Auxiliary mounting clamp for cable clamp

By designing a cable clamp auxiliary installation fixture including channel steel frame, fine-rolled rebar, hand-pulled hoist and adjustment frame, the problem of difficulty in adapting to cable clamps and main cables in the prior art is solved, and the installation stability and efficiency improvement is achieved.

CN119956679APending Publication Date: 2025-05-09GUIZHOU BRIDGE CONSTR GROUP
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Patent Information

Application Number
CN202510255641.X
Authority / Receiving Office
CN · China
Patent Type
Applications(China)
Current Assignee / Owner
Filing Date
2025-03-05
Publication Date
2025-05-09

AI Technical Summary

Technical Problem

The existing cable clamp auxiliary installation fixtures are difficult to adapt to cable clamps and main cables of different specifications, resulting in unstable installation and high construction costs.

Method used

A cable clamp auxiliary installation fixture including channel steel frame, fine-rolled rebar, hand-pulled hoist and adjustment frame is designed. Through the combination of adjustment frame and thread push rod, flexible positioning and fixing of the cable clamp and main cable is achieved.

Benefits of technology

It realizes flexible adaptation to cable clamps and main cables of different specifications, improves installation stability and efficiency, and reduces construction costs.

✦ Generated by Eureka AI based on patent content.

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Abstract

The invention provides a cable clamp auxiliary installation clamp, and relates to the technical field of installation clamps, the cable clamp auxiliary installation clamp comprises two channel steel frameworks, finish rolling deformed steel bars, chain blocks and hand zippers, the two side end parts of each channel steel framework are provided with adjusting frames which are in butt joint sliding, and the side end part of each adjusting frame is provided with an adjusting assembly; each adjusting assembly comprises a threaded pushing rod, a butt joint compression rod, a sliding connection sleeve and a meshing gear, the top end of each adjusting frame is provided with an adjusting rotary sliding round rod which slides vertically, the hinged end of the sliding strip clamping seat and the deflection measuring strip is pushed out of the guiding frame, and the deflection measuring strip can deflect at the side end of the guiding frame; meanwhile, the scales are arranged at the side ends of the guide frame, the distance between the scales is matched with the side ends of the deflection measuring strips, and in the installation work, the horizontal angle of the channel steel framework is measured and calculated through the deflection angle of the deflection measuring strips and the guide frame, so that the angle of the channel steel framework is prevented from deflecting and inclining in the installation process.
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Description

Technical Field

[0001] The invention belongs to the technical field of installation fixtures, and more specifically, particularly relates to a cable clamp auxiliary installation fixture. Background Art

[0002] Cable clamp auxiliary installation fixture is mainly used as an auxiliary tool for cable clamp installation in the construction of cable system bridges such as suspension bridges. Cable clamp auxiliary installation fixture can help construction workers accurately position the cable clamp at the predetermined position on the main cable. In practical applications, the equipment usually requires the following technologies:

[0003] 1. Clamping mechanism, which firmly fixes the cable clamp on the main cable;

[0004] 2. Positioning mechanism, used to accurately determine the position of the cable clamp on the main cable;

[0005] 3. Support mechanism, providing stable support for the entire installation fixture and cable clamp;

[0006] When the cable clamp is placed in the correct position on the main cable, the installation fixture can temporarily fix the cable clamp. Through the positioning device on the fixture, the distance between the cable clamps can be accurately controlled to ensure that the relative position of the cable clamp and the main cable meets the design requirements. The auxiliary installation fixture can tightly hold the cable clamp and the main cable to keep the cable clamp in the correct position, providing stable operating conditions for subsequent installation processes such as tightening bolts. However, during use, there are the following shortcomings:

[0007] 1. Cable clamp auxiliary installation fixtures are usually designed for cable clamps and main cables within a specific size range. When encountering cable clamps or main cables of different specifications, it is necessary to redesign or replace the clamping block. In particular, if the thickness of the cable clamp exceeds the accommodation range of the fixture, it cannot be installed normally, increasing construction costs and time.

[0008] 2. The structure of the clamp is designed symmetrically, and the two plates play a supporting and fixing role. Especially when the cable clamp maintains a specific angle with the cable, due to the flexibility of the cable itself, the cable clamp will have an angle deviation during the installation process, which will cause uneven force on the cable and affect the stability of the installation clamp. Summary of the invention

[0009] In order to solve the above technical problems, the present invention provides a cable clamp auxiliary installation fixture to solve the above problems.

[0010] A cable clamp auxiliary installation fixture includes two channel steel frames, precision-rolled threaded steel, a hand winch, and a hand chain. The two side ends of each channel steel frame are provided with a docking sliding adjustment frame, and the side ends of each adjustment frame are provided with an adjustment component. Each adjustment component includes a threaded push rod, a docking compression rod, a sliding sleeve, and a meshing gear. The top of each adjustment frame is provided with a vertically sliding adjustment sliding round rod, and the top of each adjustment sliding round rod is fixedly installed with two straight bar fixings, and each of the straight bar fixings is symmetrically arranged and installed on the top of the adjustment sliding round rod. The bottom end of each straight bar fixing is provided with a sliding component, and each sliding component includes a sliding bar holder, a deflection measurement bar, and a guide frame.

[0011] Preferably, the end of each threaded push rod is rotatably connected to the inside of the channel steel frame, the side end of each threaded push rod is butted and slidable with the sliding sleeve, the end of each sliding sleeve is fixedly connected to the top of the butt compression rod, and a compression spring is arranged inside each butt compression rod;

[0012] A supporting slider for horizontal sliding is arranged at the top of each adjusting frame, a fixing sleeve for slidingly docking with the adjusting rotary sliding round rod is fixedly installed inside each supporting slider, and a docking ring for slidingly docking with the supporting slider is fixedly installed on the surface of each adjusting rotary sliding round rod;

[0013] The surface of the high-precision rolled threaded steel is designed with a threaded design. The high-precision rolled threaded steel penetrates the interior of the adjusting frame and is rotatably connected to the adjusting frame. Hooks are provided at both ends of the hand winch. Two caliper bars for docking guides are fixedly installed on the two side ends of each channel steel frame. Two vertically arranged stiffening plates are provided inside each channel steel frame.

[0014] Preferably, a soft plate clip for fitting cables is fixedly installed at the bottom end of each of the channel steel frames, and two side ends of each of the soft plate clips are rotatably installed with two synchronously deflected linkage push rods, and each of the soft plate clips is made of rubber;

[0015] Two symmetrical sliding engagement blocks are fixedly installed on the surface of each adjusting rotary sliding round rod, and a sliding torque block for connecting and sliding is fixedly installed on the bottom end of each adjusting rotary sliding round rod;

[0016] A double-end reset spring rod with two ends compressed is fixedly installed at the bottom end of each sliding torque block, and a guide frame that slides and docks with the sliding torque block is fixedly installed at the bottom end of each double-end reset spring rod.

[0017] Preferably, a gear ring is fixedly mounted on the end of each guide frame, and the end of each guide frame and the meshing gear are mutually engaged for transmission;

[0018] Two arc-shaped positioning blocks that fit the adjusting sliding rod are symmetrically installed on the inner side wall of each of the fixing sleeves, and a slot for fixing and adjusting the angle of the sliding rod is provided at the bottom end of each of the arc-shaped positioning blocks;

[0019] The side end of each guide frame fits in with the adjustment frame to slide, each slide bar holder and the deflection measurement bar are hinged mechanisms, and each slide bar holder and the deflection measurement bar rotate relative to each other.

[0020] Compared with the prior art, the present invention has the following beneficial effects:

[0021] In the present invention, by driving the sliding sleeve to rotate, the side end of the sliding sleeve and the threaded push rod are mutually engaged, which can drive the threaded push rod to rotate inside the channel steel frame, drive the adjustment frame to slide on the side end of the channel steel frame, and at the same time, the channel steel frame and the adjustment frame are in a horizontal sliding state, and the caliper bar at the side end of the channel steel frame slides at the side end of the adjustment frame, which guides the channel steel frame. At the same time, the surface of the caliper bar is provided with a ruler, which can accurately penetrate the sliding distance of the adjustment frame at the side end of the channel steel frame, and can be adjusted according to different wiring harnesses.

[0022] In the present invention, the straight bar fixing piece drives the slide bar holder to move at the side end of the guide frame, and the slide bar holder drives the deflection measuring bar to slide downward inside the guide frame, and the hinged end of the slide bar holder and the deflection measuring bar is pushed out of the guide frame. The deflection measuring bar can be deflected at the side end of the guide frame. At the same time, a ruler is provided at the side end of the guide frame, and the spacing of the ruler matches the side end of the deflection measuring bar. During the installation work, the horizontal angle of the channel steel frame is measured by the deflection angle of the deflection measuring bar and the guide frame, so as to prevent the angle of the channel steel frame from deflecting and tilting during the installation process.

[0023] In the present invention, one end of the fine-rolled threaded steel bar is aligned with the adjusting frame, the fine-rolled threaded steel bar is rotated, and the fine-rolled threaded steel bar is passed through the two adjusting frames to fix the channel steel skeleton. At the same time, the hand chain hoist is moved, and the hooks on both sides of the hand chain hoist are hooked with the side ends of the adjusting frame. The operator holds one end of the hand chain and pulls the hand chain continuously and smoothly. Relying on the gear transmission ratio, a labor-saving effect can be achieved, and it is easy to install and fix.

[0024] In the present invention, the guide frame is moved to slide horizontally inside the adjustment frame, and the other end of the linkage push rod is rotatably connected to the guide frame. The sliding of the guide frame pushes the linkage push rod to deflect inside the adjustment frame, and the linkage push rod rotates to a vertical state. The end of the linkage push rod applies a force to the side ends of the soft board clip, so that the two ends of the soft board clip can be bent. After the soft board clip is bent, the soft board clip can better fit the surface of the cable, increase the contact surface, and make the clamping and fixation more stable.

[0025] In the present invention, by adjusting the sliding round rod to slide inside the fixed sleeve, the sliding round rod drives the sliding meshing block to enter the interior of the fixed sleeve, the size of the sliding meshing block matches the distance between the arc-shaped positioning block, and the sliding meshing block is driven to enter the interior of the fixed sleeve, and at the same time, the sliding meshing block is moved to the bottom end of the arc-shaped positioning block, and the sliding round rod is adjusted by rotating the sliding round rod to drive the sliding meshing block to rotate inside the fixed sleeve, so that the top end of the sliding meshing block matches the slot at the bottom end of the arc-shaped positioning block, and the angle of the adjusting sliding round rod is fixed, the rotation of the adjusting sliding round rod is restricted, the position of the threaded push rod inside the channel steel frame is fixed, and the channel steel frame and the adjusting frame are fixed at the same time, which not only can adjust the position of the adjusting frame, but also can control the bending angle of the soft plate clip. BRIEF DESCRIPTION OF THE DRAWINGS

[0026] Figure 1 It is a schematic diagram of the channel steel skeleton structure of the present invention;

[0027] Figure 2 It is a schematic diagram of the structure of the hand chain hoist of the present invention;

[0028] Figure 3 It is a schematic diagram of the linkage push rod structure of the present invention;

[0029] Figure 4 It is a schematic diagram of the structure of the regulating frame of the present invention;

[0030] Figure 5 It is a schematic diagram of the soft plate clip structure of the present invention;

[0031] Figure 6 It is a schematic diagram of the supporting sliding block structure of the present invention;

[0032] Figure 7 It is a schematic diagram of the structure of the straight bar fixing member of the present invention;

[0033] Figure 8 It is a schematic diagram of the structure of the adjustable sliding round rod of the present invention.

[0034] In the figure: 11, channel steel skeleton; 12, precision-rolled threaded steel; 13, hand chain hoist; 14, hand chain; 15, adjustment frame; 16, caliper bar; 17, soft plate clip; 18, threaded push rod; 19, docking compression rod; 21, sliding sleeve; 22, meshing gear; 23, linkage push rod; 24, stiffening plate; 25, support slider; 26, docking ring; 27, adjustment sliding round rod; 28, straight bar fixing piece; 29, slide bar holder; 31, deflection measurement bar; 32, guide frame; 33, fixing sleeve; 34, arc positioning block; 35, sliding engagement block; 36, sliding torque block; 37, double-ended reset spring rod. DETAILED DESCRIPTION

[0035] The following is a further detailed description of the embodiments of the present invention in conjunction with the accompanying drawings and examples. The following examples are used to illustrate the present invention but are not intended to limit the scope of the present invention.

[0036] See also Figure 1 - Figure 8 The present invention provides a cable clamp auxiliary installation fixture, including two channel steel frames 11, finely rolled threaded steel 12, a hand chain hoist 13, and a hand chain 14. The two side ends of each channel steel frame 11 are provided with a butt-jointed sliding adjustment frame 15. The surface of the finely rolled threaded steel 12 is a threaded design. The finely rolled threaded steel 12 runs through the interior of the adjustment frame 15 and is rotatably connected to the adjustment frame 15. Hooks are provided at both ends of the hand chain hoist 13. Two caliper bars 16 for butt-jointed guiding are fixedly installed at the two side ends of each channel steel frame 11. Two vertically arranged stiffening plates 24 are provided inside each channel steel frame 11. The stiffening plates 24 increase the rigidity of the channel steel frame 11 itself. The two channel steel frames 11 are aligned and fixed to the two sides of the cable through the two channel steel frames 11. The surface of the adjustment frame 15 is opened A mounting hole is provided. By aligning one end of the fine-rolled threaded steel bar 12 with the adjusting frame 15, rotating the fine-rolled threaded steel bar 12, passing the fine-rolled threaded steel bar 12 through the two adjusting frames 15, fixing the channel steel frame 11, and moving the hand chain hoist 13 at the same time, the hooks on both sides of the hand chain hoist 13 are hooked with the side ends of the adjusting frame 15, and the operator holds one end of the hand chain 14 and continuously and steadily pulls the hand chain 14. The rotation of the hand chain 14 drives the lifting sprocket to rotate in the set direction through the internal gear transmission system. As the lifting sprocket rotates, the chain wrapped around the lifting sprocket will gradually be rolled up, and the heavy object connected to the lower hook will be slowly lifted to realize the lifting action of the heavy object. In this process, relying on the gear transmission ratio, a labor-saving effect can be achieved, allowing the operator to lift heavier objects with relatively small force;

[0037] The side end of each adjustment frame 15 is provided with an adjustment component, and each adjustment component includes a threaded push rod 18, a docking compression rod 19, a sliding sleeve 21, and a meshing gear 22. The end of each threaded push rod 18 is rotatably connected to the inside of the channel steel frame 11, and the side end of each threaded push rod 18 and the sliding sleeve 21 are docked and slidable. The end of each sliding sleeve 21 is fixedly connected to the top of the docking compression rod 19, and a compression spring is provided inside each docking compression rod 19. By driving the sliding sleeve 21 to rotate, the side end of the sliding sleeve 21 and the threaded The mutually engaged state of the push rods 18 can drive the threaded push rods 18 to rotate inside the channel steel frame 11, driving the adjustment frame 15 to slide on the side end of the channel steel frame 11. At the same time, the channel steel frame 11 and the adjustment frame 15 are in a horizontal sliding state, and the caliper strip 16 at the side end of the channel steel frame 11 butts and slides on the side end of the adjustment frame 15, guiding the channel steel frame 11. The surface of the caliper strip 16 is provided with a ruler, which can accurately penetrate the sliding distance of the adjustment frame 15 at the side end of the channel steel frame 11, and can be adjusted according to different wiring harnesses;

[0038] A soft plate clip 17 for fitting the cable is fixedly installed at the bottom end of each channel steel frame 11. Two side ends of each soft plate clip 17 are rotatably installed with two synchronously deflected linkage push rods 23. Each soft plate clip 17 is made of rubber material. By moving the guide frame 32, the guide frame 32 is horizontally slid inside the adjustment frame 15. The other end of the linkage push rod 23 is rotatably connected to the guide frame 32. The sliding of the guide frame 32 pushes the linkage push rod 23 to deflect inside the adjustment frame 15. The linkage push rod 23 rotates to a vertical state. The end of the linkage push rod 23 applies a force to the side end of the soft plate clip 17, so that the two ends of the soft plate clip 17 can be bent. After the soft plate clip 17 is bent, the soft plate clip 17 is better fitted to the surface of the cable, the contact surface is increased, and the clamping and fixing are more stable.

[0039] The top of each adjusting frame 15 is provided with an adjusting rotary sliding rod 27 for vertical sliding, and the top of each adjusting rotary sliding rod 27 is fixedly installed with two straight bar fixing members 28. The top of each adjusting frame 15 is provided with a supporting slider 25 for horizontal sliding, and the interior of each supporting slider 25 is fixedly installed with a fixing sleeve 33 for sliding docking with the adjusting rotary sliding rod 27, and the surface of each adjusting rotary sliding rod 27 is fixedly installed with a docking ring 26 for docking and sliding with the supporting slider 25. Each straight bar fixing member 28 is symmetrically arranged and installed on the top of the adjusting rotary sliding rod 27, and a sliding assembly is provided at the bottom end of each straight bar fixing member 28. Each sliding assembly includes a slide bar holder 29, a deflection measurement bar 31, and a guide frame 32. The side end of each guide frame 32 fits the adjusting frame 15 to slide, and each slide bar holder 29 slides with the deflection measurement bar 31. The measuring bar 31 is a hinged mechanism, and each slide bar holder 29 and the deflection measuring bar 31 rotate relative to each other. By pushing the adjusting sliding round rod 27 downward, the straight bar fixing member 28 moves downward, and the straight bar fixing member 28 drives the slide bar holder 29 to move at the side end of the guide frame 32. The slide bar holder 29 drives the deflection measuring bar 31 to slide downward inside the guide frame 32, and the hinged end of the slide bar holder 29 and the deflection measuring bar 31 is pushed out of the guide frame 32. The deflection measuring bar 31 can be deflected at the side end of the guide frame 32. At the same time, a ruler is provided at the side end of the guide frame 32, and the spacing of the ruler matches the side end of the deflection measuring bar 31. During the installation work, the horizontal angle of the channel steel frame 11 is measured by the deflection angle of the deflection measuring bar 31 and the guide frame 32 to prevent the angle of the channel steel frame 11 from deflecting and tilting during the installation process.

[0040] The surface of each adjusting sliding round rod 27 is fixedly installed with two symmetrical sliding meshing blocks 35, and the bottom end of each adjusting sliding round rod 27 is fixedly installed with a sliding torque block 36 for connecting and sliding, and the bottom end of each sliding torque block 36 is fixedly installed with a double-end reset spring rod 37 compressed at both ends, and the bottom end of each double-end reset spring rod 37 is fixedly installed with a guide frame 32 that slides with the sliding torque block 36, and the end of each guide frame 32 is fixedly installed with a gear ring, and the end of each guide frame 32 and the meshing gear 22 are mutually engaged and transmitted. By rotating the adjusting sliding round rod 27, the adjusting sliding round rod 27 drives the sliding torque block 36 to move downward, and the end of the sliding torque block 36 is engaged with the guide frame 32, and the end of the sliding torque block 36 squeezes the adjusting sliding round rod 27 inside the guide frame 32. After the double-end reset spring rod 37 is compressed, the adjusting sliding round rod 27 can slide downward inside the fixing sleeve 33, driving the straight bar fixing member 28 to move downward;

[0041] Two arc-shaped positioning blocks 34 that fit the adjusting sliding rod 27 are symmetrically installed on the inner side wall of each fixed sleeve 33. The bottom end of each arc-shaped positioning block 34 is provided with a slot for fixing and adjusting the angle of the sliding rod 27. By adjusting the sliding rod 27 to slide inside the fixed sleeve 33, the sliding rod 27 drives the sliding engagement block 35 to enter the interior of the fixed sleeve 33. The size of the sliding engagement block 35 matches the distance between the arc-shaped positioning blocks 34. The sliding rod 27 drives the sliding engagement block 35 to enter the fixed sleeve 33. 3, and at the same time, the sliding engagement block 35 is moved to the bottom end of the arc-shaped positioning block 34, and the sliding engagement block 35 is driven to rotate inside the fixed sleeve 33 by rotating the adjusting sliding rod 27, so that the top of the sliding engagement block 35 fits into the slot at the bottom end of the arc-shaped positioning block 34, the angle of the adjusting sliding rod 27 is fixed, the rotation of the adjusting sliding rod 27 is limited, the position of the threaded push rod 18 inside the channel steel frame 11 is fixed, and the channel steel frame 11 and the adjusting frame 15 are fixed at the same time.

[0042] Working principle:

[0043] The first step is to align the two channel steel frames 11 and fix them on both sides of the cable. A mounting hole is opened on the surface of the adjusting frame 15. By aligning one end of the fine-rolled threaded steel 12 with the adjusting frame 15, the fine-rolled threaded steel 12 is rotated and passed through the two adjusting frames 15 to fix the channel steel frame 11. At the same time, the hand chain hoist 13 is moved to hang the hooks on both sides of the hand chain hoist 13 with the side ends of the adjusting frame 15. The operator holds one end of the hand chain 14 and pulls the hand chain 14 continuously and smoothly. The rotation of the hand chain 14 drives the lifting sprocket to rotate in the set direction through the internal gear transmission system. As the lifting sprocket rotates, the chain wrapped around the lifting sprocket will gradually be rolled up, and the weight connected to the lower hook will be slowly lifted to achieve the rising action of the weight. In this process, relying on the gear transmission ratio, a labor-saving effect can be achieved, allowing the operator to lift heavier objects with relatively small force.

[0044] By rotating and adjusting the sliding round rod 27, the sliding round rod 27 is inserted into the sliding torsion block 36 to drive the double-end reset spring rod 37 to rotate inside the adjustment frame 15. At the same time, the end of the guide frame 32 is in a fitting state with the meshing gear 22. The double-end reset spring rod 37 drives the meshing gear 22 to rotate inside the adjustment frame 15, driving the sliding sleeve 21 to rotate at the side end of the adjustment frame 15. At the same time, by driving the sliding sleeve 21 to rotate, the side end of the sliding sleeve 21 and the threaded push rod 18 are mutually engaged. , the threaded push rod 18 can be driven to rotate inside the channel steel frame 11, driving the adjustment frame 15 to slide on the side end of the channel steel frame 11. At the same time, the channel steel frame 11 and the adjustment frame 15 are in a horizontal sliding state, and the caliper bar 16 at the side end of the channel steel frame 11 slides in a docking relationship with the side end of the adjustment frame 15, guiding the channel steel frame 11. The surface of the caliper bar 16 is provided with a ruler, which can accurately penetrate the sliding distance of the adjustment frame 15 at the side end of the channel steel frame 11, and can be adjusted according to different wiring harnesses.

[0045] In the second step, by rotating the adjusting sliding round rod 27, the adjusting sliding round rod 27 drives the sliding torque block 36 to move downward, and the end of the sliding torque block 36 fits with the guide frame 32. The end of the sliding torque block 36 squeezes the double-end reset spring rod 37 inside the guide frame 32. After the double-end reset spring rod 37 is compressed, the adjusting sliding round rod 27 can slide downward inside the fixing sleeve 33, driving the straight bar fixing member 28 to move downward. By pushing the adjusting sliding round rod 27 downward, the straight bar fixing member 28 can be 8 moves downward, allowing the straight bar fixing member 28 to drive the slide bar holder 29 to move at the side end of the guide frame 32, and the slide bar holder 29 drives the deflection measurement bar 31 to slide downward inside the guide frame 32, and the hinged end of the slide bar holder 29 and the deflection measurement bar 31 is pushed out of the guide frame 32. The deflection measurement bar 31 can deflect at the side end of the guide frame 32. At the same time, a ruler is provided at the side end of the guide frame 32, and the spacing of the ruler matches the side end of the deflection measurement bar 31. During the installation work, through the deflection measurement The deflection angle of the measuring bar 31 and the guide frame 32 is measured to measure the horizontal angle of the channel steel frame 11 to prevent the angle of the channel steel frame 11 from deflecting and tilting during the installation process. By adjusting the sliding round rod 27 to slide inside the fixing sleeve 33, the sliding round rod 27 drives the sliding meshing block 35 to enter the inside of the fixing sleeve 33, and the size of the sliding meshing block 35 matches the distance between the arc positioning block 34. The sliding meshing block 35 is adjusted to enter the inside of the fixing sleeve 33, and at the same time, the sliding meshing block 35 is moved to the bottom end of the arc positioning block 34. By rotating and adjusting the sliding round rod 27, the sliding round rod 27 drives the sliding meshing block 35 to rotate inside the fixing sleeve 33, so that the top end of the sliding meshing block 35 fits the slot at the bottom end of the arc positioning block 34, and the angle of the adjusting sliding round rod 27 is fixed, the rotation of the adjusting sliding round rod 27 is limited, the position of the threaded push rod 18 inside the channel steel frame 11 is fixed, and the channel steel frame 11 and the adjusting frame 15 are fixed at the same time.

[0046] By moving the guide frame 32, the guide frame 32 is allowed to slide horizontally inside the adjustment frame 15, and the other end of the linkage push rod 23 is rotatably connected to the guide frame 32. The sliding of the guide frame 32 pushes the linkage push rod 23 to deflect inside the adjustment frame 15, and the linkage push rod 23 rotates to a vertical state. The end of the linkage push rod 23 applies a force to the side end of the soft board clip 17, so that the two ends of the soft board clip 17 can be bent. After the soft board clip 17 is bent, the soft board clip 17 can better fit the surface of the cable, increase the contact surface, and make the clamping and fixation more stable.

[0047] The examples of the present invention are given for the purpose of illustration and description, and are not intended to be exhaustive or to limit the invention to the disclosed forms. Many modifications and variations will be apparent to those of ordinary skill in the art. The embodiments are selected and described in order to better illustrate the principles and practical applications of the present invention and to enable those of ordinary skill in the art to understand the present invention and to design various embodiments with various modifications suitable for specific uses.

Claims

1. A cable clamp auxiliary installation fixture, comprising two channel steel frames (11), precision-rolled threaded steel (12), a hand chain hoist (13), and a hand chain (14), characterized in that: Each of the two side ends of the channel steel frame (11) is provided with a butt-sliding adjustment frame (15), and each of the side ends of the adjustment frame (15) is provided with an adjustment component, and each of the adjustment components comprises a threaded push rod (18), a butt-sliding compression rod (19), a sliding sleeve (21), and a meshing gear (22). The top of each of the adjustment frames (15) is provided with a vertically sliding adjustment rotary sliding round rod (27), and the top of each of the adjustment rotary sliding round rods (27) is fixedly installed with two straight bar fixing members (28), and each of the straight bar fixing members (28) is symmetrically arranged and installed on the top of the adjustment rotary sliding round rod (27). The bottom of each of the straight bar fixing members (28) is provided with a sliding component, and each of the sliding components comprises a sliding bar holder (29), a deflection measurement bar (31), and a guide frame (32).

2. A cable clamp auxiliary installation fixture as claimed in claim 1, characterized in that: The end of each threaded push rod (18) is rotatably connected to the inside of the channel steel frame (11), the side end of each threaded push rod (18) is butted and slidably connected to the sliding sleeve (21), the end of each sliding sleeve (21) is fixedly connected to the top end of the butt compression rod (19), and a compression spring is arranged inside each butt compression rod (19).

3. A cable clamp auxiliary installation fixture as claimed in claim 1, characterized in that: The top of each adjusting frame (15) is provided with a supporting slider (25) for horizontal sliding, the interior of each supporting slider (25) is fixedly installed with a fixing sleeve (33) for slidingly docking with the adjusting rotary sliding round rod (27), and the surface of each adjusting rotary sliding round rod (27) is fixedly installed with a docking ring (26) for slidingly docking with the supporting slider (25).

4. A cable clamp auxiliary installation fixture as claimed in claim 1, characterized in that: The surface of the fine-rolled threaded steel (12) is designed as a threaded steel bar. The fine-rolled threaded steel (12) passes through the interior of the adjustment frame (15) and is rotatably connected to the adjustment frame (15). The two ends of the hand chain hoist (13) are provided with hooks. Two caliper bars (16) for docking guidance are fixedly installed on the two side ends of each of the channel steel frames (11). Two vertically arranged stiffening plates (24) are provided inside each of the channel steel frames (11).

5. A cable clamp auxiliary installation fixture as claimed in claim 1, characterized in that: A soft plate clip (17) for fitting cables is fixedly mounted at the bottom end of each channel steel frame (11), two side ends of each soft plate clip (17) are rotatably mounted with two synchronously deflected linkage push rods (23), and each soft plate clip (17) is made of rubber.

6. A cable clamp auxiliary installation fixture as claimed in claim 1, characterized in that: Two symmetrical sliding engagement blocks (35) are fixedly mounted on the surface of each adjusting rotary sliding round rod (27), and a sliding torque block (36) for connecting and sliding is fixedly mounted on the bottom end of each adjusting rotary sliding round rod (27).

7. A cable clamp auxiliary installation fixture as claimed in claim 6, characterized in that: A double-ended reset spring rod (37) compressed at both ends is fixedly mounted on the bottom end of each sliding torque block (36), and a guide frame (32) that is slidably docked with the sliding torque block (36) is fixedly mounted on the bottom end of each double-ended reset spring rod (37).

8. A cable clamp auxiliary installation fixture as claimed in claim 7, characterized in that: A gear ring is fixedly mounted on the end of each guide frame (32), and the end of each guide frame (32) and the meshing gear (22) are mutually engaged for transmission.

9. A cable clamp auxiliary installation fixture as claimed in claim 3, characterized in that: Two arc-shaped positioning blocks (34) that fit the adjusting rotating and sliding round rod (27) are symmetrically mounted on the inner side wall of each of the fixing sleeves (33), and a slot for fixing and adjusting the angle of the rotating and sliding round rod (27) is provided at the bottom end of each of the arc-shaped positioning blocks (34).

10. The cable clamp auxiliary installation fixture as claimed in claim 1, characterized in that: The side end of each guide frame (32) fits the adjustment frame (15) for sliding, each slide bar holder (29) and the deflection measurement bar (31) are hinged mechanisms, and each slide bar holder (29) and the deflection measurement bar (31) rotate relative to each other.