JP3011681B2 - Cable tie and cable tie driving device - Google Patents

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a cable tying tool and a cable tying tool for tying laid cables such as power cables and control cables to a cable tray in factories and various plants.

[0002]

2. Description of the Related Art FIGS. 10 and 11 are a perspective view and a sectional view, respectively, showing a cable binding method using a conventional cable binding device described in, for example, Japanese Patent Application Laid-Open No. 7-298445. In each of the drawings, a cable tray 1 has a large number of child girders 3 made of steel or the like in which a pair of long main girders 2 made of steel or the like are arranged in parallel to each other in parallel, and made of steel or the like. Are connected at predetermined intervals by bolts or the like. The cable bundling tool 6 has a gate-shaped main body 7 in the form of a plate-like body. The main body 7 is composed of a connecting body 8 and a pair of legs 9 integrally and vertically extended from both ends thereof. A concave groove 10 having a circular peripheral edge for engaging two bind wires 5 is provided at both ends of the connecting body 8, that is, inside the corners of the gate. Further, a hooking claw 11 for hooking on the child beam 3 is provided at the tip of each leg 9. Body 7
Is made of a hard plastic material such as polyvinyl chloride or a metal material such as spring steel and has a spring property, and the interval between the legs 9 can be expanded and contracted by the spring property. Then, the distance between the legs 9 is increased and the leg 9 is pushed in while sliding on both sides of the child girder 3.
After the hook is hooked on the lower surface of the child girder, the hook claw 11 is securely held on the lower surface of the child beam 3 by the return stress from the deformation.

[0003] The cable trays 1 are sequentially connected and installed along a cable laying route. Also, the same number of cable bundling tools 6 as the number of cables 4 accommodated in the cable tray 1 are prepared, and the binding wires 5 are reciprocated and engaged with the respective concave grooves 10. Next, the cable 4 is extended along the laying route, transferred to the cable tray 1, lined up, and stored in the cable tray 1. When the plurality of cables 4 are accommodated in the cable tray 1 in close contact and in parallel, the first end of the cable bundling tool 6 on which the binding wire 5 is hooked is moved from its leg 9 side.
It is inserted between one parent girder 2 and the cable 4, and is further pushed down so as to sandwich the child girder 3 by using its spring property.
The hooking claw 11 at the tip is hooked and fixed to the lower surface of the child beam 3. Next, the second cable tying member 6 is fixed to the child beam 3 by the same method. At that time, the first cable tying tool 6
In order that the cable 4 between the second cable tie 6 and the second cable tie 6 is tightly bound, the binding wire 5 reciprocated between them is tightened so that the second cable tie 6 is attached to the sub-spar 3. Fixed to. Hereinafter, in order of each cable tying tool 6
Is hooked and fixed on the child girder 3, a binding wire 5 is inserted between the right-hand cable 4 on the opposite side and the other parent girder 2, and both ends thereof are turned to the child girder 3 to be bound and a large number of cables 4 Are bound to the cable tray 1.

[0004]

As described above, the conventional cable tying member 6 has the gate-shaped main body 7 of a plate-like body, and the main body 7 is integrally vertically extended from the connecting body 8 and both ends thereof. A groove 10 having a circular peripheral edge for engaging two bind wires 5 is provided at both ends of the connector 8, that is, inside the respective corners of the gate shape. Further, a hooking claw 11 for hooking on the child beam 3 is provided at the tip of each leg 9. Then, the same number of cable bundling tools 6 as the cables 4 accommodated in the cable tray 1 are used by reciprocating the binding wires 5 in the respective concave grooves 10. Therefore, since a large number of the cable ties 6 are hung on the bind wire 5, the cable tie 6 is easily detached from the bind wire 5, the handling becomes complicated, and both ends of the bind wire 5 are turned to the child beams 3. However, since the binding of the cable 4 is completed, the binding operation becomes complicated. Further, since the cable 4 is conventionally bound using the cable binding device 6, a large number of cable binding devices 6
In order to complete the binding of the cable 4, it is necessary to turn both ends of the binding wire 5 around the sub-spar 3 to bind the cable 4, which requires a lot of labor and time.

SUMMARY OF THE INVENTION The present invention has been made to solve the above-mentioned problems, and an object of the present invention is to provide a cable tying tool and a cable tying tool driving device which can easily tie a large number of stored cables to a cable tray. And

[0006]

A cable bundling device according to the present invention is a cable bundling device for bundling a cable to a sub-girder provided at the bottom of a cable tray. A resin-made horseshoe-shaped main body having a pair of legs integrally extended in a direction to approach the tip side from the portion, and each of the opposing inner circumferential surfaces of the pair of legs A plurality of springs are provided in parallel with each other in the length direction of the legs, with the tips of the hooking claws facing the connecting body side, and the tips of the hooking claws outwardly on the opposite sides with respect to the main body. And a pair of hooking claws made of resin.

The angle between each of the hooks constituting the pair of hooks and the body extending outward is 22.5.
° ± 10 °.

[0008] The pair of legs has a guide piece whose ends are extended in directions away from each other.

A cable tying tool driving device according to the present invention further comprises: a cable tying member assembly in which a plurality of the cable tying members are closely arranged in parallel and connected to each other;
The cable tie assembly is housed so that the leg side of the horseshoe-shaped body is directed downward, the connection direction thereof is matched with the front-rear direction, and the cable tie is movable in the front-rear direction, and has a diameter that allows the cable tie to be inserted. A tie outlet is drilled in the front bottom surface, and a pair of guide feet which engage with both sides of the main body and guide the discharge of the cable tie are provided below the bottom with the tie outlet therebetween. A magazine case that is extended to
The cable tie assembly is retracted in the magazine case and urges the cable tie assembly forward, and sends the cable tie assembly forward so that the leading cable tie is positioned on the tie outlet. A feed spring and a flat body molded into an arc-shaped concave shape whose lower end tip shape is substantially equal to the arc-shaped outer peripheral shape of the linked body of the main body are mounted on the front side of the magazine case so as to be vertically movable. Due to the lowering operation, the lower end tip is applied to the connecting body of the leading cable tying tool and presses the leading cable tying tool downward, and the leading cable tying tool is removed from the cable tying tool assembly. A push lever that is cut off and discharged from the binding device discharge port, and is sent out to the outside with the pair of guide feet as guides.

The magazine case is divided into a case in which the cable tying member assembly is housed and a lid in which a push-down lever is integrally formed on the front end side, and the rear end side of the case and the lid is a shaft. A biasing means which is rotatably connected to the periphery and further biases in a direction to open the lid is disposed between the lid and the case.

[0011]

DESCRIPTION OF THE PREFERRED EMBODIMENTS Embodiments of the present invention will be described below with reference to the drawings. Embodiment 1 FIG. FIG. 1 is a diagram showing a cable tying device according to Embodiment 1 of the present invention. FIG. 1 (a) is a side view thereof, and FIG. 1 (b) is a top view thereof. FIG. 2 is a perspective view showing a cable binding state using the cable fastener according to the first embodiment of the present invention, and FIG. 3 is a cross-sectional view showing a cable binding state using the cable fastener according to the first embodiment of the present invention. It is.

In FIG. 1, a cable tying member 20 has a horseshoe-shaped main body 21 in the form of a plate, and the main body 21 is extended from an arc-shaped connecting body 22 and both ends thereof so that the distal end side thereof is approached integrally. It is constituted by a pair of legs 23.
On the inner peripheral side of each leg 23, a plurality of hooking claws 24 for hooking on the sub-spar 3 a are arranged in the length direction with their tips facing the connecting body 22 side, as shown in FIG. Has been established.
As shown in FIG. 1B, the hooking claws 24 provided on the pair of legs 23 are outwardly facing away from each other so as to form an angle θ with respect to the main body 21 (the legs 23). Has been extended to. The main body 21 and the hooking claw 24 are made of a resin material such as nylon or polyvinyl chloride and have a spring property, and the interval between the legs 23 can be expanded and contracted by the spring property. Then, the distance between the legs 23 is enlarged, and
After being pushed in while sliding on both sides of a, the hooking claw 24 is hooked on the lower end of the side plate of the child girder 3a. After that, the hooking claw 24 is securely held on the lower end of the side plate of the child girder 3a by the stress returned from the deformation. At the same time, the hook 21 is prevented from coming off by the claw shape of the hooking claw 24. Cable tray 1
A pair of long main girders 2 made of steel or the like are arranged in parallel to each other, and a number of child girders 3a having a U-shaped cross section made of steel or the like have a predetermined space between the main girders 2. They are connected by bolts or the like at intervals.

Next, a method of bundling the cables 4 using the cable bundling device 20 configured as described above will be described with reference to FIGS. First, the cable trays 1 are sequentially connected and installed along the cable laying route. Next, after the cable 4 is extended along the laying route, the cable 4 is transferred to the cable tray 1, lined up and accommodated in the cable tray 1. Then, the cables 4 are sequentially extended, and finally are accommodated in the cable tray 1 almost in parallel and in one row. Therefore, FIG.
As shown in (2), the cable bundling device 20 sandwiches the cable 4 between the pair of legs 23 and pushes the main body 21 obliquely with respect to the length direction of the cable 4 from above each cable 4. Due to its spring property, each cable tie 20 descends while the distal ends of the pair of legs 23 expand and contract along the outer peripheral shape of the cable 4 and further descend while sliding on both side surfaces of the sub-spar 3a. Then, each cable tying tool 20 is pushed in until the inner peripheral surface of the connector 22 comes into contact with the outer peripheral surface of the cable 4.

At this time, since the hooking claw 24 extends outward with respect to the main body 21, it slides while deforming along the side surface of the sub-girder 3a and reaches the lower end of the side plate of the sub-girder 3a. It jumps out of the child beam 3a by the return stress from the deformation. Since the hooking claw 24 is protruded from the leg 23 so that the tip is directed toward the connecting body 22, the hooking claw 24 is hooked on the lower end of the side plate of the sub-spar 3 a, thereby preventing the cable bundling tool 20 from coming off. In addition, the hooking claw 24 is reliably held in the hooked state with the lower end of the side plate of the child girder 3a by the return stress from the expansion of the leg 23. Therefore, each cable 4 is fixed to the sub-spar 3a by the cable tying tool 20, respectively.

As described above, according to the first embodiment,
The cable bundling tool 20 is made of a resin-made resin having a spring property and includes an arc-shaped connecting body 22 and a pair of legs 23 integrally extended from both ends of the connecting body 21 in a direction to approach the distal end side. From the horseshoe-shaped main body 21 and the opposing inner peripheral surfaces of the pair of legs 23, the tips of the hooks 24 are directed toward the connecting body 22, and the tips of the hooks 24 are attached to the main body 2.
1 and a pair of spring-made resin-made hooking claws arranged in parallel in the length direction of the legs 23 on the opposite sides to each other. Is pressed from above so as to sandwich each of the plurality of cables 4 accommodated in the cable tray 1, whereby each cable 4 can be fixed to the child beam 3a without damaging the surface. Then, the bind wire 5 which was necessary conventionally
Is unnecessary, the labor and time required for bundling can be reduced, and a large number of accommodated cables 4 can be easily bound to the cable tray 1. In addition, since the cable tie 20 is sewn over the sub-girder 3a via the cable 4, it is possible to secure a strong coupling force between the cable tie 20 and the sub-girder 3a.

The angle θ between the hook 24 and the main body 21 will now be described. In a state where the hooking claw 24 is hooked on the lower end of the side plate of the child beam 3a, the hooking claw 24 and the child beam 3a
When the angle between the side plate and the side plate is 45 °, the maximum coupling force can be obtained. When the direction of the main body 21 is aligned with the perpendicular of the side plate of the sub-spar 3a,
The force for detaching the hooking claw 24 due to the external force acting on 1 is minimized. Then, as the angle between the direction of the main body 21 and the perpendicular of the side plate of the sub-spar 3a (tacking angle) increases, the force for detaching the hooking claw 24 increases. Further, when the angle of the hook exceeds 45 °, the hook 2
The external force that causes the disengagement 4 becomes extremely small, that is, the hooking claw 24 is easily disengaged, which is not practical. Therefore, assuming that the angle at which the cable tying tool 20 is hooked to the child girder 3a is 0 to 45 °, the angle θ between the hooking claw 24 and the main body 21 is set to 22.5 ° ± 10 °. When the cable 4 is bound using the cable binding device 20, the hooking claw 24 is hooked at an angle of about 45 ° with respect to the side plate of the child beam 3a, and a high binding strength is obtained. If a plurality of types of cable ties having different arc diameters of the connecting body 22 of the main body 21 are prepared in accordance with the width of the sub-spar 3a and the thickness of the cable 4, the cable tray 1
Even if the type of the cable 4 or the type of the cable 4 changes, the cable 4 can be bound using an optimal cable binding tool.

Embodiment 2 FIG. In the cable tying tool 20A according to the second embodiment, as shown in FIG. 4, each of the pair of legs 22 has a guide piece 25 formed by extending each tip of the pair of legs 22 in a direction away from each other. In addition,
Other configurations are the same as those in the first embodiment.
In the second embodiment, when the cable bundling tool 20A is pushed from above so as to sandwich the cable 4 housed in the cable tray 1, the guide piece 25 serves as a guide and the outer peripheral surface of the cable 4 and the side surface of the child beam 3a. Pushed along. So, without getting stuck on the tip of leg 23,
The cable tying tool 20A is smoothly pushed in, and a stable mounting operation of the tying tool is obtained with low labor.

Embodiment 3 5 to 7 are a perspective view, a longitudinal sectional view, and a transverse sectional view, respectively, showing the cable tying tool driving device according to the third embodiment. In each of the drawings, the magazine case 31 is formed in a box shape having an inner diameter equivalent to the outer shape of the cable tie 20, and a tie outlet 32 having a diameter capable of inserting the cable tie 20 is provided at one end of the bottom surface thereof. A pair of guide feet 33 extend downward from both sides of the tying device outlet 32. In addition, a lever insertion hole 34 is formed in the upper wall surface of the magazine case 31 so as to face the binder outlet 32. The push lever 35 is formed as a flat plate whose lower end is formed in an arc-shaped concave shape equivalent to the arc-shaped outer shape of the connecting body 22 of the cable bundling tool 20, and is inserted into the magazine case 31 through the lever insertion hole 34. Is done. The cable bundling assembly 36 is configured by connecting a plurality of cable bundling tools 20 in a parallel state and in close contact with each other, and is movable in the front-back direction in the magazine case 31 by matching the connection direction in the front-back direction. It is stored in. Further, a feed spring 37 is contracted in the magazine case 31 and urges the cable tying member assembly 36 toward the tying member discharge port 32 through the end plate 38. Here, a groove 3 having a thickness equal to the thickness of the main body 21 of the cable bundling tool 20 is formed on the inner wall surfaces of the pair of guide feet 33 facing each other.
3a are formed in the length direction, respectively. A large number of cable ties 20 constituting the cable tie assembly 36 are connected to each other by an adhesive having a small bonding force, for example, a braze.

Next, the operation of the cable coupler driving device 30 thus configured will be described. Cable tie assembly 36 housed in magazine case 31
Is pressed toward the tying member discharge port 32 by the urging force of the feed spring 37. At this time, the leading cable tie 20 of the cable tie assembly 36 is located on the tie outlet 32. Then, when the pushing lever 35 is pushed down, the lower end of the lever 35 is applied to the outer peripheral surface of the connecting body 22 of the leading cable tying tool 20, and the leading cable tying tool 20 is separated from the cable tying element assembly 36 and pushed down. . The cable bundling tool 20 is pushed out from the bundling tool discharge port 32, is guided by the pair of guide feet 33 while moving both ends of the main body 21 in the groove 33a, and is finally pushed out. Thereafter, when the pushing lever 35 is pulled up, the cable tie assembly 36 is sent to the tie outlet 32 by the thickness of one cable tie 20 by the urging force of the feed spring 37, and the next cable tie 20 is moved. It is located on the binder outlet 32 and is ready for the next driving operation.

This cable tying tool driving device 30 comprises:
As shown in FIG. 8, the pair of guide feet 33 is pushed and positioned so as to sandwich the child beam 3 a on both sides of the cable 4, and then the pushing lever 35 is pushed down to push the leading cable tie 20 out. The extruded cable bundling device 20 has a pair of legs 2 due to its spring property.
The distal end side of the cable 3 descends while expanding and contracting along the outer peripheral shape of the cable 4, and further descends while sliding on both side surfaces of the child beam 3a. Then, the connector 22 is pushed in until the inner peripheral surface of the connector 22 comes into contact with the outer peripheral surface of the cable 4, and the hooking claw 24 becomes
The cable 4 is fixed to the sub-spar 3a by the cable tying tool 20. This operation is sequentially performed on the large number of cables 4 accommodated in the cable tray 1, and the large number of cables 4 are respectively fixed to the sub-spars 3 a by the cable tying tool 20, and the binding of the cables 4 is completed.

According to the third embodiment, the cable 4 can be fixed to the sub-girder 3a by pushing down the push-down lever 35 and driving the cable bundling tool 20. Further, the cable bundling tool assembly 36 is placed in the magazine case 31. Since the cable bundling tool 20 is always positioned at the discharge position by the stored and the feed spring 37, the cable bundling tool 20 can be driven continuously, and the large number of stored cables 4 can be easily transferred to the cable tray 1. Thus, the cable tying tool driving device 30 that can be tied up is obtained. Also, by using this cable tying tool driving device 30,
The labor and time required for bundling can be greatly reduced, and the workability of bundling can be significantly improved.

Embodiment 4 FIG. 9 is a longitudinal sectional view showing a cable tying tool driving device according to Embodiment 4 of the present invention. In the fourth embodiment, the magazine case 31
Is a case 40 in which the cable tie assembly 36 is accommodated.
And a push-down lever 35 are divided into an integrally formed lid 41, and the rear ends of the case 40 and the lid 41 are rotatably connected around a shaft 42. When the lid 41 is closed, a leaf spring 43 as an urging means is attached to the inner wall surface of the lid 41 so as to contact the upper end of the side plate of the case 40. In addition, a tie outlet 32 is formed in the front bottom surface of the case 40, and a pair of guide feet 33 extend downward from both sides of the tie outlet 32. Further, a feed spring 37 is contracted in the case 40, and urges the cable tying member assembly 36 toward the tying member outlet 32 through the end plate 38.

In the cable tying tool driving device 30A thus configured, the cable tying member assembly 36 is pressed toward the tying member outlet 32 by the urging force of the feed spring 37.
The leading cable tie 20 of the cable tie assembly 36 is always located on the tie outlet 32. Then, when the lid 41 is pushed down in the counterclockwise direction in FIG.
First, the leaf spring 43 contacts the upper end surface of the side plate of the case 40. When the lid 41 is further pushed down, the leaf spring 43 is elastically deformed, and the lower end of the push-down lever 35 is applied to the outer peripheral surface of the connecting body 22 of the leading cable tying tool 20, and the leading cable tying tool 20 is assembled with the cable tying tool assembly. Separate from body 36 and push down. The cable bundling tool 20 is pushed out from the bundling tool discharge port 32, is guided by the pair of guide feet 33 while moving both ends of the main body 21 in the groove 33a, and is finally pushed out. Thereafter, when the lid 41 is stopped from being pressed down, the repelling force caused by the elastic deformation of the leaf spring 43 causes the lid 41 to rotate around the shaft 42 in the clockwise direction in FIG. 9 and the push-down lever 35 to be pulled out. Then, the cable tying member assembly 36 is moved by the urging force of the feed spring 37 to 1
The next cable tie 20 is sent to the tie outlet 32 by the thickness of the cable tie 20, and is ready for the next driving operation.

As described above, according to the fourth embodiment,
The magazine case 31 is divided into a case 40 in which the cable bundling assembly 36 is accommodated and a lid 41 integrally formed with the push-down lever 35, and the rear ends of the case 40 and the lid 41 rotate around the shaft 42. The leaf spring 43 is attached to the inner wall surface of the lid 41 so as to contact the upper end of the side plate of the case 40 when the lid 41 is closed. Tool 2
0 is performed, and the cable tying tool driving device 30A excellent in operability is obtained.

[0025]

Since the present invention is configured as described above, it has the following effects.

According to the present invention, in a cable bundling device for bundling a cable to a sub-girder provided at the bottom of a cable tray, an arc-shaped connecting body and a direction in which the distal end side is approached from both ends of the connecting body. A resin-made horseshoe-shaped main body having a spring property constituted by a pair of legs that are integrally extended, and the tip of each hooking claw from each of the inner peripheral surfaces of the pair of legs opposing to the connecting body side. And a pair of spring-made resin-made hooking claws arranged in parallel in the length direction of the legs, with the tips of the hooking claws facing outwardly on the opposite sides to the main body. Therefore, a cable tying tool that can easily tie a large number of stored cables to the cable tray can be obtained.

The angle between each of the hooks constituting the pair of hooks and the main body extending outward is 22.5.
Since the angle is in the range of ± 10 °, a large binding force of the cable binding tool with respect to the sub-girder can be obtained.

Also, since the pair of legs has a guide piece whose tips are extended in directions away from each other,
The mounting operation of the cable tie can be stably performed with low labor.

Also, a cable tie assembly in which a plurality of the cable ties are closely arranged in parallel and connected to each other, and the cable tie assembly faces the leg side of the horseshoe-shaped body downward, and The connecting direction is aligned with the front-rear direction and stored so as to be movable in the front-rear direction, and a tying tool discharge port formed to have a diameter through which the cable tying tool can be inserted is drilled in the front bottom surface, and on both sides of the main body. A pair of guide feet that engage and guide the discharge of the cable tie are extended downward from the bottom surface across the tie discharge port, and are contracted into the magazine case; A feed spring that urges the cable tie assembly forward and feeds the cable tie assembly forward so that a leading cable tie is positioned on the tie outlet; and Concatenation of circles A flat plate molded into an arcuate concave shape that is substantially equal to the outer peripheral shape of the shape. The flat body is vertically movably mounted on the front side of the magazine case. The cable tying tool at the top by being applied to the connector body,
The leading cable tie is separated from the cable tie assembly and discharged from the tie discharge port, and the push lever is provided to guide the pair of guide feet and send it to the outside. A cable tying tool driving device capable of greatly reducing time and significantly improving tying workability is obtained.

The magazine case is divided into a case in which the cable tying member assembly is accommodated and a lid in which a push-down lever is integrally formed on a front end side, and a rear end side of the case and the lid is a shaft. The urging means, which is rotatably connected to the periphery and is further provided between the lid and the case, for urging the lid in the opening direction, can improve operability.

[Brief description of the drawings]

FIG. 1 is a diagram showing a configuration of a cable tying device according to Embodiment 1 of the present invention.

FIG. 2 is a perspective view showing a cable binding state using the cable fastener according to Embodiment 1 of the present invention.

FIG. 3 is a sectional view showing a cable binding state using the cable binding device according to the first embodiment of the present invention.

FIG. 4 is a side view showing a configuration of a cable tying device according to Embodiment 2 of the present invention.

FIG. 5 is a perspective view showing a cable tying tool driving device according to the third embodiment.

FIG. 6 is a longitudinal sectional view showing a cable tying tool driving device according to the third embodiment.

FIG. 7 is a cross-sectional view showing a cable tying tool driving device according to the third embodiment.

FIG. 8 is a perspective view showing a cable bundling method using the cable bundling device driving device according to the third embodiment.

FIG. 9 is a longitudinal sectional view showing a cable tying tool driving device according to the fourth embodiment.

FIG. 10 is a perspective view showing a cable binding method using a conventional cable binding tool.

FIG. 11 is a cross-sectional view illustrating a cable binding method using a conventional cable binding tool.

[Explanation of symbols]

1 cable tray, 3a child girder, 4 cables, 2
0, 20A Cable tying tool, 21 main body, 22 connecting body, 23 legs, 24 hooking claw, 25 guide piece, 3
0, 30A cable tying tool driving device, 31 magazine case, 32 tying device outlet, 33 guide feet, 35
Push-down lever, 36 Cable tie assembly, 37
Feed spring, 40 case, 41 lid, 42 shaft, 43
Leaf spring (biasing means).

Claims (5)

(57) [Claims] 1. A cable tying tool for tying a cable to a sub-girder provided at the bottom of a cable tray,
A resin-made horseshoe-shaped body having spring properties, comprising a circular arc-shaped connecting body, and a pair of legs integrally extended in a direction to approach the distal end from both ends of the connecting body, and the pair of legs The lengths of the legs are set such that the tips of the hooks are directed from the respective inner peripheral surfaces of the body toward the connecting body, and the tips of the hooks are outwardly facing each other with respect to the main body. A cable tying tool comprising a pair of resin-made hooking claws having a plurality of springs arranged in parallel in a direction. 2. The angle between each of the hooks constituting the pair of hooks and the body extending outward is 22.5 ° ± 2.
2. The cable tying device according to claim 1, wherein the angle is set to 10 [deg.]. 3. The cable tying device according to claim 1, wherein each of the pair of legs has a guide piece whose tip is extended in a direction away from each other. 4. A cable tie assembly wherein a plurality of the cable ties according to claim 1 are closely arranged in parallel and connected to each other, and wherein the cable tie assembly has the horseshoe shape. With the leg side of the main body facing downward, the connecting direction is matched with the front and rear direction, it is stored so as to be movable in the front and rear direction, and the binding device discharge port formed to have a diameter that allows the cable binding device to be inserted is provided on the front bottom surface. A magazine case having a pair of guide feet that are perforated and engage with both side portions of the main body to guide the discharge of the cable tie, and extend downward from the bottom face across the tie discharge port; The cable tie assembly is retracted in the magazine case and urges the cable tie assembly forward, and sends the cable tie assembly forward so that the leading cable tie is positioned on the tie outlet. Feed spring and lower end tip type The shape is a flat plate shaped into an arcuate concave shape that is substantially equal to the arcuate outer peripheral shape of the connected body of the main body,
It is mounted movably up and down on the front side of the magazine case, and by its lowering operation, the lower end is applied to the connector of the first cable tie and presses down the first cable tie, A pushing lever for separating the leading cable tying tool from the cable tying tool assembly, discharging the leading cable tying tool from the cable tying tool outlet, and guiding the pair of guide feet to send them out. Tool driving device. 5. The magazine case is divided into a case in which the cable tying member assembly is housed and a lid having a push-down lever integrally formed on a front end side, and a rear end side of the case and the lid is a shaft. It is configured to be rotatably connected around,
5. An urging means for urging the cover in a direction to open the cover is provided between the lid and the case.
The cable tying tool driving device as described in the above.