A tube mother telescopic wire clamp

Abstract

This invention relates to a telescopic cable clamp for a conduit. It solves the problems of existing conduit cable clamps failing to meet long-stroke sliding requirements and exhibiting poor connection stability. It includes a clamp body, a clamp cover plate connected to the lower end of the clamp body, and a clamping cavity formed between the clamp cover plate and the inner circumferential side of the clamp body. A sliding rotating rod assembly is connected to one end of the clamp body, and a guide plate structure is provided at one end of the sliding rotating rod assembly. The outer walls of both sides of the guide plate structure are connected to the bottom of the sliding rotating rod assembly via support components. A pin connection structure for sliding positioning of the sliding rotating rod assembly is provided on the guide plate structure, and an aluminum wire is passed through the upper end of the guide plate structure. The end of the aluminum wire away from the guide plate structure is inserted into the clamp body. An elastic positioning mechanism for the wire is provided on the upper surface of the clamp body. The advantages of this invention are: providing a long sliding stroke and sliding redundancy, and improving the connection stability between the conduit and the aluminum wire.

Description

Technical Field

[0001] This invention relates to the field of power tool technology, and more specifically to a manhole telescopic clamp. Background Art

[0002] With economic development, the demand for electricity in industrialized regions is increasing. To meet the requirements of large-scale power transmission, power transmission lines have adopted tubular busbars capable of carrying high currents. The corona effect is a persistent problem in power transmission. Under certain meteorological conditions, voltage, phase-to-phase distance, and layout, the corona critical voltage is mainly affected by the conductor radius and surface roughness coefficient; that is, the larger the conductor radius and the smoother the surface, the smaller the corona effect. Therefore, using large-diameter aluminum alloy tubular busbars is an effective measure to reduce corona radio interference levels.

[0003] To achieve remote transmission, multiple busbars need to be connected, and the jumpers at the busbar connections generally use telescopic flexible connectors. These connectors consist of two busbar clamps connected by 6-8 small-section steel core stranded wires to reduce weight and ensure a continuous and uniform distribution of the electromagnetic field, preventing electromagnetic distortion. Currently, the multiple steel / aluminum core stranded wires of the busbar clamps are arranged parallel and equidistantly. The two outer stranded wires tend to overheat during use. Over long-term use, uneven temperature distribution within the clamp body can lead to changes in mechanical properties, reducing its lifespan. In severe cases, sudden breakage can cause power outages. Furthermore, existing busbar clamps cannot meet the long-stroke sliding requirements of busbars under the prolonged high-temperature and low-temperature conditions of substations, and the connection stability cannot be guaranteed during these processes.

[0004] To address the shortcomings of existing technologies, people have conducted long-term explorations and proposed various solutions. For example, Chinese patent literature discloses a tube-mounted telescopic clamp, application number 200710019842.1, which comprises a pair of bodies with tube grooves, a cover plate connected to the bodies, and several elastic strands connected to the bodies. The elastic strands between the bodies are arranged in an arc shape along the axial section of the bodies, and the several elastic strands are arranged in a fan shape on the radial section of the bodies. The distance between the core of each strand and the axis of the tube groove of the body is equal.

[0005] The above solution has solved the problem to some extent that the outer stranded wire of the busbar clamp is prone to overheating and affecting its mechanical properties in the existing technology. However, the solution still has many shortcomings. For example, it is difficult to meet the long-stroke sliding requirements of the busbar when it is thermally expanded and contracted in a high temperature difference environment, and the connection stability of the busbar cannot be guaranteed during the thermal expansion and contraction process. Summary of the Invention

[0006] The purpose of this invention is to address the above-mentioned problems by providing a retractable manhole clamp.

[0007] To achieve the above objectives, the present invention adopts the following technical solution: a telescopic clamp for a conduit, comprising a clamp body, a clamp cover plate connected to the lower end of the clamp body, a clamping cavity formed between the clamp cover plate and the inner circumferential side of the clamp body, a sliding rotating rod assembly connected to one end of the clamp body, a drain plate structure provided at the end of the sliding rotating rod assembly away from the clamp body, and the outer walls on both sides of the drain plate structure being connected to the bottom of the sliding rotating rod assembly through a support assembly and providing support for the sliding rotating rod assembly, a pin connection structure for sliding positioning of the sliding rotating rod assembly passing through the drain plate structure, and an aluminum wire passing through the upper end of the drain plate structure, the end of the aluminum wire away from the drain plate structure being inserted into the clamp body, and a wire elastic positioning mechanism provided on the upper surface of the clamp body.

[0008] In the aforementioned type of telescopic clamp, the clamp body and the clamp cover are symmetrically arranged in an arc shape. The clamp body has upper connecting seats on both sides, and the upper connecting seats are provided with several locking screws. The clamp cover has lower connecting seats on both sides, and the lower connecting seats are provided with several threaded locking holes that correspond one-to-one with the locking screws. The clamp cover has a top pressure groove on its circumferential inner wall, and an elastic compression rubber pad extending along the circumferential inner wall of the clamp cover is connected to the top pressure groove through a top pressure spring.

[0009] In the aforementioned type of telescopic cable clamp, the sliding rotating rod assembly includes a sliding rotating connecting rod. One end of the sliding rotating connecting rod is provided with a connecting plate frame, and the connecting plate frame is circumferentially connected to the connecting tail of one end of the clamp body by several connecting bolts. The connecting tail is provided with a plug-in connection hole at its axis, and the connecting plate frame is provided with a positioning plug corresponding to the plug-in connection hole at its axis. The other end of the sliding rotating connecting rod is provided with a strip-shaped sliding stroke hole.

[0010] In the aforementioned type of manhole telescopic clamp, the drain plate structure includes symmetrically arranged drain plate bodies. The inner wall of the drain plate body is provided with a wire guide seat through a telescopic adjustment seat. The wire guide seat is provided with several wire holes. The wire guide seats located on the two drain plate bodies are staggered and the wire holes on the two wire guide seats correspond one-to-one.

[0011] In the aforementioned type of telescopic clamp for a conduit, the pin connection structure includes a sliding rotation positioning pin. The sliding rotation positioning pin is slidably disposed in a strip-shaped sliding through hole on the main body of the diversion plate. The sliding rotation positioning pin passes through a strip-shaped sliding stroke hole at one end of the sliding rotation connecting rod, thereby forming a sliding rotation positioning for the sliding rotation connecting rod. Both ends of the sliding rotation positioning pin are located on the outer wall of the main body of the diversion plate and are locked by pins.

[0012] In the aforementioned type of manhole telescopic clamp, the support assembly includes a strip-shaped lifting adjustment hole longitudinally disposed on the main body of the diversion plate. A lifting slide rod is disposed in the strip-shaped lifting adjustment hole, and a telescopic connecting rod is rotatably disposed at one end of the lifting slide rod located on the inner wall of the main body of the diversion plate. The end of the telescopic connecting rod away from the lifting slide rod is rotatably connected to a rotating connecting seat disposed at the bottom of the sliding rotating connecting rod. A position adjustment groove for the rotating connecting seat to slide is disposed at the bottom of the sliding rotating connecting rod.

[0013] In the aforementioned type of manhole telescopic clamp, the main body of the drain plate is provided with vertically arranged locking holes on both sides of the strip-shaped lifting adjustment hole. Locking shafts are provided in the locking holes, and the locking shafts in the two locking holes are connected by a synchronous connecting rod. The locking shafts are connected to the lifting slide rod through a positioning support rod.

[0014] In the aforementioned type of telescopic clamp, the elastic positioning mechanism for the conductor includes a damping rotating shaft disposed at one end of the clamp body. Both ends of the damping rotating shaft are connected to flexible support seats arranged in an arc shape via support plate frames. The aluminum conductor is positioned on the flexible support seats by a number of adjustable plug-in rings.

[0015] In the above-mentioned type of telescopic clamp, the upper end face of the clamp body is provided with a support positioning seat, a flexible ball is positioned inside the support positioning seat, the upper end face of the flexible ball is connected to an arc-shaped positioning seat, the upper end face of the arc-shaped positioning seat has a positioning groove for positioning the aluminum wire, the aluminum wire is embedded in the positioning groove, and the two ends of the arc-shaped positioning seat are provided with limit frame plates.

[0016] In the above-mentioned type of telescopic clamp, a guide positioning ring is provided at one end of the clamp body. The guide positioning ring is circumferentially arranged with several wire positioning through holes. The aluminum wire passes through the wire positioning through holes and extends toward the clamping cavity.

[0017] Compared with the prior art, the advantages of this invention are as follows: the strip-shaped sliding stroke hole on the sliding rotating link, together with the sliding rotating positioning pin of the plug connection structure, forms a linear sliding channel between the sliding rotating link and the diversion plate structure, providing a long sliding stroke when the busbar in the clamping cavity expands and contracts due to heat; at the same time, the lifting slide rod in the support assembly can rise and fall along the strip-shaped lifting adjustment hole of the diversion plate body, and the telescopic link cooperates with the rotating connecting seat at the bottom of the sliding rotating link, which can help adapt to the angle and position changes of the clamp body during the sliding process, further expanding the sliding range and effectively meeting the need for the clamp body to slide for a long stroke when the busbar expands and contracts due to heat; at the same time, the wire guide seats are staggered and the wire guide holes correspond to ensure the stability of the aluminum wire insertion, the damping rotating shaft, the flexible support seat and the adjustable plug ring can elastically adapt to the position changes of the aluminum wire, and the flexible ball and the arc-shaped positioning seat form a buffer positioning for the aluminum wire through the positioning groove, avoiding the aluminum wire from breaking or loosening due to expansion and contraction, effectively improving the connection stability. Attached Figure Description

[0018] Figure 1 This is a cross-sectional view of the overall structure of the present invention;

[0019] Figure 2 This is a schematic diagram of the wire clamp body structure in this invention;

[0020] Figure 3 This is a top view of the wire clamp body in this invention;

[0021] Figure 4 This is a cross-sectional view of the end of the wire clamp body in this invention;

[0022] Figure 5 This is a schematic diagram of the main structure of the drainage plate in this invention;

[0023] Figure 6 This is a schematic diagram of the position of the telescopic adjustment seat in this invention;

[0024] Figure 7 This is a schematic diagram of the sliding rotation linkage structure in this invention;

[0025] Figure 8 This is a schematic diagram of the arc-shaped positioning seat structure in this invention.

[0026] In the diagram: 1. Wire clamp body; 11. Upper connecting seat; 12. Locking screw; 13. Guide positioning ring; 14. Wire positioning through hole; 2. Wire clamp cover plate; 21. Lower connecting seat; 22. Threaded locking hole; 23. Top pressure groove; 24. Elastic compression rubber pad; 3. Sliding rotating rod assembly; 31. Sliding rotating connecting rod; 32. Connecting plate frame; 33. Connecting bolt; 34. Connecting tail; 35. Insertion connection hole; 36. Positioning insert rod; 37. Strip-shaped sliding stroke hole; 4. Drainage plate structure; 41. Drainage plate body; 42. Wire guide seat; 43. Wire guide hole; 5. Support assembly; 6. Strip 51. Lifting adjustment hole, 52. Lifting slide bar, 53. Telescopic connecting rod, 54. Rotary connecting seat, 55. Position adjustment groove, 56. Locking hole, 57. Locking shaft, 58. Synchronous connecting rod, 59. Positioning support rod, 6. Pin connection structure, 61. Sliding rotating positioning pin, 62. Strip sliding through hole, 7. Aluminum wire, 8. Wire elastic positioning mechanism, 81. Damping rotating shaft, 82. Support plate frame, 83. Flexible support seat, 84. Adjustable plug-in ring, 9. Support positioning seat, 91. Flexible ball, 92. Arc-shaped positioning seat, 93. Positioning groove, 94. Limiting frame plate. Detailed Implementation

[0027] The present invention will now be described in further detail with reference to the accompanying drawings and specific embodiments.

[0028] like Figure 1-8As shown, a telescopic cable clamp includes a cable clamp body 1, a cable clamp cover plate 2 connected to the lower end of the cable clamp body 1, and a clamping cavity formed between the cable clamp cover plate 2 and the inner circumferential side of the cable clamp body 1. A sliding rotating rod assembly 3 is connected to one end of the cable clamp body 1. A flow guide plate structure 4 is provided at the end of the sliding rotating rod assembly 3 away from the cable clamp body 1. The outer walls on both sides of the flow guide plate structure 4 are connected to the bottom of the sliding rotating rod assembly 3 through a support assembly 5 and provide support for the sliding rotating rod assembly 3. A pin connection structure 6 for sliding positioning of the sliding rotating rod assembly 3 is provided on the flow guide plate structure 4. An aluminum wire 7 is provided at the upper end of the flow guide plate structure 4. The end of the aluminum wire 7 away from the flow guide plate structure 4 is inserted into the cable clamp body 1. An elastic positioning mechanism 8 for the wire is provided on the upper surface of the cable clamp body 1.

[0029] The clamp body 1 and the clamp cover plate 2 are symmetrically arranged in an arc shape. The clamp body 1 has upper connecting seats 11 on both sides, and several locking screws 12 are provided on the upper connecting seats 11. The clamp cover plate 2 has lower connecting seats 21 on both sides, and several threaded locking holes 22 are provided on the lower connecting seats 21, which correspond one-to-one with the locking screws 12. The clamp cover plate 2 has a top pressure groove 23 on its circumferential inner wall, and an elastic compression rubber pad 24 extending along the circumferential inner wall of the clamp cover plate 2 is connected to the top pressure groove 23 by a top pressure spring.

[0030] The clamping cavity is used to fix the busbar, and the aluminum conductor 7 passes through the conductor positioning through hole 14 and is connected to the busbar.

[0031] The top pressure spring drives the elastic compression rubber pad 24 elastic top pressure tube busbar to maintain stable clamping during thermal expansion and contraction, preventing loosening and thus improving connection stability.

[0032] As can be seen, the sliding rotating rod assembly 3 includes a sliding rotating connecting rod 31. One end of the sliding rotating connecting rod 31 is provided with a connecting plate frame 32, and the connecting plate frame 32 is circumferentially connected to the connecting tail 34 at one end of the wire clamp body 1 by a number of connecting bolts 33. The connecting tail 34 is provided with a plug-in connecting hole 35 at its axial center, and the connecting plate frame 32 is provided with a positioning plug 36 corresponding to the plug-in connecting hole 35 at its axial center. The other end of the sliding rotating connecting rod 31 is provided with a strip-shaped sliding stroke hole 37.

[0033] When the tube busbar, which is positioned at one end in the clamping cavity, expands and contracts due to heat, its length changes. This causes the sliding rotation positioning pin 61 to slide in the strip-shaped sliding through hole 62, achieving initial stroke adjustment. Secondly, when the sliding rotation positioning pin 61 slides to its maximum stroke in the strip-shaped sliding through hole 62, the sliding rotation connecting rod 31 continues to slide along the sliding rotation positioning pin 61, achieving secondary stroke adjustment. This effectively increases the redundancy formed by sliding and improves the sliding range.

[0034] Obviously, the drainage plate structure 4 includes a drainage plate body 41 arranged symmetrically. The inner wall of the drainage plate body 41 is provided with a wire guide seat 42 through a telescopic adjustment seat. The wire guide seat 42 is provided with a plurality of wire holes 43. The wire guide seats 42 located on the two drainage plate bodies 41 are staggered and the wire holes 43 on the two wire guide seats 42 correspond one to one.

[0035] The staggered position of the wire guide seat 42 can be moved by the telescopic adjustment seat, thereby changing the intersection range of the corresponding wire guide holes 43 on the two wire guide seats 42, thus achieving the clamping of the aluminum wire 7.

[0036] Furthermore, the pin connection structure 6 includes a sliding rotation positioning pin 61, which is slidably disposed in the strip-shaped sliding through hole 62 on the main body 41 of the diversion plate. The sliding rotation positioning pin 61 passes through the strip-shaped sliding stroke hole 37 at one end of the sliding rotation connecting rod 31 to form a sliding rotation positioning of the sliding rotation connecting rod 31. Both ends of the sliding rotation positioning pin 61 are located on the outer wall of the main body 41 of the diversion plate and are locked by pins.

[0037] Specifically, the support component 5 includes a strip-shaped lifting adjustment hole 51 longitudinally arranged on the diversion plate body 41. A lifting slide rod 52 is provided in the strip-shaped lifting adjustment hole 51, and a telescopic connecting rod 53 is rotatably provided at one end of the lifting slide rod 52 located on the inner wall of the diversion plate body 41. The end of the telescopic connecting rod 53 away from the lifting slide rod 52 is rotatably connected to a rotating connecting seat 54 provided at the bottom of the sliding rotating connecting rod 31. A position adjustment groove 55 is provided at the bottom of the sliding rotating connecting rod 31 for the rotating connecting seat 54 to slide.

[0038] The lifting slide bar 52 can slide up and down within the strip-shaped lifting adjustment hole 51 to adapt to the rotation angle adjustment requirements of the sliding rotation rod assembly 3. The telescopic connecting rod 53 provides flexible support adjustment according to the sliding of the sliding rotation connecting rod 31, better supporting the sliding rotation connecting rod 31. The locking shaft 57 in the locking holes 56 on both sides of the strip-shaped lifting adjustment hole 51 on the main body of the diversion plate 41 is connected by the synchronous connecting rod 58 to achieve synchronous movement. The locking shaft 57 is connected to the lifting slide bar 52 through the positioning support rod 59. When the lifting slide bar 52 is adjusted to a suitable position, it can be fixed by the locking shaft 57 to ensure the stability of the support.

[0039] Furthermore, the main body 41 of the diversion plate is provided with vertically arranged locking holes 56 on both sides of the strip-shaped lifting adjustment hole 51. Locking shafts 57 are provided in the locking holes 56, and the locking shafts 57 in the two locking holes 56 are connected by a synchronous connecting rod 58. The locking shafts 57 are connected to the lifting slide rod 52 through a positioning support rod 59.

[0040] More specifically, the wire elastic positioning mechanism 8 includes a damping rotating shaft 81 disposed at one end of the wire clamp body 1. Both ends of the damping rotating shaft 81 are connected to arc-shaped flexible support seats 83 via support plate frames 82. The aluminum wire 7 is positioned on the flexible support seats 83 by a number of adjustable plug-in rings 84.

[0041] The adjustable plug ring 84 positions the aluminum wire 7, and the damping rotation shaft 81 can be adjusted according to the bending angle of the aluminum wire 7 to ensure a close fit support.

[0042] In detail, the upper end face of the clamp body 1 is provided with a support positioning seat 9, a flexible ball 91 is positioned inside the support positioning seat 9, an arc-shaped positioning seat 92 is connected to the upper end face of the flexible ball 91, the upper end face of the arc-shaped positioning seat 92 has a positioning groove 93 for positioning the aluminum wire 7, the aluminum wire 7 is embedded in the positioning groove 93, and limit frame plates 94 are provided at both ends of the arc-shaped positioning seat 92.

[0043] The flexible ball 91 inside the positioning seat 9 on the upper end face of the clamp body 1 can rotate flexibly, driving the arc-shaped positioning seat 92 to adjust the angle. The positioning groove 93 on the upper end face of the arc-shaped positioning seat 92 positions the aluminum wire 7, and the limiting frame plates 94 at both ends prevent the aluminum wire 7 from falling off, further ensuring the connection stability of the aluminum wire 7 during the thermal expansion and contraction process of the busbar.

[0044] Preferably, a guide positioning ring 13 is provided at one end of the wire clamp body 1. The guide positioning ring 13 is circumferentially arranged with a plurality of wire positioning through holes 14. The aluminum wire 7 passes through the wire positioning through holes 14 and extends toward the clamping cavity.

[0045] In summary, the principle of this embodiment is as follows: the busbar is clamped and fixed by the arc-shaped clamping of the clamp body 1 and the clamp cover plate 2 and the elastic pressing of the elastic pressing rubber pad 24. The sliding rotating rod assembly 3, together with the pin connection structure 6, realizes long-stroke sliding and rotation as well as sliding stroke redundancy. Secondly, the support assembly 5 realizes stable support for the sliding rotating connecting rod 31 during the sliding and angle adjustment process. The aluminum wire 7 is connected by the diversion plate structure 4 and is positioned by multiple mechanisms such as the wire elastic positioning mechanism 8 to ensure smooth sliding and stable connection when the busbar expands and contracts with heat.

[0046] The specific embodiments described herein are merely illustrative of the spirit of the invention. Those skilled in the art to which this invention pertains may make various modifications or additions to the described specific embodiments or use similar methods to substitute them, without departing from the spirit of the invention or exceeding the scope defined by the appended claims.

[0047] Although this article extensively uses the following components: clamp body 1, upper connecting seat 11, locking screw 12, guide positioning ring 13, wire positioning through hole 14, clamp cover plate 2, lower connecting seat 21, threaded locking hole 22, top pressure groove 23, elastic compression rubber pad 24, sliding rotating rod assembly 3, sliding rotating connecting rod 31, connecting plate frame 32, connecting bolt 33, connecting tail 34, plug-in connecting hole 35, positioning plug rod 36, strip-shaped sliding stroke hole 37, diversion plate structure 4, diversion plate body 41, wire guide seat 42, wire guide hole 43, support assembly 5, and strip-shaped lifting adjustment hole 51. Lifting slide bar; 52. Telescopic connecting rod; 53. Rotary connecting seat; 54. Position adjustment groove; 55. Locking hole; 56. Locking shaft; 57. Synchronous connecting rod; 58. Positioning support rod; 59. Pin connection structure; 6. Sliding rotating positioning pin shaft; 61. Strip sliding through hole; 62. Aluminum wire; 7. Wire elastic positioning mechanism; 8. Damping rotating shaft; 81. Support plate frame; 82. Flexible support seat; 83. Adjustable plug-in ring body; 84. Support positioning seat; 9. Flexible ball; 91. Arc-shaped positioning seat; 92. Positioning groove; 93. Limiting frame plate, etc. However, the possibility of using other terms is not excluded. These terms are used merely for the convenience of describing and explaining the essence of the invention; interpreting them as any additional limitation would contradict the spirit of the invention.

Claims

1. A telescopic cable clamp for a conduit, comprising a clamp body (1), wherein a clamp cover plate (2) is connected to the lower end of the clamp body (1), and a clamping cavity is formed between the clamp cover plate (2) and the inner circumferential side of the clamp body (1), characterized in that, The wire clamp body (1) is connected to a sliding rotating rod assembly (3) at one end. The sliding rotating rod assembly (3) is provided with a diversion plate structure (4) at the end away from the wire clamp body (1). The outer walls on both sides of the diversion plate structure (4) are connected to the bottom of the sliding rotating rod assembly (3) through a support assembly (5) and support the sliding rotating rod assembly (3). A pin connection structure (6) for sliding positioning of the sliding rotating rod assembly (3) is provided on the diversion plate structure (4). An aluminum wire (7) is provided on the upper end of the diversion plate structure (4). The end of the aluminum wire (7) away from the diversion plate structure (4) is inserted into the wire clamp body (1). The upper surface of the wire clamp body (1) is provided with a wire elastic positioning mechanism (8). The drainage plate structure (4) includes a drainage plate body (41) arranged symmetrically. The inner wall of the drainage plate body (41) is provided with a wire guide seat (42) through a telescopic adjustment seat. The wire guide seat (42) is provided with a plurality of wire holes (43). The wire guide seats (42) located on the two drainage plate bodies (41) are staggered and the wire holes (43) on the two wire guide seats (42) correspond one to one. The support component (5) includes a strip-shaped lifting adjustment hole (51) longitudinally arranged on the main body (41) of the diversion plate. A lifting slide rod (52) is provided in the strip-shaped lifting adjustment hole (51), and a telescopic connecting rod (53) is rotatably provided at one end of the lifting slide rod (52) located on the inner wall of the main body (41). The end of the telescopic connecting rod (53) away from the lifting slide rod (52) is rotatably connected to a rotating connecting seat (54) provided at the bottom of the sliding rotating connecting rod (31). A position adjustment groove (55) is provided at the bottom of the sliding rotating connecting rod (31) for the rotating connecting seat (54) to slide.

2. The telescopic clamp for a conduit according to claim 1, characterized in that, The clamp body (1) and clamp cover plate (2) are symmetrically arranged in an arc shape. The clamp body (1) has upper connecting seats (11) on both sides, and a number of locking screws (12) are provided on the upper connecting seats (11). The clamp cover plate (2) has lower connecting seats (21) on both sides, and a number of threaded locking holes (22) are provided on the lower connecting seats (21) corresponding to the locking screws (12). The clamp cover plate (2) has a top pressure groove (23) on its circumferential inner wall, and an elastic compression rubber pad (24) extending along the circumferential inner wall of the clamp cover plate (2) is connected to the top pressure groove (23) by a top pressure spring.

3. The telescopic clamp for a conduit according to claim 1, characterized in that, The sliding rotating rod assembly (3) includes a sliding rotating connecting rod (31). One end of the sliding rotating connecting rod (31) is provided with a connecting plate frame (32), and the connecting plate frame (32) is circumferentially connected to the connecting tail (34) of one end of the wire clamp body (1) by a number of connecting bolts (33). The connecting tail (34) is provided with a plug-in connecting hole (35) on its axis, and the connecting plate frame (32) is provided with a positioning plug (36) corresponding to the plug-in connecting hole (35) on its axis. The other end of the sliding rotating connecting rod (31) is provided with a strip-shaped sliding stroke hole (37).

4. The telescopic clamp for a conduit according to claim 1, characterized in that, The pin connection structure (6) includes a sliding rotation positioning pin (61). The sliding rotation positioning pin (61) is slidably disposed in the strip-shaped sliding through hole (62) on the main body of the diversion plate (41). The sliding rotation positioning pin (61) passes through the strip-shaped sliding stroke hole (37) at one end of the sliding rotation connecting rod (31) to form a sliding rotation positioning for the sliding rotation connecting rod (31). Both ends of the sliding rotation positioning pin (61) are located on the outer wall of the main body of the diversion plate (41) and are locked by pins.

5. A telescopic clamp for a conduit according to claim 1, characterized in that, The main body (41) of the diversion plate is provided with vertically arranged locking holes (56) on both sides of the strip-shaped lifting adjustment hole (51). The locking holes (56) are provided with locking shafts (57), and the locking shafts (57) in the two locking holes (56) are connected by a synchronous connecting rod (58). The locking shafts (57) are connected to the lifting slide rod (52) through a positioning support rod (59).

6. A telescopic clamp for a conduit according to claim 1, characterized in that, The wire elastic positioning mechanism (8) includes a damping rotating shaft (81) set at one end of the wire clamp body (1). Both ends of the damping rotating shaft (81) are connected to flexible support seats (83) arranged in an arc shape through support plate frame (82). The aluminum wire (7) is positioned on the flexible support seat (83) by a number of adjustable plug-in rings (84).

7. A telescopic clamp for a conduit according to claim 6, characterized in that, The upper end face of the wire clamp body (1) is provided with a support positioning seat (9), and a flexible ball (91) is positioned inside the support positioning seat (9). The upper end face of the flexible ball (91) is connected to an arc-shaped positioning seat (92). The upper end face of the arc-shaped positioning seat (92) has a positioning groove (93) for positioning the aluminum wire (7). The aluminum wire (7) is embedded in the positioning groove (93), and limit frame plates (94) are provided at both ends of the arc-shaped positioning seat (92).

8. A telescopic clamp for a conduit according to claim 2, characterized in that, The wire clamp body (1) is provided with a guide positioning ring (13) at one end. The guide positioning ring (13) is provided with a number of wire positioning through holes (14) arranged around its circumference. The aluminum wire (7) passes through the wire positioning through holes (14) and extends toward the clamping cavity.

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