 . When installing the electric wire 10 in the live wire state as described above by fixing it to the full iron of the electric pole, the suspension insulator and the dead end clamp by indirect live wire work, the outer shell 12 is peeled and removed for smooth bending of the electric wire 10 and then bent. this is done

At this time, the electric wire 10 is bent and installed in the dead end clamp after fixing the bent portion where the outer shell 12 is covered by at least two workers using a tool. A bulging phenomenon occurs in which both sides swell based on the stretched and bent center, and accordingly, the construction quality is deteriorated and there is a problem in that it cannot be installed smoothly in the dead end clamp.

In order to solve the above problems, the present invention compresses and then bends the outer periphery of the front or rear of the bent portion of the fixed portion of the electric wire 10 installed inside the dead end clamp, thereby securing the construction quality and preventing the bulging phenomenon at the same time. It is characterized in that the bending operation can be easily performed even by the operator alone.

First, the base frame 100, which is a main component for achieving the present invention, is

A holder part 200 to be described in detail later is installed on one side, and a gearbox 300 to be described in detail later is installed on the other side, and the outer shell 12 is peeled off by the holder part 200 and removed. When the electric wire 10 (hereinafter, collectively referred to as 'electric wire 10') is fixed and then the electric wire 10 is bent by the bending lever 400 rotatably installed in the gearbox 300 , so that the holder part 200 and the gearbox 300 can be stably supported.

In the base frame 100 of the present invention, in particular, when the electric wire 10 is bent by the bending lever 400, since the holder part 200 serves as a lever, the holder part 200 is firmly fixed. It is characterized in that it can be supported, and when the electric wire 10 is bent, the upper holder 210 of the holder part 200, which will be described in detail later, is strongly strengthened in the rear by the electric wire 10 in the upper direction. At the same time as being pressed, the lower holder 220 of the holder 200, which will be described in detail later, is strongly pressed in the downward direction from the front by the electric wire 10, so a plurality of bolts (not shown) in the horizontal direction with the electric wire 10 ) is characterized in that it is combined using

At this time, the base frame 100 of the present invention is characterized in that the upper part is formed in the shape of "a" protruding to the rear, which is a slide member 214 of the upper holder 210 of the holder part 200, which will be described in detail later. ) slides down the front to realize the effect of fixing the electric wire 10 .

In addition, the upper rear of the base frame 100 of the present invention is preferably formed so that the lower surface is positioned on a straight line with the upper surface of the lower holder 220 of the holder portion 200 to be described in detail later, which After the electric wire 10 is seated and fixed between the upper holder 210 and the lower holder 220 of the holder part 200, the electric wire 10 is connected to the side of the upper holder 210 and the lower holder 220. It prevents the separation in the direction to realize the effect of making the fixing of the electric wire 10 more smoothly.

The holder part 200, which is a main component for achieving the present invention, is

It is coupled to one side of the base frame 100 to grip and fix the electric wire 10 or release the grip. When bending (10), it is characterized in that the swelling phenomenon is prevented from occurring.

Specifically, the holder part 200 of the present invention is coupled to the upper portion of one side of the base frame 100, and when the bending lever 400, which will be described in detail later, is rotated forward, it is moved in the front downward direction, and the When the bending lever 400 is rotated backward, the upper holder 210 is coupled to move in the rear upward direction, and the lower holder 200 is coupled to the lower portion of one side of the base frame 100. characterized.

That is, in the holder part 200 of the present invention, after the electric wire 10 is seated on the upper part of the lower holder 220, the upper holder 210 protrudes from the upper part of the base frame 100 described above, that is, to the rear. is coupled to the upper part, and when the bending lever 400 is rotated forward, the upper holder 210 is moved in a forward downward direction and is moved to an upper portion of the lower holder 220 , so that of the lower holder 220 . The electric wire 10 seated on the upper part is gripped so that it can be fixed.

In addition, the upper holder 210 is formed on the lower surface, as described above, when the electric wire 10 is gripped, an upper compression groove 214a formed to surround the upper outer periphery of the electric wire 10. The lower holder 220 is formed on the upper surface, and when the electric wire 10 is gripped, it includes a lower compression groove 222 formed to surround the lower outer periphery of the electric wire 10 It is characterized in that it is configured.

That is, in the holder part 200 of the present invention, after the electric wire 10 is seated in the upper part of the lower holder 220 , that is, in the lower compression groove 222 , the upper part is compressed by the upper holder 210 . It is compressed on the outer periphery by the upper compression groove 214a and the lower compression groove 222, which is the center of the bent portion of the electric wire 10 (hereinafter, also referred to as 'bending center'). Accordingly, when the electric wire 10 is bent by the bending lever 400, it is possible to prevent the occurrence of bulging behind the bending center of the electric wire 10.

In relation to the above, the lower compression groove 222 is characterized in that it extends to the front surface of the lower holder 220 as well as the upper surface of the lower holder 220 , which is formed by the bending lever 400 . When the electric wire 10 is bent, the lower portion of the front outer periphery of the bending center of the electric wire 10 is naturally close to realize the effect of smoothly making the bending of the electric wire 10, that is, bending.

In addition, when the electric wire 10 is bent as the lower compression groove 222 extends to the front of the lower holder 220 and is bent, the lower portion of the outer periphery in front of the bending center is the lower holder 220 It is prevented from being damaged by the edge that can be formed in the front upper part of the , so that bending is performed smoothly.

When the upper holder 210 is described in more detail in relation to the above, the upper holder 210 is the upper one side of the base frame 100 , that is, the lower side of the other side is coupled to the upper side protruding to the rear, , the front and the lower part are open, and the guide body 212 is formed with an inner upper surface inclined in the front lower direction, and the upper part is coupled to the inner upper part of the guide body 212 so as to be slidable, and is formed on the lower surface. , When the electric wire 10 is gripped, it is characterized in that it comprises a slide member 214 formed with an upper compression groove (214a) formed to surround the upper outer periphery of the electric wire (10).

The guide body 212 has an open front and a lower portion, so that the slide member 214 can be moved to the front and lower parts, and as the slide member 214 moves to the front and lower parts, the upper part of the lower holder 220 is The electric wire 10 seated on the can be gripped and fixed.

In addition, the guide body 212 is formed so that the inner upper surface is inclined in the front lower direction, so that the slide member 214 coupled to the upper inner upper surface can be moved by sliding in the front lower direction, which is In other words, it means that the slide member 214 can be moved by sliding in the opposite direction, the rear upward direction.

The slide member 214 has the above-described upper compression groove 214a formed on the lower surface thereof, and the upper portion is coupled to the inner upper portion of the guide body 212 in a direction in which the upper portion of the guide body 212 is inclined. By sliding and moving along the , the electric wire 10 seated on the upper portion of the lower holder 220 can be gripped or released.

In addition, when the slide movement of the slide member 214 is described, the guide body 212 is configured to include a pair of guide rails 212c formed to face the upper portions of both inner side surfaces, and the slide member 214 is formed to protrude on both sides of the upper portion of the guide body 212 and is configured to include a guide protrusion 214g that is slidably coupled to a pair of guide rails 212c of the guide body 212. Accordingly, the slide member 214 is the guide The protrusion 214g is slid along the guide rail 212c to move.

That is, the slide member 214 has a pair of guide protrusions 214g protruding on both sides of the upper portion of the guide rail 212c, which are installed inside the guide rail 212c, so that a pair of guide rails formed on both inner side surfaces of the guide body 212 ( 212c). At this time, the guide rail 212c is inclined in the front downward direction as it is inclined in the front downward direction on the upper surface of the guide body 212 so that the slide member 214 is inclined in the front downward direction or the rear upward direction. to slide and move.

In addition, when the slide member 214 is slid and moved in the front downward direction for a firm grip of the electric wire 10, it is important to make a strong compression on the outer periphery of the electric wire 10, for this purpose, The slide member 214 is formed on the rear of the upper surface, and has an elastic groove 214b having an open rear, and is installed in the elastic groove 214b so that the front is supported, and the rear is on the inner rear surface of the guide body 212 . It is supported and characterized in that it is configured to include a compression spring (214c) for elastically supporting the front.

That is, the slide member 214 is elastically supported forward by the compression spring 214c installed in the elastic groove 214b, thereby strongly compressed on the upper portion of the electric wire 10 seated on the upper portion of the lower holder 220 . so that the electric wire 10 can be gripped.

At this time, the slide member 214 slides in the front downward direction by the forward rotation of the bending lever 400 to be described in detail later to grip the electric wire 10 or by the rear rotation of the bending lever 400 . It is possible to release the grip of the electric wire 10 by sliding in the rear upward direction.

In addition, the compression spring 214c is supported on the inner rear surface of the guide body 212 through the open rear of the elastic groove 214b so that the slide member 214 can be elastically supported forward. and the upper portion of the elastic groove 214b is sealed by the upper portion of the guide body 212 to prevent separation, and a guide pin 214e, which will be described in detail later, is penetrated and installed, so that it is installed more stably can have the effect of maintaining

In addition, the slide member 214 is formed in front of the upper surface, a through hole (not shown) is formed in the rear surface, and a through groove 214d communicating with the elastic groove 214b, and the inner side of the guide body 212 . The rear is fixedly coupled to the rear surface, and the elastic groove 214b, the compression spring 214c, and the guide pin 214e installed through the through groove 214d are included.

Specifically, the through groove 214d and the elastic groove 214b are partitioned by a partition wall (not shown), and a through hole is formed in the partition wall to allow the guide pin 214e to pass therethrough, so that the guide The pin 214e can be maintained in a more stable installed state, and the slide movement of the slide member 214 can be more stably realized.

The guide pin 214e has a rear side fixedly coupled to the inner rear surface of the guide body 212, and penetrates the elastic groove 214b, the compression spring 214c, and the through-hole and through-groove 214d of the partition wall. is installed to not only prevent the separation of the compression spring 214c, but also realize the effect of guiding the slide member 214 to slide and move more stably, as well as to prevent the slide member 214 from being compressed. It realizes the effect of being able to be elastically supported more stably by the spring 214c.

At this time, the guide body 212 has an open front and a lower portion for the slide movement in the front and lower direction of the slide member 214, and maintenance such as repair and replacement of the slide member 214 is smooth. It is characterized in that the rear is open so that it can be done.

In addition, the guide body 212 is configured to include a fixing bracket 212d coupled to the rear upper portion so that the rear of the guide pin 214e can be fixedly coupled as the rear is opened as described above, and the fixing bracket (212d) is coupled to the rear upper portion of the guide body 212 through a plurality of bolts (not shown), including an inlet hole (not shown) formed so that the rear of the guide pin 214e can be inserted and fixed is composed

In addition, the fixing bracket (212d) is configured to include a fixing hole (not shown) that is formed to penetrate in a direction perpendicular to the inner entrance hole, and a fixing pin (not shown) that is coupled through the fixing hole, and the guide pin ( 214e) is configured to include a pin coupling hole (not shown) formed to communicate with the fixing hole after the rear is inserted into the internal entry hole, and the rear is fixedly coupled to the fixing bracket 212d by the fixing pin.

In relation to the above, the slide member 214 is configured to include a guide groove 214f formed to be inclined in the front downward direction on one side, and the guide body 212 is formed through one side of the guide. It characterized in that it comprises a coupling hole (212a) formed to correspond to the groove (214f) and a guide bolt (212b) coupled to the coupling hole (212a), the end of which is inserted into the guide groove (214f).

The guide groove 214f of the slide member 214 is coupled to the coupling hole 212a of the guide body 212 and slides in the front lower direction or the rear upper direction by the guide bolt 212b having the end inside. When it is moved more stably, it is characterized in that the slide member 214 is prevented from being separated by limiting the moving distance at the same time.

In connection with the above, the guide body 212 has the front side of the other side open, and the slide member 214 is coupled with the front side of the other side so that when the bending lever 400, which will be described in detail later, is rotated backward, the It is characterized in that it is configured to include a guide bearing (214h) in contact with the rear surface of the bending lever (400).

The guide bearing 214h is rotatably coupled to the front side of the other side of the slide member 214 and comes into contact with the rear surface of the bending lever 400 so that the slide member 214 rotates the bending lever 400 . When the slide moves in the front lower direction or the rear upper direction according to this, it realizes the effect of being able to move stably and smoothly.

That is, the slide member 214 is elastically supported in the front downward direction by the compression spring 213c described above, and at the same time, the guide pin 214e and the guide according to the rotation of the bending lever 400 to be described in detail later. It slides stably in the front lower direction or rear upper direction by the groove 214f, comes in contact with the bending lever 400 by the guide bearing 214h, and more stably according to the rotation of the bending lever 400 It is characterized in that it slides in the front lower direction or the rear upper direction.

The gearbox 300, which is a major component for achieving the present invention, is

It is coupled to the other side of the base frame 100 and has a worm gear 310 therein, and a bending lever 400, which will be described in detail later, is coupled to be connected to the worm gear 310 so as to be connected to the bending lever 400. ) to be rotated by the operation of the worm gear 310 , and the slide member 214 of the holder part 200 described above slides in the front lower direction or rear upper direction according to the rotation of the bending lever 400 . It is characterized in that the electric wire 10 is gripped or released, and the electric wire 10 is bent by the bending lever 400 after being gripped by the holder part 200 .

At this time, the gearbox 300 is connected to the driving stick 1 having a driving motor so that the operator can easily operate the worm gear 310 installed therein. A driving stick connector 320 is formed in the connection part (not shown) from which the lower part protrudes, and the rotation shaft (not shown) of the worm wheel 314 of the worm gear 310 protrudes from one side of the bending lever 400 to be described in detail later. ) of the lower portion is coupled to the rotation shaft of the worm wheel (314).

In addition, the operator connects the drive stick 1 to the drive stick connector 320 of the gearbox 300 to easily operate the worm gear 310, so that the worm wheel 314 of the worm gear 310 is It is rotated, and the bending lever 400 connected to the rotation shaft of the worm wheel 314 can be rotated, and accordingly, gripping and bending of the electric wire 10 is smoothly performed, thereby obtaining the effect that a single operation is possible.

At this time, the gearbox 300 uses a worm gear 310 for smooth rotation of the bending lever 400 in a structure connected to the driving stick 1, but driving of the driving stick 1 such as a screw gear or a bevel gear. It will be apparent that other conventional gears capable of transmitting the power of the motor vertically can be used.

In addition, the gearbox 300 is coupled to the base frame 100 with a plurality of bolts so that the operator can stably rotate the bending lever 400 even at a low position using the driving stick 1 , and the base frame (100) is supported stably and firmly, thereby realizing the effect that the holding and bending of the electric wire (10) is possible through indirect live wire work using the holder part 200 and the bending lever 400.

The bending lever 400, which is a main component for achieving the present invention, is

A lower portion is coupled to one side of the gearbox 300, and is connected to the worm gear 310 to rotate forward and backward by the operation of the worm gear 310. As described above, the driving stick 1 is When the driving motor of the driving stick 1 is connected to the driving stick connector 320 of the gearbox 300 and operated by the operator, the worm gear 310 of the gearbox 300 is driven and the worm gear 310 is operated. of the worm wheel 314 is rotated forward and backward by the rotation of the rotating shaft, and accordingly, the slide member 214, which is elastically supported in the forward and downward direction by the compression spring 213c, is moved in the forward downward direction or in the rear upward direction together. .

That is, the bending lever 400 of the present invention is rotated forward or backward by the driving of the worm gear 310 of the gearbox 300 , that is, the electric wire 10 can be seated on the holder part 200 at normal times. In order to maximize the separation distance between the upper holder 210 and the lower holder 220 of the holder part 200, the slide member 214 of the upper holder 210 is rotated backward and positioned to face in the vertical direction. moves in the rear upward direction, and the upper holder 210 and the lower holder 220 of the holder part 200 so that the electric wire 10 can be gripped by the holder part 200 first during the bending operation of the electric wire 10 . ) to minimize the separation distance between make it happen

In addition, when the bending lever 400 of the present invention is rotated forward or backward by the driving of the worm gear 310 of the gearbox 300, the guide bearing of the slide member 214 described above on the rear side. (214h) is in contact with the guide bearing (214h) is rotated, the slide member 214 is moved in the front lower direction or rear upper direction, when rotated forward, the slide member 214 in the front lower direction It is moved and the electric wire 10 is gripped and rotated forward at the same time to bend the electric wire 10 .

In addition, the bending lever 400 of the present invention is rotatably coupled to the upper portion of one side so as to prevent damage to the electric wire 10 and to be smoothly bent when rotated forward. It is characterized in that it is configured to include a guide roller 410 in contact.

As the bending lever 400 rotates forward, the guide roller 410 contacts the upper portion of the front outer periphery of the bending center of the electric wire 10 to bend the electric wire 10, and the electric wire 10 is bent. When it loses, it rotates naturally to prevent damage to the electric wire 10 and to bend it smoothly.

At this time, the guide roller 410 is characterized in that it is configured to include a pressing groove 412 formed on the central outer periphery, the pressing groove 412 is the upper portion of the front outer periphery of the bending center of the electric wire 10 is stable by compressing it, when the bending lever 400 is rotated forward, the effect of bending the electric wire 10 more stably is realized.

In addition, the bending lever 400 of the present invention is characterized in that it is configured to include an inclined portion 420 that is inclined rearward toward the upper portion in the center. If the inclined portion 420 is not formed, the slide described above When the member 214 is moved in the rear upward direction and rotated backward to grip the electric wire 10, in order to completely move the slide member 214 in the rear upward direction, the upper portion is not located in the vertical direction, but the rear upper portion. direction, so that the size of the base frame 100 is inevitably reduced, and accordingly, the holder part 200 coupled to the base frame 100, that is, the upper holder 210 and the lower holder 220, especially the lower Since the holder 220 is difficult to be firmly coupled, durability may be reduced, and if the durability is improved without reducing the size of the base frame 100, the rear of the central part is in contact with the front of the base frame 100 and the The slide member 214 is not completely moved in the rear upward direction, and accordingly, in the case of the thick wire 10, it is difficult to seat the holder part 200, that is, on the upper part of the lower holder 220, so that the operation is difficult. Therefore, it is preferable that the inclined portion 420 is formed.

In addition, in the bending lever 400 of the present invention, as the inclined portion 420 is formed, the guide bearing 214h described above is in contact with the central upper rear surface as much as the inclined portion 420 is inclined. It is possible to obtain the effect of allowing the guide bearing 214h to move in the rear upward direction more stably, so that the electric wire 10 is The upper holder 210 , that is, realizes the effect of being more smoothly seated between the slide member 214 and the lower holder 220 .

On the other hand, the bending lever 400 of the present invention is located on the lower front surface of the inclined portion 420 and is configured to include a return member 430 that is installed to be elastically supported in the front, and the return member 430 is The rear is installed in an installation groove (not shown) formed to be positioned below the inclined portion 420 of the bending lever 400 .

At this time, the bending lever 400 of the present invention is configured to include a spring (not shown) installed in the installation groove and a fixing pin (not shown) installed through the front side of the installation groove, and the return member 430 . is formed through the rear in the lateral direction, a flow hole (not shown) formed in the shape of a long hole is formed, and the fixing pin is installed through the flow hole, thereby being elastically supported forward by the spring.

In addition, when the bending lever 400 of the present invention is rotated at the maximum angle rotatable forward, the return member 430 is in contact with the lower front surface of the base frame 100 described above. After the bending lever 400 is rotated to the maximum rotatable angle, it is rotated backward again.

In addition, after the bending lever 400 of the present invention is rotated to the maximum rotatable angle and then rotated backward by the return member 430, the worm 312 and the worm wheel ( 314 is engaged so that the bending lever 400 is rotated backward by the worm gear 310 again.

In connection with the above, as described above, the worm wheel 314 of the worm gear 310 is connected to the lower portion of the bending lever 400 of the present invention to rotate the bending lever 400 according to the rotation of the worm 312 . As to be rotated forward or backward, teeth (not shown) engaged with the worm 312 are formed on the outer periphery.

At this time, the teeth of the worm wheel 314 are from the position where the bending lever 400 engages with the worm 312 to rotate at the maximum angle that the bending lever 400 can rotate forward to the maximum angle the bending lever 400 can rotate backwards. It is characterized in that it is formed smaller than the position to engage with the worm 312 in order to rotate at an angle, which is the front of the upper holder 210 when the bending lever 400 continues to be rotated backward to the maximum past an appropriate angle. That is, the upper holder 210 or the bending lever 400 may be damaged by contact with the guide bearing 214 , and if the bending lever 400 continues to rotate forward, it collides with the front of the lower holder 220 . As a result, the lower holder 220 or the bending lever 400 is damaged or the worm 312 and the worm wheel 314 are strongly engaged by the bent wire 10 and are not rotated in the opposite direction, that is, backward. Since a problem may occur, as described above, the bending lever 400 is rotated at the maximum angle rotatable forward or backward so that it is no longer rotated forward or backward in the state in which the electric wire 10 is bent. This is to avoid problems.

Therefore, after the worm 312 and the worm wheel 314 are rotated forward and backward at the maximum angle, a portion of the teeth of the worm wheel 314 is removed, and the worm 312 and the worm wheel 314 are no longer engaged. After the bending lever 400 is rotated at the maximum angle that can be rotated forward, that is, after the bending lever 400 is rotated to the maximum through an appropriate angle when bending the electric wire 10, the worm 312 and The worm wheel 314 rotates the bending lever 400 backward by rotating the bending lever 400 rearward again and maintaining the engaged state by the return member 430 installed on the bending lever 400 described above. That is, the wire 10 is returned to its original state before bending.

At this time, after the bending lever 400 is rotated to the maximum angle rotatable rearward, that is, after the bending lever 400 is rotated to seat the electric wire 10 in the holder part 200 , the worm 312 . ) and the worm wheel 314, as described above, the bending lever 400 is always rotated forward by the slide member 214 of the upper holder 210 to maintain an engaged state, so that the bending lever 400 to rotate forward, that is, to keep the wire 10 in a ready state for bending.

The meshing state of the worm 312 and the worm wheel 314 and the bending lever 400 being elastically supported by the slide member 214 and the return member 430 will be described with reference to FIGS. 18 to 21 .

First, as shown in FIG. 18, the bending lever 400 operates the worm gear 310 by the operator before bending the electric wire 10, that is, in the preparation stage, that is, the worm 312 is rotated. By rotating the worm wheel 314, it is rotated backward. At this time, the worm wheel 314 is rotated by the worm 312 to a position where no teeth are formed, and the rear surface of the bending lever 400 is the upper holder 210 ), that is, in contact with the front surface of the slide member 214 .

Then, as shown in FIG. 19, the bending lever 400 is elastically supported forward by the slide member 214 that is elastically supported forward by the compression spring 214c and rotates forward, and accordingly, the worm wheel ( The teeth of the 314 are engaged with the worm 312 again to maintain a state that can be rotated forward.

In addition, the bending lever 400, as shown in FIG. 20, after bending the wire 10, that is, the worm gear 310 is operated by the operator so that the bending step (S30), which will be described in detail later, is performed. That is, the worm 312 is rotated to rotate the worm wheel 314, thereby rotating forward. At this time, the worm wheel 314 is rotated by the worm 312 to a position where no teeth are formed, and the bending lever The front of the return member 430 installed on the front of the 400 is in contact with the lower front of the base frame 100 .

Thereafter, as shown in FIG. 20 , the bending lever 400 is elastically supported rearward by the return member 430 being elastically supported by a spring and rotated rearward, and accordingly, the teeth of the worm wheel 314 again By maintaining a state that can be rotated forward by being engaged with the worm 312, the worm wheel 314 and the worm 312 are strongly engaged by the electric wire 10 to prevent the state from being rotated due to the jamming phenomenon. can

In addition, after the guide body 212 of the upper holder 210 is rotated to the maximum angle at which the bending lever 400 can be rotated rearwardly on the front upper surface, that is, the bending lever 400 is connected to the electric wire 10. It is configured to include a flow groove (not shown) that allows it to flow when it is rotated to be seated in the holder part 200, and after the bending lever 400 is completely rotated backward by the flow groove, the When rotated forward by the slide member 214, the bending lever 400 is allowed to flow, thereby preventing the guide body 212 from being damaged by the guide roller 410 of the bending lever 400, and the The bending lever 400 is strongly engaged with the guide body 212 by the guide roller 410 and thus does not rotate forward again, as well as a ready state for more stably bending the electric wire 10 may be formed.

In connection with the above, the worm 312 is formed on the upper part, and may be configured to include a manual rotation part 312a protruding to the upper part of the gearbox 300 of the present invention, and the manual rotation part 312a is an electric wire. When bending (10), if the thickness of the electric wire 10 is very thick, the worm 312 and the worm wheel 314 are strongly engaged and do not rotate. By forcibly rotating the worm 312 by using the worm 312, the effect of facilitating maintenance when the bending rare 400 does not rotate because the worm 312 and the worm wheel 314 do not engage is realized.

Next, when the wire bending method using the wire bending machine described above will be described in more detail below, the first wire fixing step (S10) of positioning the wire 10 in the holder part 200 and the bending lever 400 A second wire fixing step (S20) of fixing the wire 10 to the holder part 200 by rotating it forward, and a bending step of bending the wire 10 by further rotating the bending lever 400 forward. (S30) and a wire releasing step (S40) of separating the bent wire 10 from the holder 200 by rotating the bending lever 400 in the reverse direction.

The first wire fixing step (S10) is configured to include a peeling step (S5) of removing the sheath 12 of the electric wire 10 using a peeling machine (not shown) before that, and the peeling step (S5) ), characterized in that the wire 14 of the wire 10 from which the outer shell 12 of the bent portion is removed is placed in the holder portion 200 of the wire bending machine.

That is, the first wire fixing step (S10) is to seat the bent portion of the electric wire 10 from which the outer sheath 12 is removed on the upper part of the lower holder 220 of the holder part 200, the lower holder ( It is more stably seated by the lower compression groove 222 formed in 220).

In the second wire fixing step (S20), after the first wire fixing step (S10), the worm gear 310 of the wire bending machine gearbox 300 is operated through the drive motor of the drive stick 1 to operate the bending lever 400. In front of the wire 14 of the wire 10, that is, the outer periphery of the front of the bending center of the wire 10 is close to the guide roller 410 of the bending lever 400, and at the same time, the holder part 200 of the wire bending machine It is characterized in that the bending lever 400 is first rotated forward so that the rear of the wire 14 of the electric wire 10, that is, the rear of the bending center is gripped.

In addition, in the second wire fixing step (S20), the bending lever 400 is first rotated forward so that the upper holder 210 of the holder part 200, that is, the slide member of the upper holder 210 214 is moved in the front downward direction so that the rear of the wire 14 of the electric wire 10, that is, the rear of the bending center of the electric wire 10, is the lower surface of the slide member 214 and the upper surface of the lower holder 220 pressed and gripped by

At this time, the electric wire 10 is more stable and firm by the upper compression groove 214a formed on the lower surface of the slide member 214 and the lower compression groove 222 formed on the upper surface of the lower holder 220 . A gripping effect can be obtained.

In addition, the holder part 200 includes the upper crimping groove 214a for compressing the upper portion of the outer periphery of the electric wire 10 and the lower pressing for compressing the lower portion of the outer periphery of the electric wire 10 . By forming the groove 222, the effect of stably and firmly holding and fixing wires having different diameters is realized.

In the bending step (S30), after the second wire fixing step (S30), the worm gear 310 of the wire bending machine gearbox 300 is operated using the driving stick 1, whereby the wire (by the bending lever 400) ( 10) is characterized in that the bending lever 400 is further rotated forward so as to be bent.

At this time, since the outer periphery of the rear of the bending center is compressed by the holder part 200, the electric wire 10 can prevent the bulging phenomenon in which the outer periphery of the rear of the bending center is inflated, so that it can be smoothly installed in the dead end clamp. can

In addition, after the bending step (S30), the worm gear 310 of the wire bending machine gearbox 300 is reversely operated using the driving stick 1 to rotate the bending lever 400 backward to the bending lever 400. A wire release step (S40) of separating the bent wire 10 from the holder part 200 is performed.

In addition, in the wire bending method of the present invention, after the bending step (S30) and the wire releasing step (S40), the rear of the bending center of the bent wire 10 is seated in a dead-and-clamp (not shown) and installed, and then the dead-end The bent portion of the electric wire 10 through the clamp, that is, the bent portion is configured to include a clamp coupling step (S50) that is installed in the dead end clamp.

In addition, in the wire bending method of the present invention, after the clamp coupling step (S50), the cover coupling step of coupling the cover (not shown) to the outside of the dead end clamp so that the dead and end clamp can be positioned and protected therein ( S60) is included.

In addition, in the wire bending method of the present invention, among the bent portions of the electric wire 10 from which the outer sheath 12 is removed after the cover coupling step (S60), the portion not protected by the dead-end clamp and the cover and the inside of the cover It is configured to include a finishing step (S70) of taping the connection portion between the electric wire 10 and the cover using a taping machine (not shown) so that water or foreign substances are not introduced into the furnace.

That is, the core of the wire bending method of the present invention is to rotate the bending lever 400 forward using the wire bending machine of the present invention, so that the electric wire 10 can be held by the holder part 200 and at the same time, the bending By continuously rotating the lever 400 forward, the electric wire 10 is stably bent by the guide roller 410 of the bending lever 400 as well as being coupled to the dead-end clamp by the holder 200. It is characterized in that the swelling phenomenon is prevented at the rear of the center.

The above has been described with reference to a preferred embodiment of the present invention, and is not limited to the above embodiment, and a person skilled in the art through the above embodiment does not deviate from the gist of the present invention It can be implemented with various changes in

Claims (14)

1. base frame 100; and

   The holder part 200 is coupled to one side of the base frame 100 to hold or release the electric wire 10; and

   a gearbox 300 coupled to the other side of the base frame 100 and having a worm gear 310 therein; and

   The lower part is coupled to one side of the gearbox 300, and the bending lever 400 is connected to the worm gear 310 and rotates forward and backward by the operation of the worm gear 310; characterized in that it comprises a Wire bending machine for indirect live wires.
2. According to claim 1,

   The holder 200 is

   It is coupled to an upper portion of one side of the base frame 100, and when the bending lever 400 is rotated forward, it moves in a front downward direction, and when the bending lever 400 is rotated backward, it moves in a rear upward direction. The upper holder 210 coupled to be so; and

   A wire bending machine for indirect live wire, characterized in that it includes; a lower holder 220 coupled to a lower portion of one side of the base frame 100.
3. 3. The method of claim 2,

   The upper holder 210 is

   It is formed on the lower surface, and when the electric wire 10 is gripped, an upper compression groove 214a formed to surround the upper outer periphery of the electric wire 10;

   The lower holder 220 is

   Doedoe formed on the upper surface, when the electric wire 10 is gripped, a lower crimping groove 222 formed to surround the lower outer periphery of the electric wire 10; bending machine.
4. 3. The method of claim 2,

   The upper holder 210 is

   A guide body 212 in which the lower part of the other side is coupled to the upper part of one side of the base frame 100, the front and the lower part are opened, and the inner upper surface is inclined in the front and lower direction; and

   The upper portion is coupled to the inner upper portion of the guide body 212 so as to be slidable, and the upper portion is formed on the lower surface, and is formed to surround the upper outer periphery of the electric wire 10 when the electric wire 10 is gripped. A wire bending machine for indirect live wire, characterized in that it comprises; a slide member (214) having a groove (214a) formed therein.
5. 5. The method of claim 4,

   The slide member 214 is

   It is formed in the rear of the upper surface, the rear is open elastic groove (214b); and

   It is installed in the elastic groove (214b), the front is supported, the rear is supported on the inner rear surface of the guide body (212), the compression spring (214c) elastically supported in the front; indirect live wire characterized in that it comprises a; For wire bending machine.
6. 6. The method of claim 5,

   The slide member 214 is

   A through hole (214d) formed in front of the upper surface, a through hole is formed in the rear surface to communicate with the elastic groove (214b); and

   A guide pin 214e that is fixedly coupled to the inner rear surface of the guide body 212 and installed through the elastic groove 214b, the compression spring 214c and the through groove 214d; Wire bending machine for indirect live wire, characterized in that.
7. 5. The method of claim 4,

   The slide member 214 is

   It is configured to include a; guide groove (214f) formed to be inclined in the front downward direction on one side,

   The guide body 212 is

   A coupling hole (212a) that is formed through one side and is formed to correspond to the guide groove (214f); and

   and a guide bolt (212b) coupled to the coupling hole (212a) and having an end inserted into the guide groove (214f).
8. 5. The method of claim 4,

   The guide body 212 is

   A pair of guide rails (212c) formed to be opposite to each other on both inner side surfaces;

   The slide member 214 is

   A wire bending machine for indirect live wire, characterized in that it comprises; a guide projection (214g) that is formed to protrude on both sides of the upper portion to be slidably coupled to the pair of guide rails (212c).
9. 5. The method of claim 4,

   The guide body 212 is

   The front side of the other side is open,

   The slide member 214 is

   A guide bearing (214h) coupled to the front of the other side and contacting the rear surface of the bending lever 400 when the bending lever 400 is rotated backward; .
10. According to claim 1,

    The bending lever 400 is

    A wire bending machine for indirect live wire, characterized in that it comprises; a guide roller 410 that is rotatably coupled to the upper portion of one side and is in contact with the upper portion of the outer periphery of the wire 10 when it is rotated forward.
11. 11. The method of claim 10,

    The guide roller 410 is

    Indirect live wire bending machine, characterized in that it comprises;
12. According to claim 1,

    The bending lever 400 is

    A wire bending machine for indirect live wire, characterized in that it comprises; an inclined portion 420 that is inclined to the rear toward the upper part in the center.
13. According to claim 1,

    The bending lever 400 is

    It is located in the lower front of the inclined portion 420, the return member 430 is installed so as to be elastically supported in the front; is configured to include,

    The worm gear 310 is

    From the position where the teeth of the worm wheel 314 engaged with the worm 312 engage the worm 312 in order to rotate the bending lever 400 at the maximum angle that the bending lever 400 can rotate forward, the bending lever 400 moves backward. Wire bending machine for indirect live wire, characterized in that it is formed smaller than the position to engage with the worm 312 in order to be rotated at the maximum rotatable angle.
14. In the wire bending indirect live wire method using the wire bending machine for indirect live wire according to any one of claims 1 to 13,

    A first wire fixing step (S10) of positioning the wire 14 of the wire 10 from which the sheath 12 is removed in the holder part 200 of the wire bending machine (S10); and

    After the first wire fixing step (S10), the worm gear 310 of the wire bending machine gearbox 300 is operated to bring the front of the wire 14 of the wire 10 close to the bending lever 400 and at the same time, the holder part of the wire bending machine A second wire fixing step (S20) of rotating the bending lever 400 forward so that the back of the wire 14 of the wire 10 is gripped at 200; and

    After the second wire fixing step (S20), the bending lever 400 is further rotated forward so that the wire 10 is bent by the bending lever 400 by operating the worm gear 310 of the wire bending machine gearbox 300 bending step (S30); and

    After the bending step (S30), by operating the worm gear 310 of the wire bending machine gearbox 300 to rotate the bending lever 400 in the reverse direction, the bent wire 10 fixed to the wire bending machine holder part 200 is separated. Wire bending indirect live wire method comprising a; wire releasing step (S40).

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