Cable installation adjusting frame for engineering construction

Abstract

The invention provides a cable installation adjusting frame for engineering construction. The cable installation adjusting frame structurally comprises inserting grooves, a carrying layer, a bottom plate, supporting blocks and an adjusting frame body. The adjusting frame body is further improved, the three sets of independent bearing bodies can be electrically controlled through the adjusting rails on the vertical plates and the electric control plate, the rapid adjusting effect can be achieved, and then multiple cables can be orderly installed according to the separators of the independent bearing bodies; therefore, the parallel stability of cable installation can be improved, winding caused by mutual intersection can be prevented, and meanwhile, when the height of the cable does not conform to the installation height, the independent bearing body can be adjusted by directly utilizing the electric control board, so that the cable can slide upwards in the adjusting rail; therefore, the adjustable characteristic is met, the convenience and the stability of cable installation are improved, the bearing of the number of cables can be improved through the cooperation of the three groups of independent bearing bodies, and the situation that the cost is increased due to the fact that a large number of adjusting frames need to be arranged when the number is large is prevented.

Description

Technical Field

[0001] The invention relates to the technical field of cable installation and adjustment frames, in particular to a cable installation and adjustment frame for engineering construction. Background Art

[0002] When the relevant buildings are completed, the circuit cables are laid. When laying cables, the cable installation rack can be used to assist, thereby improving the fixation of the cables in the building, replacing the original simple positioning and causing the cables to fall on the ground and drag and cause damage. For this reason, the cable installation rack can improve the positioning and firmness of the cables in the building, ensuring the safety factor of subsequent electricity use; In summary, the inventors have found that the existing cable installation racks mainly have the following defects: due to the relatively simple height, number of cable-carrying positions and structure of the current cable installation racks, it is difficult to load and position multiple cables at the same time. Therefore, multiple sets of installation racks are required when laying multiple cables, which will increase costs and cause difficulties in handling and transportation due to the large number of components. Furthermore, the structure of the current installation rack is relatively simple, and its height cannot be adjusted frequently during cable installation. When the cable height is not suitable, the operator needs to raise the height of the entire installation rack for a second time, which will increase the operator's work intensity and reduce the use intensity of the current installation rack, and the current installation rack cannot meet the adjustable characteristics. Summary of the invention

[0003] The technical solution adopted by the present invention to achieve the technical purpose is: a cable installation and adjustment frame for engineering construction, whose structure includes: a slot, a loading layer, a bottom plate, a support block, and an adjustment frame body. The slot passes through the loading layer and penetrates the surface of the bottom plate. The bottom plate and the loading layer are integrated. The support block is vertically installed at the center of the surface of the bottom plate and the left and right sides are spaced apart from the slot. The back of the adjustment frame body is fixedly connected to the edge of the support block and is vertically installed on the surface of the bottom plate.

[0004] As a further improvement of the present invention, the main body of the adjustment frame is provided with a positioning block, a vertical plate, an electric control board, an adjustment rail, and an independent load-bearing body. The positioning block is welded to the lower end of the vertical plate, the surface edge of the vertical plate is fixedly connected to the electric control board, the adjustment rail is arranged at the center of the vertical plate, the independent load-bearing body is embedded in the adjustment rail and electrically connected to the electric control board, the independent load-bearing body is arranged in the upper area of ​​the bottom plate through the vertical plate, and the independent load-bearing body is in contact with the surface of the support block through the back of the vertical plate; the positioning block is in the shape of a rectangular parallelepiped and its length and width are both smaller than the bottom width and length of the vertical plate, the electric control board has an independent detachable battery and a power circuit built in, and the adjustment rail contains three groups of independent load-bearing bodies.

[0005] As a further improvement of the present invention, the independent load-bearing body is provided with a slider, a bearing block, and a partition. The slider is embedded in the left and right sides of the bearing block, the front end of the bearing block is fixedly connected to the partition, the slider is embedded in the adjustment rail through the bearing block and is electrically connected to the electric control board, and the partition is arranged in the front area of ​​the adjustment rail through the bearing block; the slider is provided with one slider on each of the left and right sides of the bearing block, and a total of three groups of partitions are provided at the front end of the bearing block.

[0006] As a further improvement of the present invention, the partition is provided with an electrical connection block, a constant temperature module, a restraining piece, an insulating breathable block, an overlapping piece, and an empty slot. The electrical connection block is electrically connected to the constant temperature module, the constant temperature module is installed on the outer layer of the restraining piece and overlaps with each other, the insulating breathable block is embedded in the inner area of ​​the restraining block, the overlapping piece and the insulating breathable block overlap with each other, the empty slot is arranged at the right center of the restraining piece, the insulating breathable block and the overlapping piece, and the overlapping piece is positioned and installed at the front end of the supporting block through the restraining piece and the constant temperature module; the electrical connection block and the constant temperature module are perpendicular to each other, the constant temperature module covers the outer layer of the restraining piece, the restraining piece is made of stainless steel metal material, the insulating breathable block is a plastic product and has multiple holes, and the overlapping piece is circular in shape and embedded in the insulating breathable block.

[0007] As a further improvement of the present invention, the overlapping part is provided with a card block, a rubber body, a contact layer, and an air hole. The card block is installed at the edge of the rubber body, the contact layer and the inner layer of the rubber body are integrated, the air hole runs through the contact layer and the edge of the rubber body and communicates with the empty groove, the rubber body is embedded in the breathable insulating block through the card block and the air hole is communicated with the insulating breathable block; the card block is in an arc shape, the contact layer of the rubber body is in a finely polished state, and the air hole is in the shape of a small circular hole.

[0008] As a further improvement of the present invention, the support block is provided with a connecting block, a triangle, a connecting layer, a protrusion, and an auxiliary plate. The connecting block is installed at the lower end of the triangle. The triangle and the connecting layer are integrated. The protrusion is embedded in the triangle through the connecting layer. The auxiliary plate is fixedly connected to the protrusion. The auxiliary plate is fixedly connected to the connecting layer of the triangle through the protrusion. The auxiliary plate is in contact with the back of the independent load-bearing body through the triangle. The connecting block is square in shape and three blocks are provided at the lower end of the triangle. The connecting layer is in a polished flat shape. The protrusion and the auxiliary plate are perpendicular to each other.

[0009] As a further improvement of the present invention, the auxiliary plate is provided with a reinforcing plate, a parallel layer, a limiting ring and an auxiliary wheel. The reinforcing plate and the parallel layer are an integrated structure. The limiting ring is embedded in the surface layer of the reinforcing plate through the parallel layer. The auxiliary wheel is installed in the limiting ring and contacts with the back center of the independent load-bearing body. The reinforcing plate is fixedly connected to the triangle through a protrusion. The reinforcing plate is a solid rectangular parallelepiped. The diameter of the limiting ring is larger than the diameter of the auxiliary wheel. The auxiliary wheel is a solid spherical shape.

[0010] Compared with the prior art, the present invention has the following beneficial effects: 1. The present invention is based on further improvements on the main body of the adjustment frame. The three groups of independent load-bearing bodies can be electrically controlled through the adjustment rails and the electric control board on the vertical plate, so that the effect of rapid adjustment can be achieved. Then, multiple cables can be installed in an orderly manner according to the partitions of the independent load-bearing bodies, so that the parallel stability of the cable installation can be improved to prevent the entanglement caused by mutual crossing. At the same time, when the cable height does not meet the installation height, the independent load-bearing body can be directly adjusted by the electric control board so that it can slide up on the adjustment rail. Therefore, it meets the adjustable characteristics and improves the convenience and stability of cable installation. Then, through the cooperation of the three groups of independent load-bearing bodies, the load-bearing capacity of the cables can be increased, and the cost increase caused by the need to equip a large number of adjustment frames due to a large number of cables can be avoided.

[0011] 2. The present invention is further improved by the partition of the independent load-bearing body. The thermostatic module on the restraining part can be combined with the electrical connection block to be controlled by the electric control board, so that the temperature of the metal restraining part can be set by the thermostatic module, so that the insulating breathable block and the overlapping part inside the restraining part can be combined with the restraining part to control the temperature of the cable, thereby preventing the influence of high temperature weather and overload caused by continuous use, thereby improving the safety factor of the cable after installation. Furthermore, the overlapping part can directly contact the surface of the cable based on the plastic insulating breathable block, so that it can prevent the leakage of electric energy. At the same time, the cooperation of the air holes of the plastic insulating breathable block and the overlapping part can allow the temperature of the restraining part to penetrate stably, thereby preventing the temperature imbalance caused by the solid covering.

[0012] 3. After further improvement on the support block, the present invention can improve the stable verticality of the connection with the auxiliary plate and the adjustment frame body through the shape coordination of the triangle, and then the auxiliary plate can complete the detachable engagement with the triangle through the protrusion, so that the convenience of later disassembly and maintenance can be improved. At the same time, the parallel layer of the auxiliary plate can limit the positions of multiple spherical auxiliary wheels through the limit ring, so that the auxiliary wheels can be driven to rotate when the independent load-bearing body is adjusted up and down, so that the up and down sliding smoothness of the independent load-bearing body can be improved, and the occurrence of jamming and blocking can be prevented. BRIEF DESCRIPTION OF THE DRAWINGS

[0013] Figure 1The present invention is a structural schematic diagram of a cable installation and adjustment frame for engineering construction.

[0014] Figure 2 The present invention is a schematic diagram of a three-dimensional structure of an improved adjusting frame main body.

[0015] Figure 3 The present invention is a schematic diagram of a three-dimensional structure after improvement of an independent load-bearing body.

[0016] Figure 4 The present invention is a schematic diagram of the structure of a sectional view of an improved separator.

[0017] Figure 5 The present invention is a schematic diagram of the three-dimensional structure of an improved overlapping part.

[0018] Figure 6 The present invention is a schematic diagram of the three-dimensional structure of an improved support block.

[0019] Figure 7 The present invention is a schematic diagram of a partially three-dimensional structure of an improved auxiliary plate.

[0020] In the figure: slot-1, loading layer-2, bottom plate-3, support block-4, adjustment frame body-5, positioning block-51, vertical plate-52, electric control board-53, adjustment rail-54, independent load-bearing body-55, slider-551, load-bearing block-552, separator-553, electrical connection block-a1, constant temperature module-a2, restraining piece-a3, insulating breathable block-a4, overlapping piece-a5, empty slot-a6, card block-a51, rubber body-a52, contact layer-a53, breathable hole-a54, connecting block-41, triangle-42, connecting layer-43, protrusion-44, auxiliary plate-45, strengthening plate-451, parallel layer-452, limit ring-453, auxiliary wheel-454. DETAILED DESCRIPTION

[0021] The present invention is further described below in conjunction with the accompanying drawings: Example

[0022] Figures 1 to 5 As shown: The present invention provides a cable installation and adjustment frame for engineering construction. Its structure includes a slot 1, a loading layer 2, a bottom plate 3, a support block 4, and an adjustment frame body 5. The slot 1 passes through the loading layer 2 and penetrates the surface of the bottom plate 3. The bottom plate 3 and the loading layer 2 are integrated. The support block 4 is vertically installed at the center of the surface of the bottom plate 3 and the left and right sides are spaced to match the slot 1. The back of the adjustment frame body 5 is fixedly connected to the edge of the support block 4 and is vertically installed on the surface of the bottom plate 3.

[0023] The adjusting frame body 5 is provided with a positioning block 51, a vertical plate 52, an electric control board 53, an adjusting rail 54, and an independent load-bearing body 55. The positioning block 51 is welded to the lower end of the vertical plate 52. The surface edge of the vertical plate 52 is fixedly connected to the electric control board 53. The adjusting rail 54 is arranged at the center of the vertical plate 52. The independent load-bearing body 55 is embedded in the adjusting rail 54 and electrically connected to the electric control board 53. The independent load-bearing body 55 is arranged in the upper area of ​​the bottom plate 3 through the vertical plate 52. The independent load-bearing body 55 contacts the surface of the supporting block 4 through the back of the vertical plate 52. The positioning block 51 is in the shape of a rectangular parallelepiped and its length and width are both smaller than the bottom width and length of the vertical plate 52. The electric control board 53 is equipped with an independent detachable battery and a power supply circuit. The adjusting rail 54 contains three groups of independent load-bearing bodies 55. The positioning block 51 can be stably installed at the lower end of the vertical plate 52 due to its rectangular shape and its own length and width. The electric control panel 53 can adjust the height of the independent load-bearing body 55 in the adjustment rail 54 in combination with the power-on circuit through manual control effect. The independent load-bearing body 55 can achieve parallel positioning of multiple cables one by one through three groups.

[0024] The independent load-bearing body 55 is provided with a slider 551, a bearing block 552, and a separator 553. The slider 551 is embedded in the left and right sides of the bearing block 552. The front end of the bearing block 552 is fixedly connected to the separator 553. The slider 551 is embedded in the adjustment rail 54 through the bearing block 552 and is electrically connected to the electric control board 53. The separator 553 is arranged in the front area of ​​the adjustment rail 54 through the bearing block 552. The slider 551 is provided on the left and right sides of the bearing block 552, and a total of three groups of separators 553 are provided at the front end of the bearing block 552. The two sliders 551 can improve the smoothness of the up and down sliding of the support block 552. The three groups of partitions 553 at the front end of the support block 552 can achieve that a single group of support blocks 552 can position and restrain three cables.

[0025] The separator 553 is provided with an electrical connection block a1, a constant temperature module a2, a restraining member a3, an insulating and breathable block a4, a overlap member a5, and an empty slot a6. The electrical connection block a1 is electrically connected to the constant temperature module a2. The constant temperature module a2 is installed on the outer layer of the restraining member a3 and overlaps with each other. The insulating and breathable block a4 is embedded in the inner area of ​​the restraining member a3. The overlap member a5 overlaps with the insulating and breathable block a4. The empty slot a6 is provided between the restraining member a3 and the insulating and breathable block a4, the right center of the overlapped piece a5, the overlapped piece a5 is positioned and installed at the front end of the bearing block 552 through the restraining piece a3 and the constant temperature module a2; the electrical connection block a1 and the constant temperature module a2 are perpendicular to each other, the constant temperature module a2 covers the outer layer of the restraining piece a3, the restraining piece a3 is made of stainless steel metal, the insulating and breathable block a4 is a plastic product with multiple holes, the overlapped piece a5 is circular and embedded in the insulating and breathable block a4; The electrical connection block a1 can effectively improve the outer layer stability of the thermostatic module a2 installed on the restraining piece a3 by being perpendicular to the thermostatic module a2. The restraining piece a3 can avoid the service life of the plastic insulating and breathable block a4 due to rust due to its rust-proof shape. The insulating and breathable block a4 can avoid power leakage due to the plastic properties. Multiple holes can be used to diffuse the constant temperature of the restraining piece a3 into the overlapping piece a5. The overlapping piece a5 can match the shape of the cable due to its circular shape.

[0026] The overlapped member a5 is provided with a block a51, a rubber body a52, a contact layer a53, and an air hole a54. The block a51 is installed at the edge of the rubber body a52. The contact layer a53 is integrated with the inner layer of the rubber body a52. The air hole a54 runs through the contact layer a53 and the edge of the rubber body a52 and communicates with the empty groove a6. The rubber body a52 is embedded in the breathable insulating block a4 through the block a51, and the air hole a54 communicates with the insulating breathable block a4. The block a51 is in an arc shape, the contact layer a53 of the rubber body a52 is in a finely polished state, and the air hole a54 is in the shape of a small circular hole. The block a51 can match the shape of the rubber body a52 through its arc shape, and the rubber body a52 can avoid surface scratches after the cable is installed through the fine polishing contact a53, so that it can achieve a protective effect. The air vent a54 can receive the cooling effect guided by the component through a small circular hole.

[0027] Specific functions and operation procedures of this embodiment: In the present invention, First: the cable installation adjustment frame for engineering construction can be embedded in the wall of the building or a specific engineering designated position through the bottom plate 3 and the support block 4 on the load layer 2, and then the bolt is locked through the internal thread of the slot 1, so that the position of the adjustment frame body 5 can be determined, and then the adjustment frame body 5 can be operated by an independent power supply, so that multiple cables can be arranged in parallel at one time, and then the height of the cable can be controlled according to the effect of up and down adjustment, so that the cable height can meet the installation height, and then the vertical positioning safety factor and stability of the cable can be improved through the adjustable and vertical characteristics; Second: the vertical plate 52 of the adjustment frame body 5 can be stably installed on the surface of the bottom plate 3 through the bottom positioning block 51, and then the electric control board 53 of the vertical plate 52 can be operated through the internal detachable battery, so that the operator can control the independent load-bearing body 55 of the adjustment rail 54 through the electric control board 53. Therefore, after the independent load-bearing body 55 separates and fixes multiple cables in parallel, it can be adjusted up and down in the adjustment rail 54 in combination with the electric control board 53, so that it can achieve the effect of height adjustment, thereby improving the convenience of cable installation and the adjustable characteristics of the installation frame, thereby replacing the process effect of manual lifting, and improving the efficiency and convenience of cable laying; Third: the bearing block 552 of the independent bearing body 55 can slide up and down in the adjustment rail 54 through the slider 551, so that the three groups of partitions 553 at the front end of the bearing block 552 can embed and fix the three cables one by one, so that the cables can achieve a parallel positioning effect, and then there is a corresponding safety distance between them, avoiding the entanglement caused by mutual contact and crossing, so that the origin positioning stability and safety effect of the cables can be improved, and then the cooperation of the two sliders 551 can improve the up and down sliding stability of the bearing block 552; Fourth: the control piece a3 of the partition 553 carries a constant temperature module a2 on the outside, so that the constant temperature module a2 can be embedded in the bearing block 552 to complete the electrical connection with the power supply line of the electric control board 53, so that the control piece a3 can maintain its own temperature at a constant temperature with the help of the constant temperature module a2, avoiding the continuous high temperature caused by the external high temperature and the internal cable operating temperature, which may cause cable damage and overload in severe cases, and then the plastic insulating breathable block a4 and the overlapped piece a5 inside the control piece a3 can directly contact the outer layer of the cable through the empty slot a6, so that the temperature of the control piece a3 can penetrate into the cable area through the breathable effect, thereby ensuring the temperature balance of the cable and avoiding the leakage of electric energy; Fifth: the circular rubber body a52 of the overlapping piece a5 can be embedded in the insulating breathable block a4 through the clamping block a51, so that the rubber body a52 can overlap with the insulating breathable block a4, and then the air holes a54 on the edge are used to receive the cold air penetrated by the restraining piece a3, so that the temperature of the cable in the contact layer a53 area can be reduced, avoiding overheating caused by external high temperature. At the same time, the cooperation of the rubber body a52 and the insulating breathable block a4 can achieve a double protection effect. Then, the fine polishing of the contact layer a53 can avoid surface scratches caused by the restraint of the cable, thereby improving the protection effect on the cable surface. Example

[0028] Figure 6 to Figure 7 As shown: The present invention provides a cable installation and adjustment frame for engineering construction. Its structure includes: the support block 4 is provided with a connecting block 41, a triangular body 42, a connecting layer 43, a convex block 44, and an auxiliary plate 45; the connecting block 41 is installed at the lower end of the triangular body 42; the triangular body 42 and the connecting layer 43 are integrated; the convex block 44 is embedded in the triangular body 42 through the connecting layer 43; the auxiliary plate 45 is fixedly connected with the convex block 44; the auxiliary plate 45 is fixedly connected with the connecting layer 43 of the triangular body 42 through the convex block 44; the auxiliary plate 45 is in contact with the back of the independent load-bearing body 55 through the triangular body 42; the connecting block 41 is square in shape and is provided with three blocks at the lower end of the triangular body 42; the connecting layer 43 is in a polished flat shape; the convex block 44 and the auxiliary plate 45 are perpendicular to each other; The connecting block 41 can improve the vertical stability of the connection between the triangle 42 and the component through its square shape and three pieces. The connecting layer 43 can prevent the protrusion 44 and the auxiliary plate 45 from tilting after being installed through its flattened shape. The protrusion 44 and the auxiliary plate 45 are perpendicular to each other, which can improve the connection stability with the triangle 42.

[0029] The auxiliary plate 45 is provided with a reinforcing plate 451, a parallel layer 452, a limiting ring 453, and an auxiliary wheel 454. The reinforcing plate 451 and the parallel layer 452 are an integrated structure. The limiting ring 453 is embedded in the surface of the reinforcing plate 451 through the parallel layer 452. The auxiliary wheel 454 is installed in the limiting ring 453 and contacts with the back center of the independent load-bearing body 55. The reinforcing plate 451 is fixedly connected with the triangular body 42 through the protrusion 44. The reinforcing plate 451 is a solid rectangular parallelepiped. The diameter of the limiting ring 453 is larger than the diameter of the auxiliary wheel 454. The auxiliary wheel 454 is a solid spherical shape. The reinforcing plate 451 can effectively improve its own load-bearing stability through its solid rectangular shape, and the limiting ring 453 can improve the position restraining effect of the spherical auxiliary wheel 454 through its large diameter effect. The auxiliary wheel 454 can drive the components when they slide through its spherical shape, so as to achieve the effect of auxiliary adjustment.

[0030] Specific functions and operation procedures of this embodiment: In the present invention, First, the triangular body 42 of the support block 4 can be stably installed on the surface of the bottom plate 3 through the connecting block 41, and then the triangular body 42 can be flattened by the connecting layer 43 to allow the protrusion 44 of the auxiliary plate 45 to be embedded, so that the auxiliary plate 45 can be stably installed on the vertical surface of the triangular body 42, and then the auxiliary plate 45 can coincide with the back center of the adjustment frame body 5 in combination with the position assistance of the triangular body 42, so that the inner side of the three groups of independent load-bearing bodies 55 can be supported, avoiding the imbalance of the exposed length caused by the three groups of independent load-bearing bodies 55 being embedded in the adjustment rail 54, and then the verticality of the up and down sliding of the independent load-bearing bodies 55 can be improved through the back support; Second: the reinforcing plate 451 of the auxiliary plate 45 can allow multiple sets of limit rings 453 to be embedded through the parallel layer 452, so that the limit rings 453 can restrain the position of the spherical auxiliary wheels 454 one by one, so that the auxiliary wheels 454 can contact the independent load-bearing body 55, so that the independent load-bearing body 55 can drive the auxiliary wheels 454 to rotate when sliding up and down through the adjustment rail 54, thereby effectively improving the smoothness of the up and down sliding of the independent load-bearing body 55, preventing the occurrence of jamming and blocking, improving the stability and smoothness of the overall adjustment operation, and further improving the height adjustment stability of the cable.

[0031] Utilizing the technical solution of the present invention, or those skilled in the art designing similar technical solutions inspired by the technical solution of the present invention to achieve the above-mentioned technical effects, all fall within the protection scope of the present invention.

Claims

1. A cable installation and adjustment frame for engineering construction, its structure include: A slot (1), a loading layer (2), a bottom plate (3), a support block (4), and an adjustment frame body (5), characterized in that: the slot (1) passes through the loading layer (2) and penetrates the surface of the bottom plate (3); the bottom plate (3) and the loading layer (2) are integrated; the support block (4) is vertically mounted at the center of the surface of the bottom plate (3) and the left and right sides thereof are spaced in accordance with the slot (1); the back of the adjustment frame body (5) is fixedly connected to the edge of the support block (4) and is vertically mounted on the surface of the bottom plate (3).

2. A cable installation and adjustment frame for engineering construction according to claim 1, Features: The adjustment frame body (5) is provided with a positioning block (51), a vertical plate (52), an electric control board (53), an adjustment rail (54), and an independent load-bearing body (55); the positioning block (51) is welded to the lower end of the vertical plate (52); the edge of the surface of the vertical plate (52) is fixedly connected to the electric control board (53); the adjustment rail (54) is arranged at the center of the vertical plate (52); the independent load-bearing body (55) is embedded in the adjustment rail (54) and is electrically connected to the electric control board (53); the independent load-bearing body (55) is arranged in the upper area of ​​the bottom plate (3) through the vertical plate (52); and the independent load-bearing body (55) is in contact with the surface of the support block (4) through the back of the vertical plate (52).

3. A cable installation and adjustment frame for engineering construction according to claim 1, Features: The independent load-bearing body (55) is provided with a slider (551), a bearing block (552), and a separator (553); the slider (551) is embedded in the left and right sides of the bearing block (552); the front end of the bearing block (552) is fixedly connected to the separator (553); the slider (551) is embedded in the adjustment rail (54) through the bearing block (552) and is electrically connected to the electric control board (53); and the separator (553) is arranged in the front area of ​​the adjustment rail (54) through the bearing block (552).

4. A cable installation and adjustment frame for engineering construction according to claim 3, Features: The partition (553) is provided with an electrical connection block (a1), a constant temperature module (a2), a restraining piece (a3), an insulating and breathable block (a4), a superimposed piece (a5), and an empty slot (a6); the electrical connection block (a1) is electrically connected to the constant temperature module (a2); the constant temperature module (a2) is installed on the outer layer of the restraining piece (a3) ​​and overlaps with each other; the insulating and breathable block (a4) is embedded in the inner area of ​​the restraining piece (a3); the superimposed piece (a5) and the insulating and breathable block (a4) overlap with each other; the empty slot (a6) is arranged at the right center of the restraining piece (a3), the insulating and breathable block (a4), and the superimposed piece (a5); the superimposed piece (a5) is positioned and installed at the front end of the supporting block (552) through the restraining piece (a3) ​​and the constant temperature module (a2).

5. A cable installation and adjustment frame for engineering construction according to claim 4, Features: The overlapping part (a5) is provided with a clamping block (a51), a rubber body (a52), a contact layer (a53), and an air vent (a54); the clamping block (a51) is installed at the edge of the rubber body (a52); the contact layer (a53) and the inner layer of the rubber body (a52) are integrated; the air vent (a54) penetrates the contact layer (a53) and the edge of the rubber body (a52) and communicates with the empty groove (a6); the rubber body (a52) is embedded in the breathable insulating block (a4) through the clamping block (a51), and the air vent (a54) is communicated with the insulating breathable block (a4).

6. A cable installation and adjustment frame for engineering construction according to claim 1, Features: The support block (4) is provided with a connection block (41), a triangular body (42), a connecting layer (43), a convex block (44), and an auxiliary plate (45); the connection block (41) is mounted on the lower end of the triangular body (42); the triangular body (42) and the connecting layer (43) are integrated; the convex block (44) is embedded in the triangular body (42) through the connecting layer (43); the auxiliary plate (45) is fixedly connected to the convex block (44); the auxiliary plate (45) is fixedly connected to the connecting layer (43) of the triangular body (42) through the convex block (44); and the auxiliary plate (45) is in contact with the back of the independent load-bearing body (55) through the triangular body (42).

7. A cable installation and adjustment frame for engineering construction according to claim 6, Features: The auxiliary plate (45) is provided with a reinforcing plate (451), a parallel layer (452), a limiting ring (453), and an auxiliary wheel (454); the reinforcing plate (451) and the parallel layer (452) are an integrated structure; the limiting ring (453) is embedded in the surface of the reinforcing plate (451) through the parallel layer (452); the auxiliary wheel (454) is installed in the limiting ring (453) and is in contact with the back center of the independent load-bearing body (55); the reinforcing plate (451) is fixedly connected to the triangular body (42) through the protrusion (44).

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