A supporting mechanism for cable installation

Abstract

The present invention provides a support mechanism for cable installation, belonging to the field of cable installation technology. The mechanism comprises an assembly shell and a pair of assembly supports fixedly attached to the sides of the assembly shell in mirror-image configuration. The heads of the assembly supports are equipped with four locking claws, with two adjacent locking claws arranged in mirror-image configuration. Assembly plates are installed on both sides of the assembly shell, with recessed openings reserved on the sides of the assembly plates for the assembly shell to be constrained and engaged. The present invention solves the problem of having to adjust each locking structure during cable installation, making it difficult to ensure uniform locking force for each locking structure, and the problem of inefficient assembly due to the need to adjust each locking structure individually when the cable span is large.

Description

Technical Field

[0001] The invention belongs to the technical field of cable installation, and in particular relates to a supporting mechanism for cable installation. Background Art

[0002] Cables include power cables, control cables, compensation cables, shielded cables, high-temperature cables, computer cables, signal cables, coaxial cables, fire-resistant cables, marine cables, mining cables, aluminum alloy cables, etc. They are all composed of single or multi-strand wires and insulation layers, and are used to connect circuits, electrical appliances, etc. Cables can be divided into DC cables and AC cables according to the system of photovoltaic power stations. During the use and routing of cables, the structural support must be locked and stable.

[0003] Currently, during cable assembly, several locking support structures must be used to support the cables in various positions. During cable locking, each locking structure must be adjusted, which makes it difficult to ensure that the locking force of each locking structure is the same. In addition, the cable span is large, and each locking structure must be adjusted individually, which makes assembly inefficient. Therefore, a support mechanism for cable installation is proposed. Summary of the Invention

[0004] The present invention provides a supporting mechanism for cable installation, which aims to solve the problem that during cable locking, each locking structure must be adjusted, it is difficult to ensure that the locking force of each locking structure is the same, and the cable span is large, each locking structure must be adjusted separately, and the assembly is not efficient enough.

[0005] An embodiment of the present invention provides a supporting mechanism for cable installation, comprising an assembly shell and a pair of assembly supports fixedly connected to the sides of the assembly shell in mirror-image configuration. The heads of the assembly supports are provided with four locking claws, with two adjacent locking claws being provided in mirror-image configuration. Assembly plates are provided on both sides of the assembly shell, and the edges of the assembly plates have recessed openings reserved for the assembly shell to be constrained and engaged.

[0006] It also includes a locking assembly, used to allow the locking claw to lock the outer wall of the cable, and the locking assembly is arranged inside the assembly support;

[0007] A sliding separation assembly is used to achieve the purpose of rapid separation of the locking claws, and the sliding separation assembly is installed inside the assembly support;

[0008] The restraint assembly is used to secure the locking claw to the locking cable, and the restraint assembly is arranged inside the locking claw.

[0009] Furthermore, the locking assembly includes a rotating rod screwed into the assembly support, the bottom of the locking claw is fixedly connected to the displacement stage 1, the inside of the assembly support is reserved for a displacement cavity for constraining the sliding of the displacement stage 1, the outer wall of the rotating rod is reserved with screw threads that are respectively adapted to the four displacement stages one by one, and the screw threads close to each other are arranged in a mirror image, the inside of the locking claw is fixedly connected to a plurality of proportionally arranged arched compression plates, the rotating rod extends into the inside of the assembly shell, and the end of the rotating rod closer to the assembly shell is fixedly connected to A linkage wheel, a conveyor belt is installed between the two linkage wheels, a fixed connection piece is installed between the two assembly supports, the fixed connection piece is located at the end of the assembly support farther from the assembly shell, the end of the rotating rod farther from the linkage wheel extends to the side of the fixed connection piece, the end of the rotating rod closer to the fixed connection piece is fixedly connected to the embedded rod, the embedded rod is a hexagonal structure, and an operating handle that can be spliced ​​and connected is installed on the outer wall of the embedded rod, both ends of the fixed connection piece are fixedly connected to side pieces, and the side pieces are fixedly connected to the assembly support via fasteners.

[0010] Furthermore, the sliding separation assembly includes two arched pieces installed inside the first displacement stage, the two arched pieces are mirror-mounted on both sides of the rotating rod, a displacement chamber is reserved inside the first displacement stage for the arched piece to constrain the sliding, both ends of the arched piece are fixedly connected to the second displacement stage, and two traction rods adapted to the second displacement stage are installed at both ends of the arched piece, both ends of the traction rod are rotatably installed inside the displacement chamber, and one end of the traction rod is fixedly connected to the disc body. 1. An adjustment rod that penetrates the first displacement stage is installed between the four disk bodies. Opposite surfaces of the two assembly supports are reserved with through holes for constraining the sliding of the adjustment rod. The end of the through hole closer to the fixed connection piece is an open structure. The end of the adjustment rod closer to the first disk body is fixedly connected to the second disk body. The second disk body and the four first disk bodies are all engaged and connected. The inside of the arched piece is fixedly connected to a threaded sleeve that adapts to the threads on the rotating rod. A friction rotating sleeve is fixedly connected between the two adjustment rods.

[0011] Furthermore, the constraint assembly includes an assembly chamber reserved in the locking claw, a connecting rod is installed in the assembly chamber, and a plurality of spheres arranged in proportion are installed on the outer wall of the connecting rod, the spheres and the inside of the assembly chamber fit together, and one end of the connecting rod is rotatably installed with an embedding table that fits together with the inside of the assembly chamber, and the two locking claws close to each other are both reserved with embedding openings for the embedding table to constrain the embedding connection, and the end of the connecting rod farther from the embedding table is fixedly connected to the driving plate, and the driving plate The driving rod is fixedly connected to the bottom, and the sliding platform displaced and installed on the side of the driving rod is fixedly connected to the inside of the assembly chamber. An elastic part is fixedly connected between the sliding platform and the driving plate. The end of the driving rod farther from the driving plate is fixedly connected to the top contact platform. Two mirror-mounted top contact rods are installed between the two locking claws. The two ends of the top contact rods and the two sides of the top contact platform are slope structures that adapt to each other. The top contact rod is fixedly connected to the top of the assembly support, and sliding cavities are reserved on both sides of the locking claws to allow the top contact rod to constrain sliding.

[0012] Furthermore, the recessed opening on the assembly piece is fixedly connected to an insertion platform that is restrained and embedded in the assembly shell.

[0013] Furthermore, the side of the assembly piece closer to the assembly support is fixedly connected to the supporting rib, and the end of the supporting rib farther from the assembly piece is in contact with the bottom of the assembly support.

[0014] Furthermore, the top and bottom of the displacement chamber of the first displacement stage are fixedly connected with a compensation rod, and the side of the compensation rod and the side of the arched piece farther from the second displacement stage are in contact with each other.

[0015] Furthermore, the side of the fixing piece closer to the assembly support is fixedly connected to the stop platform, and the stop platform is embedded in the displacement cavity of the assembly support.

[0016] Furthermore, the two locking claws at the end closer to the fixed connection piece are fixedly connected to the displacement seat, and the inner side of the assembly support is fixedly connected to the constraint rod that is in a straight line with the displacement seat.

[0017] Furthermore, the end of the adjustment rod closer to the second disc body is fixedly connected to the rolling ring, and the side of the assembly support is reserved with a movement opening for the rolling ring to constrain displacement.

[0018] The beneficial effects of the present invention are:

[0019] 1. The present invention uses a locking assembly, and the operating handle is inserted into the embedded rod, which can rotate the adapted rotating rod. This rotating rod achieves the purpose of rotating the other rotating rod together through the linkage wheel and the conveyor belt, which is conducive to quickly adjusting the position of the locking claw. The four threads on the rotating rod make the two locking claws close to each other move farther away from each other or closer to each other, so that the two locking claws close to each other can lock the cable, thus achieving the purpose of quickly assembling the cable, avoiding the phenomenon of forgetting to lock, and can be more efficient.

[0020] 2. The present invention uses a sliding separation component. Rotating the friction rotating sleeve can allow the second disk on the adjustment rod to pull the four disks one to rotate together and in the same direction. The pulling rod on the disk one can make the two closer or farther away from each other. When the two arched pieces of the displacement platform two are brought closer to each other, the threaded sleeve is inserted into the threaded teeth on the rotating rod. When the rotating rod is rotated, the displacement platform one can be driven to move through the arched piece on the threaded sleeve. When the two arched pieces are farther away from each other, the friction rotating sleeve is pulled to separate the displacement platform one and the locking claw from the assembly support, thereby achieving the purpose of facilitating splicing and separation. It can also lock and assemble one or two electric cylinders, and the locking claw can be replaced according to the specifications of the cable.

[0021] 3. The present invention uses a constraint assembly to bring the two locking claws closer to each other, and the slope of the top contact platform on one of the two locking claws fits into the slope of the top contact rod, allowing the top contact platform to drive the driving piece on the driving rod to move upward, driving the ball on the connecting rod to move along the inside of the assembly chamber, allowing the embedding platform to be inserted into the embedding opening on the other locking claw, making the locking claw more secure, preventing the cable from being separated from the locking claw due to factors such as shaking, and having the ability to actively lock.

[0022] Other features and advantages of the present invention will be described in the following description, and in part will become apparent from the description, or will be understood by practicing the present invention. The purpose and other advantages of the present invention can be realized and obtained through the structures particularly pointed out in the description and the drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings:

[0024] Figure 1 Schematic diagram of the structure of an embodiment of the present invention;

[0025] Figure 2 A schematic structural diagram of an assembly shell and an assembly sheet according to an embodiment of the present invention;

[0026] Figure 3 This is a schematic structural diagram of an assembly support and a friction rotating sleeve according to an embodiment of the present invention;

[0027] Figure 4 Schematic diagram of the structure of the first displacement stage and the arched sheet according to an embodiment of the present invention;

[0028] Figure 5 This is a schematic diagram of the structure of the second translation stage and the wire connector according to an embodiment of the present invention;

[0029] Figure 6 This is a schematic diagram of the constraint component structure of an embodiment of the present invention;

[0030] Figure 7 For the embodiment of the present invention Figure 3 Schematic diagram of the structure at X;

[0031] Figure 8 For the embodiment of the present invention Figure 6 Schematic diagram of the structure at Y.

[0032] Reference numerals: 12, assembly shell; 13, assembly support; 14, locking assembly; 1412, rotating rod; 1413, translation platform 1; 1414, arched pressure piece; 1415, linkage wheel; 1416, conveyor belt; 1417, fixed piece; 1418, embedded rod; 1419, operating handle; 1420, side piece; 15, sliding separation assembly; 1512, arched piece; 1513, translation platform 2; 1514, pulling rod; 1515, disk 1; 1516, adjustment rod; 1517, disk 2; 1 518. Threaded sleeve; 1519. Friction rotary sleeve; 16. Constraint assembly; 1612. Assembly chamber; 1613. Connecting rod; 1614. Sphere; 1615. Embedding platform; 1616. Driving plate; 1617. Driving rod; 1618. Sliding platform; 1619. Elastic member; 1620. Top contact platform; 1621. Top contact rod; 17. Locking claw; 18. Assembly plate; 19. Insertion platform; 20. Support rib; 21. Offset rod; 22. Stop platform; 23. Displacement seat; 24. Constraint rod; 25. Rolling ring. DETAILED DESCRIPTION

[0033] In order to make the purpose, technical solution and advantages of the technical solution of the present invention clearer, the technical solution of the embodiment of the present invention will be clearly and completely described below in conjunction with the drawings of specific embodiments of the present invention. The same figure marks in the drawings represent the same components. It should be noted that the described embodiments are part of the embodiments of the present invention, not all of the embodiments. Based on the described embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0034] Reference Figure 1-8 An embodiment of the present invention provides a supporting mechanism for cable installation, comprising an assembly shell 12 and a pair of assembly supports 13 fixedly connected to the sides of the assembly shell 12 in a mirror-image manner. Four locking claws 17 are installed on the head of the assembly support 13. Two locking claws 17 that are close to each other and mirror-imaged form a pair. The four locking claws 17 are divided into two pairs and installed on the assembly support 13. The two locking claws 17 that are close to each other are mirror-imaged and have a curved structure.

[0035] It also includes a locking component 14, which is used to allow the locking claw 17 to lock the outer wall of the cable. The locking component 14 is installed inside the assembly support 13; a sliding separation component 15, which is used to achieve the purpose of rapid separation of the locking claw 17. The sliding separation component 15 is installed inside the assembly support 13; and a restraint component 16, which is used to allow the locking claw 17 to firmly lock the cable. The restraint component 16 is installed inside the locking claw 17.

[0036] The locking assembly 14 includes a rotating rod 1412 screwed into the assembly support 13, and the bottom of the locking claw 17 is fixedly connected to the displacement stage 1413. The assembly support 13 is reserved with a displacement cavity for constraining the sliding of the displacement stage 1413. The outer wall of the rotating rod 1412 is reserved with four threads that cooperate with each other and the four displacement stages 1413. The threads that are close to each other are arranged in a mirror image. The rotating rod 1412 pulls two of the close-to-each-other closer to each other and farther away from each other through the four threads. The inside of the locking claw 17 is fixedly connected to a number of proportionally arranged arched pressure plates 1414 for pressing the outer wall of the cable. The rotating rod 1412 extends into the inside of the assembly shell 12, and the end of the rotating rod 1412 closer to the assembly shell 12 is fixedly connected to the linkage wheel 1415, and a conveyor belt is installed between the two linkage wheels 1415. 1416, the two rotating rods 1412 are rotated together through the conveyor belt 1416 and the linkage wheel 1415, and a fixed connection piece 1417 is installed between the two assembly supports 13, and the fixed connection piece 1417 is located at the end of the assembly support 13 farther from the assembly shell 12. The end of the rotating rod 1412 farther from the linkage wheel 1415 extends to the side of the fixed connection piece 1417, and the end of the rotating rod 1412 closer to the fixed connection piece 1417 is fixedly connected to the embedded rod 1418. The embedded rod 1418 is a hexagonal structure, and the outer wall of the embedded rod 1418 is provided with a splicable operating handle 1419. The operating handle 1419 and the embedded rod 1418 constitute a separable splicing structure. Both ends of the fixed connection piece 1417 are fixedly connected to the side piece 1420, and the side piece 1420 is fixedly connected to the assembly support 13 via fasteners.

[0037] During use, the operating handle 1419 is inserted into the embedding rod 1418, and the operating handle 1419 is used to pull the adapted rotating rod 1412 to rotate, and the rotating rod 1412 pulls the linkage wheel 1415 to rotate together, so that the linkage wheel 1415 pulls the linked linkage wheel 1415 to rotate via the conveyor belt 1416, and this linkage wheel 1415 pulls the adapted rotating rod 1412 to rotate, so that the two rotating rods 1412 can rotate together, and the rotating rod 1412 pulls the four translation stages 1413 closer to and farther away from each other through the four threads, and the four translation stages 1413 are divided into two pairs, and when the two translation stages 1413 of a pair approach each other, the translation stage 1413 pulls the locking claw 17 to move together, locking and constraining the outer wall of the cable, so that the cables can be conveniently spliced ​​and separated, and the phenomenon of forgetting to lock is avoided.

[0038] The sliding separation assembly 15 includes two arched pieces 1512 installed inside the first displacement stage 1413. The two arched pieces 1512 are mirror-imaged and installed on both sides of the rotating rod 1412. The displacement chamber inside the first displacement stage 1413 is reserved for the arched pieces 1512 to constrain the sliding movement. The arched pieces 1512 can move along the displacement chamber of the first displacement stage 1413. Both ends of the arched piece 1512 are fixedly connected to the second displacement stage 1513. , two traction rods 1514 that are adapted to the second displacement platform 1513 are installed at both ends of the arched piece 1512. The traction rods 1514 can make the two arched pieces 1512 closer to or farther away from each other through the second displacement platform 1513. Both ends of the traction rods 1514 are rotatably installed inside the displacement chamber. One end of the traction rods 1514 is fixedly connected to a disk body 1515 with a plurality of teeth reserved. There are four disk bodies 1515 installed between them. An adjustment rod 1516 is provided to penetrate the first displacement stage 1413. The opposite sides of the two assembly supports 13 are provided with a through hole for the adjustment rod 1516 to constrain the sliding. The end of the through hole closer to the fixed connection piece 1417 is an open structure. The end of the adjustment rod 1516 closer to the first disk 1515 is fixedly connected to the second disk 1517 with a plurality of teeth. The second disk 1517 and the four first disks 1515 are all engaged and connected. The second member 1517 allows the traction rod 1514 connected to the four discs 1515 to rotate together. A threaded connector 1518 is fixedly connected to the arched piece 1512, which is adapted to the threads on the rotating rod 1412. The rotating rod 1412 drives the displacement stage 1413 to move via the threaded connector 1518. A friction rotating sleeve 1519 is fixedly connected between the two adjustment rods 1516, facilitating the rotation of the adjustment rods 1516.

[0039] When the diameter of the cable is long, the friction rotating sleeve 1519 is rotated to pull the adjusting rod 1516 to rotate. The adjusting rod 1516 pulls the four disk bodies 1 1515 to rotate together through the disk body 2 1517. The disk body 1515 pulls the two displacement platforms 2 1513 farther away from each other through the pulling rod 1514, so that the threaded sleeve 1518 on the arched piece 1512 can be separated from the threaded teeth on the rotating rod 1412, that is, the fixed connection piece 1417 can be separated, and the adjusting rod 1516 is driven to separate from the through-hole on the assembly support 13. The adjusting rod 1516 pulls the displacement platform 1 1413 to separate from the displacement cavity of the assembly support 13, and the matching locking claw 17 can be replaced according to the specifications of the cable, which is beneficial to the inspection and cleaning of the locking claw 17.

[0040] The constraint assembly 16 includes an assembly chamber 1612 reserved in the locking claw 17. A connecting rod 1613 is installed in the assembly chamber 1612. The outer wall of the connecting rod 1613 is installed with a plurality of proportionally arranged spheres 1614. The spheres 1614 and the inside of the assembly chamber 1612 fit together. One end of the connecting rod 1613 is rotated to install an embedded platform 1615 that fits together with the inside of the assembly chamber 1612. The two locking claws 1613 that are close to each other are locked. 7 are reserved for the embedding opening for the embedding platform 1615 to constrain the embedding connection, so that when the two locking claws 17 are close to each other, the embedding platform 1615 can be embedded in the embedding opening to prevent the cable from being subjected to external forces upward due to factors such as shaking and the formation of a gap between the fitting walls of the two locking claws 17. The embedding platform 1615 can touch the embedding opening to make the locking claws 17 more secure and prevent the gap between the two locking claws 17 from widening. The farther the connecting rod 1613 is from the embedding platform 1615, the better. One end is fixedly connected to the driving piece 1616, and the bottom of the driving piece 1616 is fixedly connected to the driving rod 1617. The inside of the assembly chamber 1612 is fixedly connected to the sliding table 1618 which is displaced and installed on the side of the driving rod 1617. An elastic member 1619 is fixedly connected between the sliding table 1618 and the driving piece 1616 to facilitate the driving piece 1616 to return to its initial position. The end of the driving rod 1617 farther from the driving piece 1616 is fixedly connected to the top contact table 1620. The two locking Two mirror-image top contact rods 1621 are mounted between the claws 17. The ends of the top contact rods 1621 and the sides of the top contact platform 1620 have matching slopes. The slopes of the top contact platform 1620 and the slopes of the top contact rods 1621 fit together, driving the top contact platform 1620 to move upward. The top contact rods 1621 are fixedly connected to the top of the assembly support 13. Sliding cavities are reserved on both sides of the locking claws 17 to constrain the sliding of the top contact rods 1621.

[0041] When the two locking claws 17 approach each other, the top contact platform 1620 and the top contact rod 1621 on the locking claw 17 fit together, and the slope of the top contact platform 1620 and the slope of the top contact rod 1621 fit together, so that the top contact platform 1620 moves upward along the inside of the assembly chamber 1612, and the top contact platform 1620 moves upward via the driving rod 1617, so that the driving rod 1617 drives the connecting rod 1613 to move together via the driving piece 1616, so that the connecting rod The sphere 1614 on 1613 moves smoothly along the inside of the assembly chamber 1612, that is, drives the embedding platform 1615 to move sideways from the assembly chamber 1612, so that the embedding platform 1615 is embedded in the embedding opening of the other locking claw 17, and the embedding platform 1615 on the other locking claw 17 is embedded in the embedding opening of the locking claw 17, so as to ensure the stability of the cable installation and avoid the cable being damaged by colliding with the embedding platform 1615 during installation on the assembly support 13.

[0042] First, place the cable between the two locking claws 17 close to each other, and insert the operating handle 1419 into the embedded rod 1418. Rotate the operating handle 1419 to pull the adapted rotating rod 1412 to rotate. The rotating rod 1412 pulls the linkage wheel 1415 to rotate together. The linkage wheel 1415 pulls another linkage wheel 1415 to rotate via the conveyor belt 1416. The linkage wheel 1415 pulls the adapted rotating rod 1412 to rotate. 12 rotates, thus achieving the two rotating rods 1412 rotating together, and the rotating rods 1412 are adapted to each other through the four threads and the threaded sleeve 1518 on the arch piece 1512, so that the arch piece 1512 drives the displacement stage 1413 to move along the displacement cavity of the assembly support 13, and the displacement stage 1413 pulls the adapted locking claw 17 to move together, pulling the four locking claws 17 closer to each other and farther away from each other; then, the locking claw 1 7. The top contact platform 1620 and the top contact rod 1621 fit together, and the slope of the top contact platform 1620 and the slope of the top contact rod 1621 fit together, allowing the top contact platform 1620 to move upward along the inside of the assembly chamber 1612. The top contact platform 1620 moves upward via the driving rod 1617, allowing the driving rod 1617 to drive the connecting rod 1613 to move together via the driving piece 1616. The connecting rod 1613 pulls the ball 1614 to move along the inside of the assembly chamber 1612, and drives the embedding platform 1615 to move sideways from the assembly chamber 1612. Then, the embedding platform 1615 on this locking claw 17 is inserted into the embedding opening on the other locking claw 17, and the embedding platform 1615 on the other locking claw 17 is inserted into the embedding opening of this locking claw 17, thereby achieving the purpose of cable assembly. In this way, the cable can be installed conveniently and firmly, avoiding the phenomenon of forgetting to lock it, and making the installation more efficient.

[0043] Both sides of the assembly shell 12 are reserved for assembly pieces 18. The outer wall of the assembly piece 18 reserves an indentation for constraining the assembly shell 12 to be embedded. The indentation is fixedly connected to an insertion platform 19 that is constrained and embedded in the assembly shell 12, which facilitates the fixing of the assembly shell 12 to the assembly surface. The side of the assembly piece 18 closer to the assembly support 13 is fixedly connected to a supporting rib 20. The end of the supporting rib 20 farther from the assembly piece 18 is in contact with the bottom of the assembly support 13, which ensures the excellent supporting performance of the assembly support 13. The top and bottom of the displacement chamber of the displacement stage 1 1413 are fixedly connected to an offset rod 21. The side of the offset rod 21 is in contact with the side of the arch piece 1512 farther from the displacement stage 2 1513, which ensures that the arch piece 1512 can be used for a longer period of time.

[0044] The operator inserts the assembly shell 12 into the recessed openings of the two assembly pieces 18, so that the insertion platform 19 can be inserted into the inside of the assembly shell 12, and the assembly shell 12 is installed on the assembly surface through the assembly pieces 18. The supporting ribs 20 can better support the assembly support 13, and the assembly is fixed in place in the form of assembly, which is conducive to subsequent assembly, separation and maintenance.

[0045] The side of the connecting piece 1417 closer to the assembly support 13 is fixedly connected to the stop platform 22, which is embedded in the displacement cavity of the assembly support 13, thereby constraining the displacement of the first displacement platform 1413. The two locking claws 17 on the end closer to the connecting piece 1417 are fixedly connected to the displacement seat 23 below. The inside of the assembly support 13 is fixedly connected to the constraint rod 24 in a straight line with the displacement seat 23, which facilitates the installation of multiple locking claws 17. The end of the adjustment rod 1516 closer to the second disc 1517 is fixedly connected to the rolling ring 25. The side of the assembly support 13 reserves a movement opening for the rolling ring 25 to constrain the displacement, facilitating the removal of the adjustment rod 1516.

[0046] When the displacement platform 1413 is installed into the assembly support 13, the locking claw 17 closer to the fixed connection piece 1417 can touch the constraint rod 24 through the displacement seat 23, which can restrain the locking claw 17 in the central area, making it convenient to install several locking claws 17 in sequence. During the installation of the fixed connection piece 1417, the stop platform 22 can adjust and correct the locking claws 17 on the side, making the installation more convenient.

[0047] The basic principles, main features, and advantages of the present invention are shown and described above. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The above embodiments and descriptions are merely illustrative of the principles of the present invention. Various changes and modifications may be made to the present invention without departing from the spirit and scope of the present invention. Such changes and modifications are intended to fall within the scope of the present invention. The scope of protection claimed in the present invention is defined by the appended claims and their equivalents.

Claims

1. A supporting mechanism for cable installation, characterized in that: It comprises an assembly shell (12) and a pair of assembly supports (13) fixedly connected to the sides of the assembly shell (12) in a mirror image, the head of the assembly support (13) is provided with four locking claws (17), two locking claws (17) close to each other are mirror-mounted, and assembly pieces (18) are provided on both sides of the assembly shell (12), and the sides of the assembly pieces (18) are reserved with recessed openings for the assembly shell (12) to be constrained and embedded; It also includes a locking assembly (14) for allowing the locking claw (17) to lock the outer wall of the cable, and the locking assembly (14) is arranged inside the assembly support (13); A sliding separation component (15) is used to achieve the purpose of rapid separation of the locking claw (17), and the sliding separation component (15) is installed inside the assembly support (13); A restraint assembly (16) is used to securely lock the cable with the locking claw (17), the restraint assembly (16) being disposed inside the locking claw (17); The locking assembly (14) includes a rotating rod (1412) screwed into the assembly support (13), the bottom of the locking claw (17) is fixedly connected to the displacement stage (1413), the inside of the assembly support (13) is reserved with a displacement cavity for the displacement stage (1413) to constrain the sliding, the outer wall of the rotating rod (1412) is reserved with screw threads that are one-to-one matched with the four displacement stages (1413), and the screw threads close to each other are arranged in a mirror image, the inside of the locking claw (17) is fixedly connected to a plurality of proportionally arranged arched pressure plates (1414), the rotating rod (1412) extends into the inside of the assembly shell (12), and the end of the rotating rod (1412) closer to the assembly shell (12) is fixedly connected to the linkage wheel (1415), and the two linkage wheels (1415) A conveyor belt (1416) is installed between the two assembly supports (13), and a fixed connection piece (1417) is installed between the two assembly supports (13). The fixed connection piece (1417) is located at the end of the assembly support (13) farther from the assembly shell (12). The end of the rotating rod (1412) farther from the linkage wheel (1415) extends to the side of the fixed connection piece (1417). The end of the rotating rod (1412) closer to the fixed connection piece (1417) is fixedly connected to an embedded rod (1418). The embedded rod (1418) is a hexagonal structure. The outer wall of the embedded rod (1418) is provided with an operating handle (1419) that can be spliced ​​and connected. Both ends of the fixed connection piece (1417) are fixedly connected to side pieces (1420). The side pieces (1420) are fixedly connected to the assembly support (13) via fasteners. The sliding separation component (15) includes two arched pieces (1512) installed inside the displacement platform (1413), the two arched pieces (1512) are mirror-mounted on both sides of the rotating rod (1412), and a displacement chamber is reserved inside the displacement platform (1413) for the arched piece (1512) to constrain the sliding. Both ends of the arched piece (1512) are fixedly connected to the displacement platform (1513), and two traction rods (1514) adapted to the displacement platform (1513) are installed at both ends of the arched piece (1512). Both ends of the traction rod (1514) are rotatably installed inside the displacement chamber, and one end of the traction rod (1514) is fixedly connected to the disk (1515). The four An adjustment rod (1516) penetrating the displacement stage (1413) is installed between the first disk body (1515), and a through hole is reserved on the opposite sides of the two assembly supports (13) to allow the adjustment rod (1516) to constrain sliding. The through hole is open at the end closer to the fixed connection piece (1417). The end of the adjustment rod (1516) closer to the first disk body (1515) is fixedly connected to the second disk body (1517). The second disk body (1517) and the four first disk bodies (1515) are all engaged and connected. A threaded sleeve (1518) that is adapted to the threaded teeth on the rotating rod (1412) is fixedly connected inside the arched piece (1512), and a friction rotating sleeve (1519) is fixedly connected between the two adjustment rods (1516). The constraint assembly (16) includes an assembly chamber (1612) reserved in the locking claw (17), a connecting rod (1613) is installed in the assembly chamber (1612), and a plurality of spheres (1614) arranged in proportion are installed on the outer wall of the connecting rod (1613), and the spheres (1614) and the inside of the assembly chamber (1612) fit each other. One end of the connecting rod (1613) is rotatably installed with an embedding table (1615) that fits each other in the assembly chamber (1612), and the two locking claws (17) close to each other are both reserved with embedding openings for the embedding table (1615) to constrain the embedding connection, and the end of the connecting rod (1613) farther from the embedding table (1615) is fixedly connected to the driving plate (1616), and the bottom of the driving plate (1616) is fixedly connected to the driving plate (1616). Connected to the driving rod (1617), the inside of the assembly chamber (1612) is fixedly connected to a sliding platform (1618) which is displaced and installed on the side of the driving rod (1617), an elastic member (1619) is fixedly connected between the sliding platform (1618) and the driving plate (1616), the end of the driving rod (1617) farther from the driving plate (1616) is fixedly connected to the top contact platform (1620), and two mirror-mounted top contact rods (1621) are installed between the two locking claws (17), and both ends of the top contact rod (1621) and both sides of the top contact platform (1620) are slope structures adapted to each other, the top contact rod (1621) is fixedly connected to the top of the assembly support (13), and both sides of the locking claw (17) are reserved with sliding cavities for the top contact rod (1621) to constrain sliding.

2. A supporting mechanism for cable installation according to claim 1, characterized in that: The recessed opening on the assembly piece (18) is fixedly connected to a plugging platform (19) which is constrained and embedded in the assembly shell (12).

3. A supporting mechanism for cable installation according to claim 2, characterized in that: The side of the assembly piece (18) closer to the assembly support (13) is fixedly connected to the supporting rib (20), and the end of the supporting rib (20) farther from the assembly piece (18) is in contact with the bottom of the assembly support (13).

4. A supporting mechanism for cable installation according to claim 3, characterized in that: The top and bottom of the displacement chamber of the first displacement stage (1413) are fixedly connected to the compensation rod (21), and the side of the compensation rod (21) and the side of the arched piece (1512) farther from the second displacement stage (1513) are in contact with each other.

5. A supporting mechanism for cable installation according to claim 4, characterized in that: The side of the fixing piece (1417) closer to the assembly support (13) is fixedly connected to the stop platform (22), and the stop platform (22) is embedded in the displacement cavity of the assembly support (13).

6. A supporting mechanism for cable installation according to claim 5, characterized in that: The two locking claws (17) at the end closer to the fixed plate (1417) are fixedly connected to the displacement seat (23) below, and the inner side of the assembly support (13) is fixedly connected to the constraint rod (24) which is in a straight line with the displacement seat (23).

7. A supporting mechanism for cable installation according to claim 6, characterized in that: The end of the adjusting rod (1516) closer to the second disc body (1517) is fixedly connected to the rolling ring (25), and the side of the assembly support (13) is reserved with a movement opening for the rolling ring (25) to constrain displacement.

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