Special operating tool for live lead clamp

Abstract

The present invention provides a special operating tool for a live lead wire clamp, comprising a base as an installation base, a wire clamp body limiting claw fixedly arranged at the upper end of the base, a drainage wire limiting claw fixedly arranged at the middle and lower part of the right side of the base, a sliding bracket slidably sleeved with the upper left part of the base, an electric socket wrench fixedly arranged on the sliding bracket, a transmission member pinned to the base and the sliding bracket respectively, a spring connecting pin fixedly arranged on the rear end surface of the base, and a spring with one end hooked to the above-mentioned spring connecting pin and the other end hooked to the transmission member. When in use, the present invention can conveniently and quickly operate the live lead wire clamp designed in conjunction with the ground potential, so as to realize the secure and reliable hooking of the drainage wire on the conductor of the transmission line.

Description

Technical Field

[0001] The present invention relates to the field of auxiliary tools for 10kV power supply line operations, and particularly to a special operation tool for live connection lead clamps. Background Art

[0002] The 10kV distribution network is a power infrastructure that directly supplies electric energy to users. To improve the power supply reliability of the 10kV distribution network, the 10kV distribution network needs to be frequently upgraded, transformed, and operated and maintained. In the work of upgrading, transforming, operating, and maintaining the 10kV distribution network, a large number of operations of connecting branch diversion wires to the main transmission line are involved. An important auxiliary tool for connecting branch diversion wires to the main transmission line is a connection lead clamp used to electrically connect the diversion wire to the main transmission line.

[0003] Currently, the commonly used live connection lead clamps for 10kV distribution networks mainly include: bolt J-type line clamps, bolt C-type line clamps, and ejection wedge-type line clamps. Among them: First, the bolt J-type line clamp is composed of 2 J-shaped elements with wedges and 1 connecting bolt. The longitudinal tightening force of the bolt is used to make the wedges of the upper and lower J elements wedge into each other and simultaneously clamp the main transmission line and the diversion wire, and the electrical conduction between the main transmission line and the diversion wire is realized through the J-type line clamp. Its advantage is that the longitudinal tightening force of the bolt and the lateral force of the two J elements acting on the wire do not interfere with each other. Even if the tightening force decreases after long-term operation of the bolt, good contact between the line clamp and the wire can still be ensured. Its problem is that the existing J-type line clamps generally use casting non-elastic materials and cannot provide elastic deformation after installation. At the same time, limited by the overall length of the line clamp, there is a heating phenomenon in large-load lines after connection, which greatly affects its reliability. Second, the bolt C-type line clamp is composed of 1 C-type element, 2 hinged wedges, and 1 bolt. The longitudinal tightening force of the bolt is used to make the left and right hinged wedges wedge into the C-type element groove to respectively clamp the main transmission line and the diversion wire and realize electrical connection. Its advantage is that the connection performance is better. Its problem is that due to the small opening of the C-type element and the separable and flexible movement of the hinged wedges, the C-type line clamp is troublesome to install and cannot be installed with an insulating rod. Third, the ejection wedge-type line clamp is composed of 1 C-type element for fitting the main transmission line and the diversion wire and a wedge for fastening, and is equipped with a special ejection installation tool (including an ejection chip). During installation operation, the ejection impact force generated by the combustion of gunpowder inside the ejection core triggered by hitting the installation tool is used to press the wedge into the C-type element to realize the electrical connection between the main transmission line and the diversion wire. Its advantage is that there is no need to worry about the increase in contact resistance caused by the reduction of the element tightening force, and because the tightening force of the line clamp is large after ejection, the current-carrying capacity of the wedge-type line clamp is much higher than that of other line clamps. However, its existing problems are: high cost and inability to operate indirectly.

[0004] As can be seen from the above analysis, although the commonly used live connection lead clamps for 10 kV distribution networks, such as bolt J type, bolt C type, and ejection wedge type, each have their own advantages, they all have obvious deficiencies. Therefore, it is necessary to develop a more suitable live connection lead clamp for 10 kV distribution networks and a supporting dedicated operation tool for indirect operation. Summary of the Invention

[0005] The object of the present invention is to provide a dedicated operation tool for a live connection lead clamp in view of the problems existing in the prior art. This dedicated operation tool is designed in a supporting manner with a newly designed live connection lead clamp. When in use, it can conveniently and quickly operate the supporting live connection lead clamp to achieve a reliable connection between the conductor of the power supply line and the bypass conductor.

[0006] The technical solution of the present invention is as follows: The dedicated operation tool for a live connection lead clamp of the present invention has the following structural features: It includes a base body as the installation foundation, a clamp body limiting claw fixedly arranged at the upper end of the above-mentioned base body, a bypass conductor limiting claw fixedly arranged at the lower middle part on the right side of the above-mentioned base body, a sliding bracket slidably sleeved on the upper left part of the above-mentioned base body, an electric socket wrench fixedly arranged on the above-mentioned sliding bracket, a transmission member respectively pin-connected to the above-mentioned base body and the sliding bracket, a spring connection pin fixedly arranged on the rear end face of the above-mentioned base body, and a spring with one end hooked to the above-mentioned spring connection pin and the other end hooked to the transmission member;

[0007] The above-mentioned base body is integrally composed of a first wedge-shaped part located at the upper right side and a second wedge-shaped part located at the lower left side. The vertical width of the left side of the first wedge-shaped part is greater than the vertical width of the right side; the vertical width of the left side of the second wedge-shaped part is less than the vertical width of the right side; the first wedge-shaped part is integrally connected to the upper right side of the second wedge-shaped part from its lower left side; a groove recessed from front to back is provided on the first wedge-shaped part as a main body accommodating groove, and a relief notch is provided at the left end of the main body accommodating groove of the first wedge-shaped part; on the right side of the second wedge-shaped part, 2 bolt relief grooves are provided in the upper and lower parts respectively. On both sides of the upper part of the second wedge-shaped part, 2 chutes inclined from the lower left to the upper right are provided. 2 lifting connection screw holes are provided in the middle of the second wedge-shaped part; the above-mentioned clamp body limiting claw is fixedly arranged on the upper left end face of the first wedge-shaped part of the above-mentioned base body; the above-mentioned bypass conductor limiting claw is fixedly arranged on the front end face of the second wedge-shaped part and is located on the left side of the 2 bolt relief grooves of the second wedge-shaped part;

[0008] The above-mentioned clamp body limiting claw is integrally composed of an upper plate arranged in the front-back direction and a front plate arranged in the up-down direction. The lower end face of the rear part of the upper plate of the clamp body limiting claw is integrally or fixedly connected to the upper left end face of the first wedge-shaped part of the above-mentioned base body. The middle front part of the upper plate of the clamp body limiting claw protrudes forward from the first wedge-shaped part. The front end of the upper plate of the clamp body limiting claw is integrally connected to the front plate perpendicularly;

[0009] The above-mentioned drainage wire limiting claw is integrally composed of a longitudinal plate arranged vertically from top to bottom and a transverse plate arranged horizontally from left to right. The rear end of the longitudinal plate of the drainage wire limiting claw is integrally or fixedly connected to the front end face of the second wedge-shaped part of the above-mentioned base body, and the transverse plate of the drainage wire limiting claw is located in front of its longitudinal plate.

[0010] A further solution is that the above-mentioned transmission part is a bent strip-shaped plate body part, and an operation connection hole penetrating from front to back is provided at the lower left part of the transmission part; a spring connection ear is provided at the upper right part of the transmission part. The transmission part is provided with a first connection pin and a second connection pin. The transmission part is pin-connected to the rear end of the second wedge-shaped part of the above-mentioned base body by the first connection pin, and the transmission part is pin-connected to the rear end of the above-mentioned sliding bracket by the second connection pin. The above-mentioned spring is hooked to the spring connection ear of the transmission part.

[0011] The present invention has positive effects: (1) The special operating tool for the live connection lead clamp of the present invention is designed in a matching manner with a specially designed and innovative live connection lead clamp. When in use, it can conveniently and quickly operate the live connection lead clamp to realize the reliable connection between the conductor of the power supply line and the drainage wire. (2) The special operating tool for the live connection lead clamp of the present invention can conveniently realize live operation by using the ground potential of the insulating operating rod when in use, and can conveniently perform the installation operation of the drainage wire at the electric pole wires where many insulating boom trucks cannot reach. (3) The special operating tool for the live connection lead clamp of the present invention is conveniently and quickly assembled with the live connection lead clamp as the operating object when in use, saving working hours. (4) The live connection lead clamp as the operating object of the special operating tool for the live connection lead clamp of the present invention has a wedge-shaped structure sliding fit through the main body and the wire clamping slider, so that it can firmly and reliably clamp the conductor of the 10 kV distribution line and realize the electrical connection with the drainage wire during use. During the use process, the connection resistance does not exceed 0.90 times the resistance of the wire of the same length, the surface temperature of the clamp is lower than the surface temperature of the wire, and the connection performance is excellent. (5) The live connection lead clamp as the operating object of the special operating tool for the live connection lead clamp of the present invention slides the wire clamping slider in the main body by driving the bolt when in use, and clamps the conductor by the mutually matching wire grooves on the wire clamping slider and the main body. When in use, only need to tighten the driving bolt through the supporting tool to realize the clamping action on the conductor of the 10 kV distribution line, and the operation is convenient and safe. (6) The live connection lead clamp as the operating object of the special operating tool for the live connection lead clamp of the present invention can be firmly set on the wire for a long time without loosening during use through the structure design of the anti-return teeth and the anti-return bolt in the mutual cooperation between the main body and the wire clamping slider. (7) The live connection lead clamp as the operating object of the special operating tool for the live connection lead clamp of the present invention can effectively prevent the main body and the wire clamping slider from being damaged due to excessive locking under the action of the driving bolt by arranging a retaining ring on the driving bolt. Description of the Drawings

[0012] Figure 1Schematic structural diagram of the live connection lead clamp, which is the object of operation of the present invention;

[0013] Figure 2 is Figure 1 rear view;

[0014] Figure 3 Schematic perspective view of the live connection lead clamp, which is the object of operation of the present invention, when observed from the front;

[0015] Figure 4 Schematic perspective view of the live connection lead clamp, which is the object of operation of the present invention, when observed from the rear;

[0016] Figure 5 Schematic structural diagram of the present invention;

[0017] Figure 6 is Figure 5 rear view;

[0018] Figure 7 Schematic perspective view of the present invention;

[0019] Figure 8 is from Figure 7 schematic perspective view when observed from the side rear;

[0020] Figure 9 Schematic perspective view of the cooperation relationship between the live connection lead clamp and the present invention when installing the drainage wire using the present invention;

[0021] Figure 10 is from Figure 9 schematic perspective view when observed from the side rear.

[0022] The reference numerals in the above-mentioned drawings are as follows:

[0023] Main body 1, wire clamping part 11, rear plate 11-1, bolt relief groove hole 11-1-1, upper plate 11-2, upper front side plate 11-3, wire clamping groove 11-4, lower plate 11-5, lower front side plate 11-6, sliding sleeve plate 11-7; Drainage wire connection part 12, drainage wire connection screw hole 12-1;

[0024] Wire clamping slider 2, body 21, wire clamping groove 21-1, strengthening groove 21-2, sliding sleeve part 22, socket plate 22-1, anti-check tooth 22-1-1;

[0025] First nut 3, second nut 4, driving bolt 5, retaining ring 6, anti-check bolt 7;

[0026] Base body 100, first wedge portion 100-1, main body receiving groove 100-1-1, relief notch 100-1-2, second wedge portion 100-2, bolt relief groove 100-2-1, sliding groove 100-2-2, lifting connection screw hole 100-2-3;

[0027] Line clamp body limit claw 101, drainage line limit claw 102; sliding bracket 103; electric socket wrench 104, socket nut 104-1; transmission member 105, first connection pin 105-1, second connection pin 105-2, operation connection hole 105-3; spring connection pin 106, spring 107;

[0028] Drainage line 108, drainage line connection bolt 109. Specific implementation manner

[0029] The present invention will be further described in detail below with reference to the accompanying drawings and specific implementation manners.

[0030] (Example 1)

[0031] When describing the orientation in this embodiment, the direction Figure 1 facing is the front in the description, and the direction Figure 1 opposite to the facing direction is the rear in the description, Figure 1 and the up-down and left-right directions of

[0032] remain the up-down and left-right directions in the description. Figures 1 to 4 The special operation tool for live connection lead clamps in this embodiment is specifically used to operate the live connection lead clamps designed in a matching manner. The live connection lead clamps designed in a matching manner are as

[0033] The main body 1 is mainly composed of a wire clamping part 11 located on the upper side and a drain wire connecting part 12 located on the lower side. The wire clamping part 11 is mainly composed of a rear plate 11-1, an upper plate 11-2, an upper front side plate 11-3, a lower plate 11-5, a lower front side plate 11-6 and a sliding sleeve plate 11-7; the rear plate 11-1 is a plate body part with a wedge shape whose left and right width in the vertical direction is greater than that on the right side, and a through slot hole is provided on the rear plate 11-1 as a bolt clearance slot hole 11-1-1, and the bolt clearance slot hole 11-1-1 extends from the middle of the left side of the rear plate 11-1 to the middle of the rear plate 11-1 in the upper right direction; the upper plate 11-2 is horizontally arranged in the left and right direction, and the rear end of the upper plate 11-2 is integrally or fixedly connected to the upper end of the rear plate 11-1; the upper front side plate 11-3 is vertically arranged in the left and right direction, and the upper end of the upper front side plate 11-3 is integrally connected to the front end of the upper plate 11-2; a groove recessed upward is provided on the lower end surface of the upper plate 11-2 in the left and right direction as a wire clamping groove 11-4, and the cross-sectional shape of the wire clamping groove 11-4 in the vertical direction is preferably arc-shaped to facilitate clamping the wire of the transmission line during use; the lower plate 11-5 is inclined from the lower left to the upper right, and the rear end of the lower plate 11-5 is integrally or fixedly connected to the front end of the lower part of the rear plate 11-1, and the lower front side plate 11-6 and the sliding sleeve plate 11-7 are both arranged in a matching manner with the lower plate 11-5, the lower front side plate 11-6 is vertically arranged and the lower end of the lower front side plate 11-6 is integrally or fixedly connected to the front end of the lower plate 11-5; the sliding sleeve plate 11-7 is arranged parallel to the lower plate 11-5, and the front end of the sliding sleeve plate 11-7 is integrally or fixedly connected to the upper end of the lower front side plate 11-6, so as to form a sliding sleeve structure by the lower plate 11-5, the lower front side plate 11-6 and the sliding sleeve plate 11-7; as a preferred mode, a set of serrated first check teeth opening from the lower left to the upper right is further provided on the upper end surface of the lower plate 11-5. The drain wire connecting part 12 is a vertically arranged plate body part, and 2 drain wire connecting screw holes 12-1 are provided on the drain wire connecting part 12 for connecting the drain wire during use, and the upper end of the drain wire connecting part 12 is integrally connected to the lower end of the rear plate 11-1 of the wire clamping part 11.

[0034] The wire clamping slider 2 is a wedge-shaped structural member that slidably cooperates with the wire clamping portion 11 of the main body 1. The wire clamping slider 2 is mainly composed of a body 21 and a sliding sleeve portion 22. The body 21 is a wedge-shaped structural member that cooperates with the wire clamping portion 11 of the main body 1. A wire clamping groove 21-1 that is arranged horizontally, recessed downward, and has an arc-shaped longitudinal section is provided at the upper end of the body 21. During use, the wire clamping groove 21-1 at the upper end of the body 21 cooperates with the wire clamping groove 11-4 of the wire clamping portion 11 to clamp the wire of the power transmission line. As a preferred method, a groove that is recessed backward is also provided on the body 21 as a strengthening groove 21-2. On the one hand, the strengthening groove 21-2 can reduce the weight of the wire clamping slider 2, and on the other hand, it can increase the structural strength of the wire clamping slider 2. The sliding sleeve portion 22 is arranged in cooperation with the sliding sleeve structure of the wire clamping portion 11; the sliding sleeve portion 22 is integrally composed of a vertical plate (not marked in the figure) that is integrally connected to the rear end of the body 21 and a socket plate 22-1 that is inclined horizontally. The vertical plate and the socket plate 22-1 of the sliding sleeve portion 22 form a structure with an inverted L-shaped longitudinal section. The wire clamping slider 2 can be slidably sleeved with the sliding sleeve structure of the wire clamping portion 11 through its sliding sleeve portion 22. As a preferred method, a check tooth 22-1-1 that cooperates with the first check tooth provided on the upper end surface of the lower plate 11-5 of the wire clamping portion 11 is provided on the lower end surface of the socket plate 22-1 of the sliding sleeve portion 22. During use, the check tooth 22-1-1 provided on the lower end surface of the socket plate 22-1 of the sliding sleeve portion 22 cooperates with the first check tooth provided on the upper end surface of the lower plate 11-5 of the wire clamping portion 11, so that the wire clamping slider 2 cannot easily slide left and downward to loosen the clamping of the wire after clamping the wire, thereby enabling the live connection lead clamp to be firmly set on the wire for a long time without loosening.

[0035] Both the main body 1 and the wire clamping slider 2 are made of conductive materials, preferably aluminum alloy.

[0036] The first nut 3 is fixedly arranged at the lower left of the rear end face of the body 21 of the wire clamping slider 2; the second nut 4 is fixedly arranged on the rear end face of the rear plate 11-1 of the wire clamping portion 11 of the main body 1 and is located on the right side of the bolt relief groove hole 11-1-1 of the rear plate 11-1.

[0037] The driving bolt 5 is threadedly connected to the first nut 3 and the second nut 4 respectively. During use, when the driving bolt 5 is tightened by using a supporting tool, the wire clamping slider 2 can slide from the lower left to the upper right in the wire clamping portion 11 of the main body 1 to clamp the wire.

[0038] The retaining ring 6 is provided as a preferred method. The retaining ring 6 is arranged on the driving bolt 5 and is located on the right side of the first nut 3. The retaining ring 6 is used to prevent the main body 1 and the wire clamping slider 2 from being damaged due to excessive tightening under the action of the driving bolt 5.

[0039] The check valve bolt 7 is set as a preferred mode. Correspondingly, bolt holes are respectively provided in the right part of the lower plate 11-5 of the wire clamping part 11 of the main body 1 and the right part of the socket plate 22-1 of the sliding sleeve part 22 of the wire clamping slider 2. During use, after the wire clamping slider 2 clamps the wire, the check valve bolt 7 passes through the bolt hole of the lower plate 11-5 of the wire clamping part 11 of the main body 1 and is connected to the bolt hole of the socket plate 22-1 of the sliding sleeve part 22 of the wire clamping slider 2, so that the live connection lead clamp can be firmly set on the wire for a long time without loosening.

[0040] For the aforementioned live connection lead clamp, the joint resistance and temperature rise during power-on in the use experiment are briefly described as follows:

[0041] According to the GB / T 2317.3 standard for electric power fittings, for compression-type fittings, if their resistance value is not greater than the resistance value of the reference wire of the same length as the fitting, the electrical performance meets the requirements; for non-compression-type fittings, if their resistance value is not greater than 1.1 times the resistance value of the reference wire of the same length as the fitting, the test passes. The aforementioned live connection lead clamp belongs to non-compression-type fittings, so its joint resistance with the wire should not be greater than 1.1 times the resistance of the wire of the same length. Verified by experiments, the joint resistance of the aforementioned live connection lead clamp is equal to 0.88 times the resistance of the wire of the same length before temperature rise and 0.90 times the resistance of the wire of the same length after temperature rise, meeting the national standard requirements. In the temperature rise test of the aforementioned live connection lead clamp when bearing the load current of the distribution network line, when the loop current is 300A, the surface temperature of the clamp is lower than the surface temperature of the wire, and the surface temperature of the copper drainage wire is stable at 42 degrees; when the loop current is 500A, the surface temperature of the clamp is lower than the surface temperature of the wire, and the surface temperature of the copper drainage wire is stable at 62 degrees. It can be seen from the test that the resistance of the joint part between the aforementioned live connection lead clamp and the wire is small, and in addition, the clamp has a large heat dissipation area, so the surface temperature of the clamp is lower than the surface temperature of the wire. Therefore, the aforementioned live connection lead clamp can safely complete the connection of the drainage wire of the 10kV distribution line.

[0042] See Figures 5 to 8 The special operating tool for the live connection lead clamp of this embodiment mainly consists of a base body 100, a wire clamp main body limiting claw 101, a drainage wire limiting claw 102, a sliding bracket 103, an electric socket wrench 104, a transmission part 105, a spring connection pin 106 and a spring 107.

[0043] The base body 100 is integrally composed of a first wedge-shaped part 100-1 located on the upper right side and a second wedge-shaped part 100-2 located on the lower left side. The vertical width of the left side of the first wedge-shaped part 100-1 is greater than that of the right side; the vertical width of the left side of the second wedge-shaped part 100-2 is less than that of the right side; the first wedge-shaped part 100-1 is integrally connected to the upper right side of the second wedge-shaped part 100-2 at its lower left side. A groove recessed from front to back is provided on the first wedge-shaped part 100-1 as the main body accommodating groove 100-1-1. The first wedge-shaped part 100-1 is provided with a relief notch 100-1-2 at the left end of its main body accommodating groove 100-1-1, and the relief notch 100-1-2 is used to make room for the second nut 4 of the aforementioned live connection lead clamp during use. Two bolt relief grooves 100-2-1 are provided on the right side of the second wedge-shaped part 100-2, divided into upper and lower parts. The bolt relief grooves 100-2-1 are used to make room for the connection bolts that connect the lead wire connection part 12 of the main body 1 of the aforementioned live connection lead to the lead wire during use; two sliding grooves 100-2-2 are provided. The two sliding grooves 100-2-2 are inclined from the lower left to the upper right on both sides of the upper part of the second wedge-shaped part 100-2; two lifting connection screw holes 100-2-3 are provided in the middle of the second wedge-shaped part 100-2, and the lifting connection screw holes 100-2-3 are used to be connected to a lifting tool such as an insulating operating rod during use to lift the special operating tool for the live connection lead clamp of this embodiment.

[0044] The wire clamp body limiting claw 101 is integrally composed of an upper plate arranged in the front-back direction and a front plate arranged in the up-down direction. The wire clamp body limiting claw 101 is integrally or fixedly connected to the upper left end face of the first wedge-shaped part 100-1 by the lower end face of the rear part of its upper plate. The middle front part of the upper plate of the wire clamp body limiting claw 101 protrudes forward from the first wedge-shaped part 100-1, and the front end of the upper plate of the wire clamp body limiting claw 101 is vertically and integrally connected to the front plate.

[0045] The lead wire limiting claw 102 is fixedly arranged on the front end face of the second wedge-shaped part 100-2 and is located on the left side of the two bolt relief grooves 100-2-1 of the second wedge-shaped part 100-2; the lead wire limiting claw 102 is used to limit the combination after the lead wire connection part 12 of the main body 1 of the aforementioned live connection lead is connected to the lead wire during use. The lead wire limiting claw 102 is integrally composed of a vertical plate arranged in the up-down direction and a horizontal plate arranged in the left-right direction. The lead wire limiting claw 102 is integrally or fixedly connected to the front end face of the second wedge-shaped part 100-2 by the rear end of its vertical plate. The horizontal plate of the lead wire limiting claw 102 is located in front of its vertical plate, and the left-right cross section of the lead wire limiting claw 102 is L-shaped.

[0046] The sliding bracket 103 is a structural member configured to slidably cooperate with the chute 100-2-2 of the second wedge portion 100-2. The sliding bracket 103 can slide above the second wedge portion 100-2 relying on the two chutes 100-2-2 of the second wedge portion 100-2.

[0047] The electric socket wrench 104 is a commercially available component. The electric socket wrench 104 has a socket nut 104-1. The start, stop, forward rotation, and reverse rotation of the electric socket wrench 104 are all controlled by its supporting remote control. The electric socket wrench 104 is fixedly arranged on the sliding bracket 103, and the socket nut 104-1 of the electric socket wrench 104 extends obliquely upward to the right relative to the sliding bracket 103. During use, after the socket nut 104-1 of the electric socket wrench 104 is sleeved with the driving bolt 5 of the aforementioned live connection lead clamp, the rotation of the electric socket wrench 104 drives the driving bolt 5 to perform a tightening action, and then the driving bolt 5 drives the wire clamping slider 2 to slide from the lower left to the upper right in the wire clamping portion 11 of the main body 1 to clamp the wire of the transmission line.

[0048] The transmission member 105 is a bent strip-shaped plate member. The transmission member 105 is pin-connected to the rear end of the second wedge portion 100-2 by a configured first connecting pin 105-1, and the transmission member 105 is pin-connected to the rear end of the sliding bracket 103 by a configured second connecting pin 105-2. A spring connecting ear (not marked in the figure) is provided at the upper right part of the upper end of the transmission member 105, and an operation connecting hole 105-3 is provided at the lower end of the transmission member 105. The operation connecting hole 105-3 is used to cooperate with a corresponding operation tool (such as an insulating operating rod with a hook at the upper end) during use to realize the sleeving and loosening actions of the socket nut 104-1 of the electric socket wrench 104 and the driving bolt 5 of the aforementioned live connection lead clamp.

[0049] The spring connecting pin 106 is fixedly arranged at the middle position of the junction of the first wedge portion 100-1 and the second wedge portion 100-2 of the base body 100. One end of the spring 107 is hooked to the spring connecting pin 106, and the other end of the spring 107 is hooked to the spring connecting ear of the transmission member 105. The function of the spring 107 is that when it is necessary to sleeve the socket nut 104-1 of the electric socket wrench 104 with the driving bolt 5 of the aforementioned live connection lead clamp during use, the transmission member 105 is pulled downward to overcome the tension of the spring 107, so that the electric socket wrench 104 relies on the sliding bracket 103 to retreat obliquely downward to the left to facilitate adjusting the position to sleeve with the driving bolt 5 of the live connection lead clamp and loosen from the driving bolt 5 after the live connection lead clamp clamps the wire. When the socket nut 104-1 of the electric socket wrench 104 is sleeved with the driving bolt 5 of the live connection lead clamp and the driving process is implemented, the spring 107 can use its tension to ensure that the socket nut 104-1 and the driving bolt 5 of the live connection lead clamp remain sleeved without loosening.

[0050] See also Figure 9 and Figure 10 , the dedicated operating tool for the live lead wire clamp of this embodiment, the usage of which when used, is briefly described as follows:

[0051] First, fit the drain wire 108 with the drain wire connecting part 12 of the aforementioned live lead wire clamp body 1, and use two drain wire connecting bolts 109 to fix the drain wire 108 on the front end surface of the drain wire connecting part 12, and then place the live lead wire clamp with the drain wire 108 installed in the dedicated operating tool for the live lead wire clamp of this embodiment. Specifically, place the wire clamping part 11 of the body 1 of the live lead wire clamp in the body accommodating groove 100-1-1 of the first wedge-shaped part 100-1 of the base 100, and the wire clamp body limiting claw 101 limits the wire clamping part 11 of the body 1 of the live lead wire clamp from front to back; the drain wire limiting claw 102 limits the combination of the drain wire connecting part 12 of the body 1 of the live lead wire and the drain wire after being connected from front to back; pull down and restore the transmission member 105 so that the socket screw of the electric socket wrench 104 The female 104-1 is sleeved with the driving bolt 5 of the live lead clamp, and then the live lead clamp special operating tool of this embodiment is lifted together with the live lead clamp arranged therein to the conductor of the transmission line by using a lifting tool and the wire clamping groove 11-4 of the wire clamping part 11 of the main body 1 of the live lead clamp is used to hang with the wire, and the power of the electric socket wrench 104 is turned on, and the sleeve nut 104-1 of the electric socket wrench 104 rotates to drive the driving bolt 5 of the live lead clamp to rotate, and the driving bolt 5 makes the wire clamping slider 2 slide from the lower left to the upper right in the wire clamping part 11 of the main body 1 to clamp the wire; after clamping, the sleeve nut 104-1 of the electric socket wrench 104 is rotated in the opposite direction to disengage it from the driving bolt 5, and the special operating tool for the live lead clamp of this embodiment is removed to complete the operation of setting the drainage wire on the conductor of the 10kV distribution line.

[0052] The above embodiments are descriptions of specific implementation methods of the present invention, rather than limitations of the present invention. Technicians in the relevant technical fields can make various changes and modifications to obtain corresponding equivalent technical solutions without departing from the spirit and scope of the present invention. Therefore, all equivalent technical solutions should be included in the patent protection scope of the present invention.​

Claims

1. A special operating tool for live lead clamp, characterized in that: The utility model comprises a base body as an installation base, a wire clamp main body limiting claw fixedly arranged on the upper end of the base body, a drainage wire limiting claw fixedly arranged on the middle and lower part of the right side of the base body, a sliding bracket slidably sleeved with the upper left part of the base body, an electric socket wrench fixedly arranged on the sliding bracket, a transmission member pin-connected with the base body and the sliding bracket respectively, a spring connecting pin fixedly arranged on the rear end surface of the base body, and a spring having one end hooked with the spring connecting pin and the other end hooked with the transmission member; The base body is integrally composed of a first wedge-shaped portion located on the upper right side and a second wedge-shaped portion located on the lower left side, the left side of the first wedge-shaped portion having a larger upper and lower width than the right side; the left side of the second wedge-shaped portion having a smaller upper and lower width than the right side; the first wedge-shaped portion is integrally connected with the right upper side of the second wedge-shaped portion by its lower left side; a groove concave from front to back is provided on the first wedge-shaped portion as a main body accommodating groove, and the first wedge-shaped portion is provided with a yield notch at the left end of its main body accommodating groove; two bolt yield grooves are provided on the right side of the second wedge-shaped portion, and two sliding grooves are provided on both sides of the upper portion of the second wedge-shaped portion, which are inclined from the lower left to the upper right, and the second wedge-shaped portion is provided with two lifting connection screw holes in its middle; the wire clamp main body limiting claw is fixedly arranged on the upper left end surface of the first wedge-shaped portion of the base; the drainage line limiting claw is fixedly arranged on the front end surface of the second wedge-shaped portion and is located on the left side of the two bolt yield grooves of the second wedge-shaped portion; The limiting claw of the wire clamp body is composed of an upper plate arranged in the front-to-back direction and a front plate arranged in the top-to-bottom direction, the limiting claw of the wire clamp body is connected integrally or fixedly with the left upper end surface of the first wedge-shaped portion of the base body by the rear lower end surface of the upper plate, the middle front part of the upper plate of the limiting claw of the wire clamp body protrudes forward from the first wedge-shaped portion, and the upper plate of the limiting claw of the wire clamp body is connected integrally with the front plate vertically by its front end; The drainage line limiting claw is composed of a longitudinal plate arranged in the vertical direction and a transverse plate arranged in the left and right direction. The drainage line limiting claw is integrally or fixedly connected with the front end surface of the second wedge-shaped part of the base by the rear end of its longitudinal plate, and the transverse plate of the drainage line limiting claw is located in front of its longitudinal plate.

2. The special operating tool for live lead clamp according to claim 1, characterized in that: The transmission member is a bent strip-shaped plate member, and an operating connection hole that passes through in the front-to-back direction is provided at the lower left portion of the transmission member; a spring connecting ear is provided at the upper right portion of the transmission member, and the transmission member is equipped with a first connecting pin and a second connecting pin. The transmission member is pin-connected to the rear end of the second wedge-shaped portion of the base by the first connecting pin, and the transmission member is pin-connected to the rear end of the sliding bracket by the second connecting pin, and the spring is hooked to the spring connecting ear of the transmission member.

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