Smart energy power cable

Abstract

The invention discloses a smart energy power cable, and relates to the technical field of power cables, the smart energy power cable comprises four conductors, the outer sides of the four conductors are sleeved with insulating sleeves, the outer sides of the insulating sleeves are provided with modular splicing flame-retardant mechanisms, and the modular splicing flame-retardant mechanisms comprise limiting clamping grooves; and the outer sides of the four insulation sleeves are provided with limiting clamping grooves at equal intervals, the outer sides of the limiting clamping grooves are symmetrically sleeved with positioning clamping frames, and the outer sides of the positioning clamping frames are provided with annular partition plates. The positioning clamping frame and the annular partition plate are conveniently aligned and spliced on the outer sides of the insulating sleeve and the conductor, splicing convenience is improved, then the gluing glass tape and the calcined mica tape are matched, the positioning clamping frame sleeve and the insulating sleeve are further wound, and stability is improved.

Description

Technical Field

[0001] The present invention relates to the technical field of power cables, and in particular to a smart energy power cable. Background Art

[0002] Smart energy utilizes advanced information technologies, such as the Internet of Things, big data, and artificial intelligence, to centrally manage and intelligently control energy sources such as electricity, water, and gas. This can save energy, reduce emissions, and make electricity use safer and more reliable. A prior art patent for a smart energy power cable, application number CN202122973535.5, discloses an internal buffer layer that can cushion the impact of heavy objects without damaging the cable core. However, the materials inside the existing cables are all made of one piece. When damaged, the materials cannot be disassembled and replaced individually, and the entire cable needs to be changed before it can be put into use again, which reduces the service life of the cable and causes waste of materials. Therefore, in order to avoid the above technical problems, we need to provide a smart energy power cable to overcome the above defects in the prior art. Summary of the Invention

[0003] The present invention provides a smart energy power cable, which can effectively solve the problem proposed in the above background technology that the cables are all made of one piece and when damaged, the materials cannot be disassembled and replaced individually, but the entire cable needs to be modified before it can be put into use again, which reduces the service life of the cable.

[0004] To achieve the above objectives, the present invention provides the following technical solutions: a smart energy power cable, comprising four conductors, each of which is sheathed with an insulating sleeve, and a modular splicing flame retardant mechanism is provided on the outer side of the insulating sleeve, wherein the modular splicing flame retardant mechanism includes a limit slot; The outer sides of the four insulating sleeves are equidistantly provided with limit slots, the outer sides of the limit slots are symmetrically sleeved with positioning frames, and the outer sides of the positioning frames are each installed with an annular partition, one end of the annular partition is symmetrically provided with a positioning hole, and the other end of the annular partition is symmetrically clamped with an alignment rod; Annular partitions are installed on the outside of the two positioning card frames, and coated glass ribbons are wound on both sides of the outer side of the insulating sleeve corresponding to the annular partitions. Calcined mica tapes are wound on the outside of the coated glass ribbons, and flame-retardant rock wool is filled equidistantly between the coated glass ribbons and the calcined mica tapes. Anti-slip grooves are provided on the outer side of the flame-retardant rock wool and the inner wall of the calcined mica tape.

[0005] According to the above technical solution, one end of the alignment rod is embedded in the positioning socket, the inner wall of the glue-coated glass ribbon is fitted with the outer side of the positioning card frame, and the inner wall of the glue-coated glass ribbon is coated with heat-resistant adhesive.

[0006] According to the above technical solution, both ends of the annular partition are equidistantly connected with splicing plates, and both ends of the flame-retardant rock wool are provided with anti-deflection grooves; A low-smoke fire-resistant layer is sleeved on the outer side of the calcined mica tape, and magic tape is installed on the outer side of one end and the inner wall of the other end of the low-smoke fire-resistant layer.

[0007] According to the above technical solution, one end of the splicing plug board is embedded in the anti-deviation groove, and the low-smoke fire-resistant layer is filled with halogen-free material polyethylene.

[0008] According to the above technical solution, a reinforcement and anti-loosening mechanism is provided on the outer side of the annular partition, and the reinforcement and anti-loosening mechanism includes an arc-shaped wire mesh; The outer side of the low-smoke fire-resistant layer is symmetrically sleeved with an arc-shaped wire mesh, and the outer side of the arc-shaped wire mesh is symmetrically sleeved with an anti-corrosion layer; The outer sides of the two annular partitions are provided with mounting grooves, and positioning cylinders are symmetrically clamped inside the mounting grooves. Heat-conducting rubber blocks are filled at positions on both sides of the positioning cylinders in the mounting grooves. The outer sides of the two opposite annular partitions are symmetrically sleeved with positioning clamping rings, and the interiors of the two positioning clamping rings are symmetrically connected with connecting pins through threads. The inner walls of the positioning clamping rings are symmetrically clamped with arc-shaped convex rings, and a limiting groove is provided on the outer side of the anti-corrosion layer at a position corresponding to the outer side of the arc-shaped convex ring; A buffer cotton pad is provided on the outside of the anti-corrosion layer at a position corresponding to one side of the positioning clamping ring. A wear-resistant outer layer is sleeved on the outside of the buffer cotton pad and the outside of the positioning clamping ring. A marking ring sleeve is fixedly sleeved on the outside of the wear-resistant outer layer at a position corresponding to the outside of the positioning clamping ring.

[0009] According to the above technical solution, the anti-corrosion layer is filled with polyvinyl chloride, and one end of the arc-shaped wire mesh and one end of the anti-corrosion layer are in contact with one end of the annular partition.

[0010] According to the above technical solution, the outer side of the connecting pin is connected to the inner wall of the positioning tube through a threaded connection, the connecting pin is made of a heat-conducting material, and the bottom end of the arc-shaped convex ring is embedded in the limiting groove.

[0011] According to the above technical solution, the wear-resistant outer layer is made of chloroprene rubber, the thickness of the buffer cotton pad is equal to the thickness of the positioning clamping ring, and the arc-shaped wire mesh, anti-corrosion layer and positioning clamping ring are staggered with each other.

[0012] According to the above technical solution, an anti-deflection and heat dissipation mechanism is provided between the four insulating sleeves, and the anti-deflection and heat dissipation mechanism includes a hollow tube; A hollow tube is provided between the four insulating sleeves, an elastic support plate is equidistantly connected to the outside of the hollow tube, and a concave limit block is connected to the inner wall of the positioning card frame at a position corresponding to the outer side of the elastic support plate, and elastic limit plates are connected to both ends of the elastic support plate; Cross support plates are equidistantly connected inside the hollow tube, reinforcing ribs are connected to the inner wall of the cross support plate, heat conducting rods are equidistantly connected to the outer side of the hollow tube, and heat conducting silicone pads are connected to both ends of the heat conducting rods.

[0013] According to the above technical solution, one end of the elastic support plate is embedded in the concave limit block, the inner wall of the elastic limit plate is in contact with the outer side of the insulating sleeve, and the thermal conductive silicone pads at both ends of the heat-conducting rod are in contact with the outer and inner walls of the hollow tube respectively.

[0014] Compared with the prior art, the present invention has the following beneficial effects: the structure of the present invention is scientific and reasonable, and it is safe and convenient to use: 1. A modular splicing flame-retardant mechanism is set up. Through the cooperation of the limiting card slot, alignment rod and positioning jack, it is convenient to align the positioning card frame and the annular partition and splice them on the outside of the insulating sleeve and the conductor, which improves the convenience of splicing. Then, through the cooperation of the coated glass ribbon and the calcined mica tape, the positioning card frame sleeve and the insulating sleeve are further wound to improve the stability. At the same time, the flame-retardant rock wool is limited to the outside of the cable to form a multi-layer structure, which improves the flame retardant effect of the cable and reduces the spread of flames. Then, it is combined with the low-smoke fire-resistant layer to further improve the fire-resistant effect, reduce the smoke generated during combustion, and increase environmental protection performance. The coordination of anti-deviation grooves, splicing plates and anti-slip grooves enhances the stability of the flame-retardant rock wool, prevents deviation and ensures the flame-retardant effect. The use of magic tape facilitates the splicing and fixation of the low-smoke fire-resistant layer, facilitating subsequent disassembly and allowing the materials to be removed one by one for individual replacement without the need to replace the entire cable, thereby increasing its service life and reducing resource waste.

[0015] 2. A reinforcement and anti-loosening mechanism is set up. Through the cooperation of the positioning cylinder, the connecting pin and the positioning clamping ring, the arc wire mesh and the anti-corrosion layer are conveniently clamped on the outside of the low-smoke fire-resistant layer, forcing the arc wire mesh to reinforce the materials spliced ​​inside the cable, increasing stability and preventing looseness. In addition, through the cooperation of the arc convex ring and the limit groove, the clamping and limiting effect is further improved to prevent loosening. Then, through the cooperation of the anti-corrosion layer and the wear-resistant outer layer, the corrosion resistance and wear resistance of the cable are improved, and a buffer cotton pad is filled between the anti-corrosion layer and the wear-resistant outer layer. When the cable is colliding, the impact force is reduced, the internal force is reduced, and damage is prevented. In addition, through the cooperation of the positioning cylinder, the connecting pin and the positioning clamping ring, the limit is conveniently released during disassembly, which improves the efficiency of disassembly.

[0016] 3. An anti-deviation and heat dissipation mechanism is set up. The concave limit block is used to ensure the stability of the elastic support plate. The elastic limit plate is then used to limit the insulating sleeve and the conductor, fixing the position of the insulating sleeve and the conductor to prevent deviation. At the same time, the cross support plate and the reinforcing ribs inside the hollow tube are used to facilitate the rebound and reset of the cable after bending, ensuring the elasticity of the cable. The hollow tube is equipped with a heat-conducting rod and a heat-conducting silicone pad to transfer and disperse the heat to prevent heat from concentrating, thereby reducing the temperature inside the cable.

[0017] In summary, through the coordination of modular splicing flame retardant mechanism and reinforced anti-loosening mechanism, multiple materials are modularly spliced ​​together on the outside of the conductor, which ensures the low smoke and flame retardant effect of the cable, while increasing the wear resistance and corrosion resistance. When part of the material or conductor is damaged, it can be removed and replaced without the need for overall replacement, which increases the service life of the cable. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] The accompanying drawings are used to provide further understanding of the present invention and constitute a part of the specification. They are used to explain the present invention together with the embodiments of the present invention and do not constitute a limitation of the present invention.

[0019] In the attached figure: Figure 1 It is a structural schematic diagram of the present invention; Figure 2 This is a schematic structural diagram of the modular splicing flame retardant mechanism of the present invention; Figure 3 This is a schematic diagram of the installation structure of the splicing plugboard of the present invention; Figure 4 This invention Figure 3 Schematic diagram of the structure of area A; Figure 5 This is a schematic diagram of the installation structure of the magic tape of the present invention; Figure 6 It is a structural schematic diagram of the reinforcement and anti-loosening mechanism of the present invention; Figure 7 This invention Figure 6 Schematic diagram of the structure of area B in the middle; Figure 8 This is a schematic diagram of the installation structure of the positioning card frame of the present invention; Figure 9 It is a structural schematic diagram of the anti-deflection and heat dissipation mechanism of the present invention.

[0020] Numbers in the figure: 1, conductor; 2, insulating sleeve; 3. Modular splicing flame retardant mechanism; 301. Limiting slot; 302. Positioning card frame; 303. Positioning socket; 304. Alignment rod; 305. Annular partition; 306. Glued glass ribbon; 307. Calcined mica tape; 308. Flame retardant rock wool; 309. Anti-slip groove; 310. Anti-deflection groove; 311. Splicing board; 312. Low-smoke fire-resistant layer; 313. Magic adhesive; 4. Reinforced anti-loosening mechanism; 401. Curved wire mesh; 402. Anti-corrosion layer; 403. Mounting slot; 404. Positioning cylinder; 405. Thermally conductive rubber block; 406. Positioning clamping ring; 407. Connecting pin; 408. Curved convex ring; 409. Limiting groove; 410. Buffer pad; 411. Wear-resistant outer layer; 412. Marking ring; 5. Anti-deflection and heat dissipation mechanism; 501. Hollow tube; 502. Elastic support plate; 503. Concave limit block; 504. Elastic limit plate; 505. Cross support plate; 506. Reinforcement rib; 507. Heat conducting rod; 508. Thermal conductive silicone pad. DETAILED DESCRIPTION

[0021] The preferred embodiments of the present invention are described below with reference to the accompanying drawings. It should be understood that the preferred embodiments described herein are only used to illustrate and explain the present invention, and are not used to limit the present invention.

[0022] Example: Figure 1-9 As shown, the present invention provides a technical solution, a smart energy power cable, including four conductors 1, each of which is sheathed with an insulating sleeve 2, and a modular splicing flame retardant mechanism 3 is provided on the outer side of the insulating sleeve 2, and the modular splicing flame retardant mechanism 3 includes a limit card slot 301; Limiting slots 301 are equidistantly formed on the outside of the four insulating sleeves 2. Positioning frames 302 are symmetrically sleeved on the outside of the limiting slots 301. Annular partitions 305 are installed on the outside of the positioning frames 302. One end of one annular partition 305 is symmetrically formed with a positioning hole 303, and another end of the other annular partition 305 is symmetrically clamped with an alignment rod 304. Annular partitions 305 are installed on the outside of the two positioning card frames 302. Glue-coated glass ribbons 306 are wound on both sides of the corresponding annular partitions 305 on the outside of the insulating sleeve 2. Calcined mica tapes 307 are wound on the outside of the glue-coated glass ribbons 306. Flame-retardant rock wool 308 is filled equidistantly between the glue-coated glass ribbons 306 and the calcined mica tapes 307. Anti-slip grooves 309 are provided on the outside of the flame-retardant rock wool 308 and the inner wall of the calcined mica tapes 307. In order to ensure the stability of the splicing, one end of the alignment rod 304 is embedded in the interior of the positioning socket 303. The inner wall of the glue-coated glass ribbon 306 is in contact with the outer side of the positioning card frame 302, and the inner wall of the glue-coated glass ribbon 306 is coated with heat-resistant adhesive. Splicing plates 311 are equidistantly connected at both ends of the annular partition 305, and anti-deflection grooves 310 are opened at both ends of the flame-retardant rock wool 308; A low-smoke fire-resistant layer 312 is sleeved on the outside of the calcined mica tape 307. Magic tape 313 is installed on the outer side of one end and the inner wall of the other end of the low-smoke fire-resistant layer 312. In order to prevent the flame-retardant rock wool 308 from deflecting, one end of the splicing plug plate 311 is embedded in the anti-deviation groove 310. The low-smoke fire-resistant layer 312 is filled with halogen-free material polyethylene.

[0023] A reinforcement and anti-loosening mechanism 4 is provided on the outer side of the annular partition 305, and the reinforcement and anti-loosening mechanism 4 includes an arc-shaped wire mesh 401; The outer side of the low-smoke fire-resistant layer 312 is symmetrically sleeved with a curved wire mesh 401, and the outer side of the curved wire mesh 401 is symmetrically sleeved with an anti-corrosion layer 402. In order to improve the anti-corrosion effect, the anti-corrosion layer 402 is filled with polyvinyl chloride. One end of the curved wire mesh 401 and one end of the anti-corrosion layer 402 are in contact with one end of the annular partition 305. The outer sides of the two annular partitions 305 are provided with mounting grooves 403, and positioning cylinders 404 are symmetrically clamped inside the mounting grooves 403. Heat-conducting rubber blocks 405 are filled at positions on both sides of the mounting grooves 403 corresponding to the positioning cylinders 404. The outer sides of the two opposing annular partitions 305 are symmetrically sleeved with positioning clamping rings 406. The interiors of the two positioning clamping rings 406 are symmetrically connected with connecting pins 407 through threads. The inner walls of the positioning clamping rings 406 are symmetrically clamped with arc-shaped convex rings 408. A limiting groove 409 is provided on the outer side of the anti-corrosion layer 402 at a position corresponding to the outer side of the arc-shaped convex ring 408. In order to facilitate the positioning of the anti-corrosion layer 402, the outer side of the connecting pin 407 is connected to the inner wall of the positioning cylinder 404 through threads. The connecting pin 407 is made of heat-conducting material, and the bottom end of the arc-shaped convex ring 408 is embedded in the limiting groove 409. A cushioning cotton pad 410 is provided on the outside of the anti-corrosion layer 402 at a position corresponding to one side of the positioning clamping ring 406. A wear-resistant outer layer 411 is sleeved on the outside of the cushioning cotton pad 410 and the outside of the positioning clamping ring 406. A marking ring sleeve 412 is fixedly sleeved on the outside of the wear-resistant outer layer 411 at a position corresponding to the outside of the positioning clamping ring 406. In order to improve the wear resistance and cushioning effect, the wear-resistant outer layer 411 is made of chloroprene rubber. The thickness of the cushioning cotton pad 410 is equal to the thickness of the positioning clamping ring 406. The curved wire mesh 401, the anti-corrosion layer 402 and the positioning clamping ring 406 are staggered with each other. An anti-deflection and heat dissipation mechanism 5 is provided between the four insulating sleeves 2, and the anti-deflection and heat dissipation mechanism 5 includes a hollow tube 501; A hollow tube 501 is provided between the four insulating sleeves 2. Elastic support plates 502 are equidistantly connected to the outside of the hollow tube 501. Concave limit blocks 503 are connected to the inner wall of the positioning frame 302 at positions corresponding to the outer sides of the elastic support plates 502. Elastic limit plates 504 are connected to both ends of the elastic support plates 502. Cross support plates 505 are equidistantly connected to the inside of the hollow tube 501, and reinforcing ribs 506 are connected to the inner wall of the cross support plate 505. Heat-conducting rods 507 are equidistantly connected to the outside of the hollow tube 501, and thermally conductive silicone pads 508 are connected to both ends of the heat-conducting rod 507. In order to limit the conductor 1, one end of the elastic support plate 502 is embedded in the concave limit block 503, and the inner wall of the elastic limit plate 504 is in contact with the outer side of the insulating sleeve 2. The thermally conductive silicone pads 508 at both ends of the heat-conducting rod 507 are respectively in contact with the outer and inner walls of the hollow tube 501.

[0024] The working principle and usage process of the present invention are as follows: First, the positioning card frame 302 and the annular partition 305 are conveniently sleeved on the outside of the insulating sleeve 2 through the limiting card slot 301, and the alignment rod 304 is inserted into the positioning socket 303, so that the two positioning card frames 302 and the two annular partitions 305 are relatively aligned to prevent deviation, thereby limiting the four insulating sleeves 2 inside the positioning card frame 302. Then, the adhesive-coated glass ribbon 306 is wound and fixed, thereby improving the stability of the positioning card frame 302 and the annular partition 305 on the outside of the insulating sleeve 2; Next, the anti-deflection groove 310 and the splicing plug plate 311 cooperate to facilitate filling the flame-retardant rock wool 308 on the outside of the coated glass ribbon 306, and a second winding is performed with the calcined mica tape 307. At the same time, the anti-slip groove 309 cooperates to further improve the stability of the flame-retardant rock wool 308, so that the coated glass ribbon 306, the flame-retardant rock wool 308 and the calcined mica tape 307 are stacked and spliced ​​together, thereby improving the flame retardant effect of the cable. Then, the low-smoke fire-resistant layer 312 is wrapped and fixed to the outside of the calcined mica tape 307 using magic tape 313, further improving the fire prevention effect while reducing pollution to the environment. Next, by utilizing the cooperation of the positioning cylinder 404 and the connecting pin 407, the positioning clamping ring 406 is fixed to the outside of the annular partition 305, and by utilizing the cooperation of the arc-shaped convex ring 408 and the limiting groove 409, the arc-shaped wire mesh 401 and the anti-corrosion layer 402 are clamped at the same time, so that the arc-shaped wire mesh 401 and the anti-corrosion layer 402 are symmetrically spliced ​​on the outside of the low-smoke fire-resistant layer 312, and then cooperated with the wear-resistant outer layer 411, thereby improving the stability, corrosion resistance and wear resistance of the cable and increasing the service life of the cable. In addition, the cushioning pad 410 is utilized to mitigate the impact force when the cable is hit, reduce the internal force, and prevent damage. Then, the heat can be transferred through the cooperation of the heat-conducting rubber block 405 inside the installation groove 403, so that the heat inside the cable is diffused to the outside and passes through the positioning clamping ring 406 and the wear-resistant outer layer 411 to the outside, thereby reducing the temperature inside the cable. Next, when part of the material inside the cable is damaged, the outermost wear-resistant outer layer 411 is peeled off according to the position of the marking ring 412 to expose the positioning clamping ring 406. Then, the connecting pin 407 is conveniently rotated to disassemble the positioning clamping ring 406, and the limit of the arc wire mesh 401 and the anti-corrosion layer 402 is released, which is convenient for disassembly and assembly. Then, the low-smoke fire-resistant layer 312, the calcined mica tape 307 and the coated glass ribbon 306 are removed layer by layer, and the damaged part is replaced. The other parts of the cable can still be used, which increases the service life of the cable. The damaged conductor 1 can be divided and replaced, which further improves convenience and reduces material waste. Finally, the stability of the elastic support plate 502 is ensured by the cooperation of the concave limit block 503, and the elastic limit plate 504 is used to limit the insulating sleeve 2 and the conductor 1, thereby fixing the stability of the insulating sleeve 2 and the conductor 1 and preventing the occurrence of offset. In addition, the cross support plate 505 and the reinforcing ribs 506 inside the hollow tube 501 cooperate to improve the rebound effect of the cable after bending, and the hollow tube 501 is installed with a heat-conducting rod 507 and a heat-conducting silicone pad 508 to transfer and disperse the heat to prevent the heat from being concentrated, thereby reducing the temperature inside the cable.

[0025] Finally, it should be noted that the above description is merely a preferred embodiment of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art will be able to modify the technical solutions described in the aforementioned embodiments or substitute equivalents for some of the technical features. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present invention shall be included within the scope of protection of the present invention.

Claims

1. A smart energy power cable comprising four conductors (1), characterized in that: The outer sides of the four conductors (1) are all sleeved with insulating sleeves (2), and the outer sides of the insulating sleeves (2) are provided with modular splicing flame retardant mechanisms (3), and the modular splicing flame retardant mechanisms (3) include limit slots (301); The four insulating sleeves (2) are provided with limit slots (301) at equal intervals on their outer sides, and the limit slots (301) are symmetrically sleeved with positioning frames (302) on their outer sides, and annular partitions (305) are installed on the outer sides of the positioning frames (302), one end of one of the annular partitions (305) is symmetrically provided with a positioning hole (303), and one end of another annular partition (305) is symmetrically clamped with an alignment rod (304); Glue-coated glass ribbons (306) are wound on both sides of the outer side of the insulating sleeve (2) corresponding to the annular partition (305), a calcined mica tape (307) is wound on the outer side of the glue-coated glass ribbon (306), and flame-retardant rock wool (308) is filled equidistantly between the glue-coated glass ribbon (306) and the calcined mica tape (307), and anti-slip grooves (309) are provided on the outer side of the flame-retardant rock wool (308) and the inner wall of the calcined mica tape (307).

2. The smart energy power cable according to claim 1, characterized in that: One end of the alignment rod (304) is embedded in the interior of the positioning socket (303), and the inner wall of the adhesive-coated glass ribbon (306) is in contact with the outer side of the positioning card frame (302). The inner wall of the adhesive-coated glass ribbon (306) is coated with heat-resistant adhesive.

3. The smart energy power cable according to claim 1, characterized in that: Both ends of the annular partition (305) are equidistantly connected with splicing plates (311), and both ends of the flame-retardant rock wool (308) are provided with anti-deflection grooves (310); A low-smoke fire-resistant layer (312) is sleeved on the outer side of the calcined mica tape (307), and magic tape (313) is installed on the outer side of one end and the inner wall of the other end of the low-smoke fire-resistant layer (312).

4. The smart energy power cable according to claim 3, characterized in that: One end of the splicing plug plate (311) is embedded in the anti-deflection groove (310), and the low-smoke fire-resistant layer (312) is filled with halogen-free polyethylene.

5. The smart energy power cable according to claim 3, characterized in that: A reinforcement and anti-loosening mechanism (4) is provided on the outer side of the annular partition (305), and the reinforcement and anti-loosening mechanism (4) comprises an arc-shaped wire mesh (401); The low-smoke fire-resistant layer (312) is symmetrically sleeved with an arc-shaped wire mesh (401), and the arc-shaped wire mesh (401) is symmetrically sleeved with an anti-corrosion layer (402); The outer sides of the two annular partitions (305) are each provided with a mounting groove (403), and the interior of the mounting groove (403) is symmetrically clamped with a positioning cylinder (404), and the interior of the mounting groove (403) is filled with heat-conducting rubber blocks (405) at positions on both sides corresponding to the positioning cylinder (404); The outer sides of the two opposite annular partitions (305) are symmetrically sleeved with positioning clamping rings (406), the interiors of the two positioning clamping rings (406) are symmetrically connected with connecting pins (407) through threads, the inner walls of the positioning clamping rings (406) are symmetrically clamped with arc-shaped convex rings (408), and a limiting groove (409) is provided on the outer side of the anti-corrosion layer (402) at a position corresponding to the outer side of the arc-shaped convex ring (408); A buffer cotton pad (410) is provided on the outside of the anti-corrosion layer (402) at a position corresponding to one side of the positioning clamping ring (406), and a wear-resistant outer layer (411) is sleeved on the outside of the buffer cotton pad (410) and the outside of the positioning clamping ring (406), and a marking ring sleeve (412) is fixedly sleeved on the outside of the wear-resistant outer layer (411) at a position corresponding to the outside of the positioning clamping ring (406).

6. The smart energy power cable according to claim 5, characterized in that: The anti-corrosion layer (402) is filled with polyvinyl chloride, and one end of the arc-shaped wire mesh (401) and one end of the anti-corrosion layer (402) are in contact with one end of the annular partition (305).

7. The smart energy power cable according to claim 5, characterized in that: The outer side of the connecting pin (407) is connected to the inner wall of the positioning cylinder (404) through a threaded connection. The connecting pin (407) is made of a heat-conducting material. The bottom end of the arc-shaped convex ring (408) is embedded in the limiting groove (409).

8. The smart energy power cable according to claim 5, characterized in that: The wear-resistant outer layer (411) is made of chloroprene rubber, the thickness of the buffer pad (410) is equal to the thickness of the positioning clamping ring (406), and the arc-shaped wire mesh (401), the anti-corrosion layer (402) and the positioning clamping ring (406) are arranged in an interlaced manner.

9. The smart energy power cable according to claim 5, characterized in that: An anti-deflection and heat dissipation mechanism (5) is provided between the four insulating sleeves (2), and the anti-deflection and heat dissipation mechanism (5) comprises a hollow tube (501); A hollow tube (501) is provided between the four insulating sleeves (2), and elastic support plates (502) are equidistantly connected to the outside of the hollow tube (501), and a concave limiting block (503) is connected to the inner wall of the positioning frame (302) at a position corresponding to the outside of the elastic support plate (502), and elastic limiting plates (504) are connected to both ends of the elastic support plate (502); Cross support plates (505) are equidistantly clamped inside the hollow tube (501), reinforcing ribs (506) are clamped on the inner wall of the cross support plate (505), heat conducting rods (507) are equidistantly clamped on the outer side of the hollow tube (501), and heat conducting silicone pads (508) are clamped at both ends of the heat conducting rods (507).

10. The smart energy power cable according to claim 9, characterized in that: One end of the elastic support plate (502) is embedded in the concave limiting block (503), the inner wall of the elastic limiting plate (504) is in contact with the outer side of the insulating sleeve (2), and the thermal conductive silicone pads (508) at both ends of the thermal conductive rod (507) are in contact with the outer side and inner wall of the hollow tube (501), respectively.

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