A high-durability and wear-resistant power cable for new energy applications

Abstract

This invention discloses a high-durability, wear-resistant power cable for new energy applications, relating to the field of cable technology. Several textile reinforcing ropes are equidistantly embedded inside the relay limiting sleeve. Several double-concave hollow plates are equidistantly bonded to the inner end of the relay limiting sleeve. An inner limiting reinforcing strip is sleeved between two double-concave hollow plates. A relay elastic column is laid on the inner end of the double-concave hollow plate. An inner limiting shielding strip is attached to the side end of the relay elastic column. A multi-hole mating plate is bonded to the inner end of the inner limiting shielding strip. An inner insulating elastic sleeve is installed on the inner end of the multiple multi-hole mating plates. This invention effectively solves the problem in the prior art where the lack of effective buffer components inside the cable leads to insufficient internal elastic support when bending, causing minor breakage and damage to the filler material. This invention ensures the overall insulation and support protection of the cable during use, improving its stability and service life.

Description

Technical Field

[0001] This invention relates to the field of cable technology, specifically to a high-durability, wear-resistant power cable for new energy applications. Background Technology

[0002] The new energy sector places higher and more special demands on power cables. These application environments are often more stringent, complex, and dynamic, requiring them to meet the basic functions of traditional power cables while also being optimized for specific environmental challenges. The main application scenarios and special requirements include photovoltaic power generation systems, wind power generation systems, and electric vehicle charging facilities, which require excellent weather resistance, high temperature resistance, high flame retardancy, chemical corrosion resistance, flexibility, and bending fatigue life.

[0003] However, when using cables in electric vehicle charging facilities, existing cables do not have effective buffer components inside. This causes them to be subjected to significant compression layer by layer from the outer insulation layer to the inner core when bent, resulting in minor breakage and damage to the middle filling layer. This affects the effectiveness of the cable's insulation and support protection, thereby affecting its stability and service life in actual use. Summary of the Invention

[0004] This invention provides a high-durability, wear-resistant power cable for new energy applications, which effectively solves the problem mentioned in the background art that existing cables used in electric vehicle charging facilities do not have effective buffer components inside, causing them to be subjected to significant compression layer by layer from the outer insulation layer to the inner core when bent. This results in minor breakage and damage to the middle filling layer, affecting the cable's insulation and support protection, and thus impacting its stability and service life in actual use.

[0005] To achieve the above objectives, the present invention provides the following technical solution: a high-durability and wear-resistant power cable for new energy applications, comprising a relay limiting sleeve, wherein a buffer protection component is provided on the side end of the relay limiting sleeve;

[0006] The cushioning and protective assembly includes textile-reinforced rope;

[0007] The relay limiting sleeve has several textile reinforcing ropes embedded at equal intervals on its inner side, and several double concave hollow plates are bonded at equal intervals on its inner end. An inner limiting reinforcing strip is sleeved between two of the double concave hollow plates.

[0008] The inner end of the double-concave hollow plate is provided with a relay elastic column, and the side end of the relay elastic column is attached with an inner limiting shielding strip.

[0009] The inner end of the inner limiting shielding strip is bonded with a perforated mating plate, and an inner insulating elastic sleeve is installed on the inner end of the multiple perforated mating plates.

[0010] The inner insulating elastic sleeve is provided with several flame-retardant sliding strips at equal intervals on its inner side, and the inner end of the flame-retardant sliding strips is provided with a buffer pressing block.

[0011] The inner ends of the multiple buffer pressing blocks are fitted with power supply cores, and the outer ends of the relay limiting sleeve are equidistantly covered with heat-insulating and flame-retardant strips.

[0012] According to the above technical solution, the longitudinal section of both sides of the double concave hollow plate is U-shaped, and the inner diameter of the inner limiting shielding strip is equal to the outer diameter of the multi-hole mating plate.

[0013] According to the above technical solution, several heat-resistant silicone sleeves are laid at equal intervals on the outer end of the heat-insulating and flame-retardant strip.

[0014] An elastic pressing block is embedded in the inner side of the heat-resistant silicone sleeve, and several intermediate reinforcing ropes are equidistantly connected to the side end of the elastic pressing block.

[0015] The middle limit reinforcing rope is equidistantly sleeved with several locking and positioning plates on its side ends, and a buffer linkage plate is bonded between two of the locking and positioning plates.

[0016] The outer end of the heat-resistant silicone sleeve is covered with a pressing treatment pad, and several outer limit shielding strips are laid at equal intervals on the side end of the pressing treatment pad.

[0017] A contact buffer strip is adhered to the side end of the outer limiting shield strip, and an anti-puncture limiting strip is laid on the outer end of the contact buffer strip.

[0018] According to the above technical solution, the longitudinal section of the inner end of the buffer pressing block is arc-shaped, the longitudinal section of the heat-resistant silicone sleeve is T-shaped, and the side end of the locking positioning plate is attached to the side end of the heat-resistant silicone sleeve and the elastic pressing block.

[0019] According to the above technical solution, the diameter of the locking positioning plate is equal to the diameter of the buffer linkage plate, and the side ends of the two adjacent pressing treatment pads are in contact with each other.

[0020] According to the above technical solution, the inner end of the pressing pad is bonded to the outer end of the heat insulation and flame retardant strip, and the side ends of two adjacent contact buffer strips are bonded to each other.

[0021] According to the above technical solution, a woven limiting sleeve is sleeved on the outer end of the multiple anti-stab limiting strips, and a relay pressing sleeve is sleeved on the outer end of the woven limiting sleeve. A number of buffer processing holes are equidistantly opened on the side end of the relay pressing sleeve.

[0022] The outer end of the relay pressing sleeve is fitted with an armored anti-stab sleeve, and the outer end of the armored anti-stab sleeve is fitted with a reinforced elastic sleeve.

[0023] According to the above technical solution, the outer diameter of the relay pressing sleeve is equal to the inner diameter of the armored anti-stab sleeve, and the longitudinal section of the double concave hollow plate, inner limiting reinforcing strip, inner limiting shielding strip, multi-hole mating plate, flame-retardant sliding strip, outer limiting shielding strip, contact buffer strip and anti-stab limiting strip is arc-shaped.

[0024] According to the above technical solution, an outer protective component is provided on the side end of the reinforced elastic sleeve;

[0025] The outer protective component includes an anti-ultraviolet treated sheet;

[0026] An anti-UV treatment sheet is bonded to the outer end of the reinforced elastic sleeve, and several wear-resistant composite sheets are bonded at equal intervals to the outer end of the reinforced elastic sleeve. Several pressure-resistant and puncture-resistant sheets are bonded at equal intervals to the side ends of the wear-resistant composite sheets.

[0027] A double-clamp isolation sleeve is fitted onto the side end of the reinforced elastic sleeve at the position corresponding to the wear-resistant composite piece, and an isolation treatment piece is bonded between the two double-clamp isolation sleeves.

[0028] According to the above technical solution, the longitudinal section of the double-card isolation sleeve is L-shaped, the inner end of the double-card isolation sleeve is attached to the outer end of the pressure-resistant and anti-penetration sheet, and the side end of the UV-resistant sheet is attached to the side end of the double-card isolation sleeve.

[0029] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0030] 1. Equipped with a buffer protection component, the buffer pressing block is separated from the flame-retardant sliding belt. The buffer pressing block is fitted with the power supply core. The buffer pressing block and the flame-retardant sliding belt swing together to realize pressing and displacement, reducing the direct impact of rigid pressing, reducing the damage to the power supply core caused by reciprocating torsion and pressing, and improving the stability and service life of the core. The inner insulating elastic sleeve pushes the multi-hole mating plate to the side, and the inner limiting shielding strip presses the multi-hole mating plate to the side. Through bidirectional synchronous pressing, and by using the multi-hole mating plate to press and stretch layer by layer, and bend and fill each other, the rigid pressure on the components under internal pressure is reduced, and the direct damage to the internal filling is avoided.

[0031] The internal structure is reinforced with elastic relay columns, textile reinforcing ropes, double-concave hollow plates, and inner limiting reinforcing strips to enhance tensile strength. External elastic buffering is provided during pulling, and the gaps between multiple components are twisted and pressed together to improve the cable's tensile and torsional resistance. This allows for stable buffering, improving the stability of its support and integration. Heat-resistant silicone sleeves and elastic pressing blocks are used to buffer multiple sets of relay limiting sleeves. Combined with locking positioning plates and buffer linkage plates, segmented positioning support is achieved, realizing multi-segment combined support and buffer elastic support. This increases the range of cable bending and twisting, ensuring operational stability and enhancing its bending strength.

[0032] Through a gradual buffering process from the inside out, and by using gap twisting and elastic expansion and compression between multiple components, combined with multi-segment braiding reinforcement and tensile limiting, the problem of insufficient internal elastic support when bending due to the lack of effective buffer components in the cable is effectively solved in the existing technology. This results in minor breakage and damage to the filler material. The cable can be used to ensure its overall insulation and support protection, thereby improving its stability and service life.

[0033] 2. An outer protective assembly is provided. The wear-resistant composite sheet is attached to the side of the reinforced elastic sleeve, and the pressure-resistant anti-penetration sheet is bonded to the side of the wear-resistant composite sheet. A double-clamp isolation sleeve is then bonded to the side of the reinforced elastic sleeve. The wear-resistant composite sheet and the pressure-resistant anti-penetration sheet are pressed and limited, blocking and resisting sharp external objects and buffering and reducing wear from reciprocating contact friction. This reduces cable insulation loss and improves the stability of cable laying and continuous use. The isolation treatment sheet is bonded to the side of the pressure-resistant anti-penetration sheet and the double-clamp isolation sleeve, respectively. An anti-UV treatment sheet is then bonded to the side of the reinforced elastic sleeve. The isolation treatment sheet and the anti-UV treatment sheet block ultraviolet rays, reducing the impact of ultraviolet rays on the reinforced elastic sleeve, slowing down the aging rate of the cable exposed to light, and extending its service life.

[0034] In summary, by cooperating with the buffer protection components and the outer sheath components, and through the internal elastic support and elastic buffering, the central elastic compression and elastic torsion fit, and the external anti-wear and anti-puncture fit, effective buffering and buffering treatment can be carried out during cable use, thereby improving the cable protection effect, extending its service life, and ensuring stable operation of the cable during continuous use. Attached Figure Description

[0035] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used together with the embodiments of the invention to explain the invention and do not constitute a limitation thereof.

[0036] In the attached diagram:

[0037] Figure 1 This is a three-dimensional structural schematic diagram of the present invention;

[0038] Figure 2 This is a schematic diagram of the structure of the buffer protection component of the present invention;

[0039] Figure 3 This is a schematic diagram of the installation structure of the elastic pressing block of the present invention;

[0040] Figure 4 This is a schematic diagram of the installation structure of the heat-resistant silicone sleeve of the present invention;

[0041] Figure 5This is a schematic diagram of the installation structure of the locking and positioning plate of the present invention;

[0042] Figure 6 This is a schematic diagram of the installation structure of the relay elastic column of the present invention;

[0043] Figure 7 This is a schematic diagram of the installation structure of the double-concave hollow plate of the present invention;

[0044] Figure 8 This is a schematic diagram of the structure of the outer protective component of the present invention;

[0045] Figure 9 This is a schematic diagram of the installation structure of the isolation treatment sheet of the present invention;

[0046] Labels in the diagram: 1. Relay restriction sleeve;

[0047] 2. Buffer and Protection Components; 201. Textile Reinforcing Rope; 202. Double-Concave Hollow Plate; 203. Inner Limiting Reinforcing Strip; 204. Relay Elastic Column; 205. Inner Limiting Shielding Strip; 206. Multi-hole Fitting Plate; 207. Inner Insulating Elastic Sleeve; 208. Flame-retardant Sliding Belt; 209. Buffer Pressing Block; 210. Power Supply Core; 211. Heat Insulation and Flame Retardant Belt; 212. Heat-resistant Silicone Sleeve; 213. Elastic Pressing Block; 214. Middle Limiting Reinforcing Rope; 215. Clamping Positioning Plate; 216. Buffer Linkage Plate; 217. Pressing Treatment Pad; 218. Outer Limiting Shielding Strip; 219. Contact Buffer Strip; 220. Anti-stab Limiting Belt; 221. Braided Limiting Sleeve; 222. Relay Pressing Sleeve; 223. Buffer Treatment Hole; 224. Armored Anti-stab Sleeve; 225. Reinforced Elastic Sleeve;

[0048] 3. Outer protective components; 301. UV-resistant sheet; 302. Abrasion-resistant composite sheet; 303. Compression-resistant and puncture-resistant sheet; 304. Double-card isolation sleeve; 305. Isolation treatment sheet. Detailed Implementation

[0049] The preferred embodiments of the present invention will be described below with reference to the accompanying drawings. It should be understood that the preferred embodiments described herein are for illustration and explanation only and are not intended to limit the present invention.

[0050] Example: Figure 1-9 As shown, the present invention provides a technical solution: a high-durability and wear-resistant power cable for new energy applications, including a relay limiting sleeve 1, and a buffer protection component 2 is provided on the side end of the relay limiting sleeve 1.

[0051] The buffer protection component 2 includes a textile reinforcing rope 201, a double-concave hollow plate 202, an inner limiting reinforcing strip 203, a relay elastic column 204, an inner limiting shielding strip 205, a multi-hole mating plate 206, an inner insulating elastic sleeve 207, a flame-retardant sliding belt 208, a buffer pressing block 209, a power supply core 210, a heat-insulating and flame-retardant belt 211, a heat-resistant silicone sleeve 212, an elastic pressing block 213, a middle limiting reinforcing rope 214, a locking positioning plate 215, a buffer linkage plate 216, a pressing treatment pad 217, an outer limiting shielding strip 218, a contact buffer strip 219, an anti-stab limiting belt 220, a braided limiting sleeve 221, a relay pressing sleeve 222, a buffer treatment hole 223, an armored anti-stab sleeve 224, and a reinforcing elastic sleeve 225.

[0052] Several textile reinforcing ropes 201 are equidistantly embedded in the inner side of the relay limiting sleeve 1. Several double concave hollow plates 202 are equidistantly bonded to the inner end of the relay limiting sleeve 1. The longitudinal section of the double concave hollow plates 202 on both sides is U-shaped to achieve locking combination and ensure the stability of the limiting connection. An inner limiting reinforcing strip 203 is sleeved between two double concave hollow plates 202.

[0053] A relay elastic column 204 is laid on the inner end of the double concave hollow plate 202, and an inner limiting shielding strip 205 is attached to the side end of the relay elastic column 204.

[0054] The inner end of the inner limiting shielding strip 205 is bonded with a perforated mating plate 206. The sides of the multiple perforated mating plates 206 are not attached to each other, so that gaps are formed between the multiple perforated mating plates 206, which facilitates deformation buffering during compression. The inner diameter of the inner limiting shielding strip 205 is equal to the outer diameter of the perforated mating plate 206, which improves the stability of the combined connection and alignment support. The inner ends of the multiple perforated mating plates 206 are equipped with inner insulating elastic sleeves 207.

[0055] Several flame-retardant sliding strips 208 are laid at equal intervals on the inner side of the inner insulating elastic sleeve 207. A buffer pressing block 209 is laid on the inner end of the flame-retardant sliding strip 208. The longitudinal section of the inner end of the buffer pressing block 209 is arc-shaped to achieve steady pressing and alignment, and ensure the tightness of the connection surface.

[0056] Multiple buffer pressing blocks 209 have power supply wire cores 210 sleeved on their inner ends;

[0057] The outer end of the relay limiting sleeve 1 is equidistantly covered with heat-insulating and flame-retardant strips 211, and the outer end of the heat-insulating and flame-retardant strips 211 is equidistantly covered with several heat-resistant silicone sleeves 212. The longitudinal section of the heat-resistant silicone sleeves 212 is T-shaped. The side end of the snap-fit ​​positioning plate 215 is attached to the side end of the heat-resistant silicone sleeves 212 and the elastic pressing block 213 to improve the stability of snap-fit ​​limiting and combination alignment.

[0058] An elastic pressing block 213 is embedded in the inner side of the heat-resistant silicone sleeve 212, and several intermediate reinforcing ropes 214 are equidistantly connected to the side end of the elastic pressing block 213.

[0059] Several locking positioning plates 215 are equidistantly sleeved on the side end of the middle limit reinforcing rope 214. The diameter of the locking positioning plate 215 is equal to the diameter of the buffer linkage plate 216, so as to realize the alignment and pressing and sealing treatment. The buffer linkage plate 216 is bonded between two locking positioning plates 215.

[0060] A pressing treatment pad 217 is laid on the outer end of the heat-resistant silicone sleeve 212. The sides of two adjacent pressing treatment pads 217 are attached to each other. The inner end of the pressing treatment pad 217 is attached to the outer end of the heat-insulating and flame-retardant strip 211, so as to achieve side end pressing alignment and outer end protection and isolation treatment. Several outer limit shielding strips 218 are laid at equal intervals on the side end of the pressing treatment pad 217.

[0061] A contact buffer strip 219 is bonded to the side end of the outer limiting shielding strip 218. The side ends of two adjacent contact buffer strips 219 are attached to each other to achieve a buffer contact combination, ensuring the stability of isolation restriction and elastic expansion. A stab-proof limiting strip 220 is laid on the outer end of the contact buffer strip 219. The longitudinal section of the double concave hollow plate 202, the inner limiting reinforcing strip 203, the inner limiting shielding strip 205, the multi-hole mating plate 206, the flame-retardant sliding strip 208, the outer limiting shielding strip 218, the contact buffer strip 219 and the stab-proof limiting strip 220 is arc-shaped to ensure the stability of the pressing limit and the alignment combination.

[0062] Multiple anti-stab limiting bands 220 are fitted with woven limiting sleeves 221 on their outer ends, and intermediate pressing sleeves 222 are fitted with intermediate pressing sleeves 222 on their outer ends. Several buffer treatment holes 223 are equidistantly opened on the side ends of the intermediate pressing sleeves 222.

[0063] An armored anti-stab sleeve 224 is sleeved on the outer end of the relay pressing sleeve 222. The outer diameter of the relay pressing sleeve 222 is equal to the inner diameter of the armored anti-stab sleeve 224, so as to achieve alignment and sealing isolation. A reinforced elastic sleeve 225 is sleeved on the outer end of the armored anti-stab sleeve 224.

[0064] The side end of the reinforced elastic sleeve 225 is provided with an outer protective component 3;

[0065] The outer protective component 3 includes an anti-ultraviolet treatment sheet 301, an abrasion-resistant composite sheet 302, a pressure-resistant and puncture-resistant sheet 303, a double-clamp isolation sleeve 304, and an isolation treatment sheet 305;

[0066] An anti-UV treatment sheet 301 is bonded to the outer end of the reinforcing elastic sleeve 225. The side end of the anti-UV treatment sheet 301 is fitted with the side end of the double-clamp isolation sleeve 304 to ensure the stability of the overall sealing and isolation. Several wear-resistant combination sheets 302 are bonded at equal intervals to the outer end of the reinforcing elastic sleeve 225. Several pressure-resistant anti-penetration sheets 303 are bonded at equal intervals to the side end of the wear-resistant combination sheets 302. A double-clamp isolation sleeve 304 is sleeved at the position of the wear-resistant combination sheet 302 on the side end of the reinforcing elastic sleeve 225. The longitudinal section of the double-clamp isolation sleeve 304 is L-shaped. The inner end of the double-clamp isolation sleeve 304 is fitted with the outer end of the pressure-resistant anti-penetration sheet 303 to achieve support, locking and alignment sealing. An isolation treatment sheet 305 is bonded between the two double-clamp isolation sleeves 304.

[0067] The working principle and usage process of this invention are as follows: During cable laying, workers attach the wear-resistant composite sheet 302 to the side of the reinforcing elastic sleeve 225 according to the actual environment, and then attach the pressure-resistant anti-penetration sheet 303 to the side of the wear-resistant composite sheet 302. Finally, they attach the double-clamp isolation sleeve 304 to the side of the reinforcing elastic sleeve 225, pressing and limiting the sides of the wear-resistant composite sheet 302 and the pressure-resistant anti-penetration sheet 303. After pressing, the side of the isolation treatment sheet 305 is then bonded to both the pressure-resistant anti-penetration sheet 303 and the double-clamp isolation sleeve 304, thereby completing the overall assembly. The limiting connection uses wear-resistant composite plate 302 and pressure-resistant anti-penetration plate 303 to block and resist external sharp objects, and buffer and reduce the wear of reciprocating contact friction, thereby reducing the loss of the cable insulation layer and improving the stability of cable laying and continuous use. Then, the UV-resistant treatment plate 301 is bonded to the side end of the reinforcing elastic sleeve 225. The isolation treatment plate 305 and the UV-resistant treatment plate 301 block ultraviolet rays, reduce the impact of ultraviolet rays on the reinforcing elastic sleeve 225, slow down the aging rate of the cable exposed to light, and extend its service life.

[0068] When the cable is in use, power is supplied through the power core 210. During vehicle charging, the cable undergoes repeated bending and twisting. At this time, the internal components of the cable separate from the buffer compression block 209 via the flame-retardant sliding band 208. The buffer compression block 209 causes the power core 210 to twist slightly along the flame-retardant sliding band 208, preventing it from undergoing large-scale twisting. During compression, the buffer compression block 209 performs compression oscillation, achieving compression displacement and reducing the direct impact of rigid compression. This allows the power core 210 inside the cable to effectively undergo elastic compression and torsional buffering during use, reducing damage from reciprocating rigid torsion and compression, and improving its operational stability and usability. When the inner insulating elastic sleeve 207 is bent, it will push the porous mating plate 206 to the side. When the porous mating plate 206 is under pressure, it will press against the other porous mating plates 206 on the side and perform its own pressing process, increasing the buffer gap and pressing gap of the inner insulating elastic sleeve 207. At the same time, the outer inner limit shielding strip 205 is pressed inward. When one end of the cable is pressed, the other side is stretched, achieving steady filling and ensuring the stability of the overall internal protection. At this time, through the bending and elastic pressing of the relay elastic column 204, the overall support is provided while performing elastic load bearing and limiting treatment, so that the pressing protection can be handled steadily, improving the degree of overall bending and buffering.

[0069] The cable is isolated and protected on the outside by the relay limiting sleeve 1 and the textile reinforcing rope 201, and the inside is elastically buffered by the double concave hollow plate 202. The inside is reinforced with the inner limiting reinforcing strip 203, the textile reinforcing rope 201 and the relay elastic column 204 to enhance the tensile strength of the cable, thereby improving the cable's tensile and torsional resistance. Furthermore, the cable can be steadily buffered during torsion, stretching and bending, thereby improving the stability of its support limitation and support integration.

[0070] The heat-insulating and flame-retardant strip 211 and the flame-retardant sliding strip 208 are used for step-by-step and position-by-position flame-retardant treatment. The heat-resistant silicone sleeve 212 and the elastic pressing block 213 are used to buffer the multiple sets of relay limiting sleeves 1. At this time, the outer side is squeezed inward and the inner side is pushed outward, so that the multiple sets of relay limiting sleeves 1 cooperate and buffer each other. The locking positioning plate 215 and the buffer linkage plate 216 are used for segmented positioning support, and multiple buffer linkage plates 216 buffer and support the locking positioning plate 215. The middle limit reinforcing rope 214 is used to support the elastic pressing block 213, the heat-resistant silicone sleeve 212, the locking positioning plate 215 and the buffer linkage plate. 216 is used for combined positioning to achieve multi-segment combined support and buffer elastic support, improve the range of cable bending and twisting, ensure its operational stability, and improve its bending strength. The outer protective effect of the cable is strengthened layer by layer by the outer limiting shielding strip 218, the anti-stab limiting strip 220, the braided limiting sleeve 221, and the armored anti-stab sleeve 224. The contact buffer strip 219, the relay pressing sleeve 222, and the buffer treatment hole 223 are used to place and buffer the outer compression. The relay pressing sleeve 222 and the reinforced elastic sleeve 225 are used for overall integrated support and protective support, which improves the stability of the outer insulation support limit.

[0071] Finally, it should be noted that the above descriptions are merely preferred embodiments of the present invention and are not intended to limit the present invention. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A high-durability, wear-resistant power cable for new energy applications, comprising a relay limiting sleeve (1), characterized in that: The relay limiting sleeve (1) is provided with a buffer protection component (2) on its side end; The buffer and protective component (2) includes a textile reinforcing rope (201); The relay limiting sleeve (1) has several textile reinforcing ropes (201) embedded at equal intervals on its inner side, and several double concave hollow plates (202) are bonded at equal intervals on the inner end of the relay limiting sleeve (1). An inner limiting reinforcing strip (203) is sleeved between two double concave hollow plates (202). The inner end of the double concave hollow plate (202) is provided with a relay elastic column (204), and the side end of the relay elastic column (204) is attached with an inner limiting shielding strip (205). The inner end of the inner limiting shielding strip (205) is bonded with a perforated mating plate (206), and an inner insulating elastic sleeve (207) is installed on the inner end of the multiple perforated mating plates (206). The inner insulating elastic sleeve (207) is provided with a number of flame-retardant sliding strips (208) at equal intervals on the inner side, and the inner end of the flame-retardant sliding strips (208) is provided with a buffer pressing block (209). The inner ends of the multiple buffer pressing blocks (209) are fitted with power supply cores (210), and the outer ends of the relay limiting sleeve (1) are equidistantly covered with heat-insulating and flame-retardant strips (211). Several heat-resistant silicone sleeves (212) are laid at equal intervals on the outer end of the heat-insulating and flame-retardant strip (211). An elastic pressing block (213) is embedded in the inner side of the heat-resistant silicone sleeve (212), and several intermediate reinforcing ropes (214) are equidistantly connected to the side end of the elastic pressing block (213). The middle limit reinforcing rope (214) has several locking positioning plates (215) equidistantly sleeved on its side end, and a buffer linkage plate (216) is bonded between two locking positioning plates (215). The heat-resistant silicone sleeve (212) is covered with a pressing treatment pad (217) on its outer end, and a number of outer limiting shielding strips (218) are laid at equal intervals on the side end of the pressing treatment pad (217). The outer shielding strip (218) has a contact buffer strip (219) glued to its side end, and the outer end of the contact buffer strip (219) is covered with a puncture-proof limiting strip (220).

2. The high-durability, wear-resistant power cable for new energy applications according to claim 1, characterized in that, The longitudinal sections on both sides of the double concave hollow plate (202) are U-shaped, and the inner diameter of the inner limiting shielding strip (205) is equal to the outer diameter of the porous mating plate (206).

3. The high-durability, wear-resistant power cable for new energy applications according to claim 1, characterized in that, The longitudinal section of the inner end of the buffer pressing block (209) is arc-shaped, the longitudinal section of the heat-resistant silicone sleeve (212) is T-shaped, and the side end of the locking positioning plate (215) is attached to the side end of the heat-resistant silicone sleeve (212) and the elastic pressing block (213).

4. The high-durability, wear-resistant power cable for new energy applications according to claim 3, characterized in that, The diameter of the locking positioning plate (215) is equal to the diameter of the buffer linkage plate (216), and the sides of the two adjacent pressing pads (217) are in contact with each other.

5. A high-durability, wear-resistant power cable for new energy applications according to claim 3, characterized in that, The inner end of the pressing pad (217) is attached to the outer end of the heat-insulating and flame-retardant strip (211), and the sides of two adjacent contact buffer strips (219) are attached to each other.

6. A high-durability, wear-resistant power cable for new energy applications according to claim 3, characterized in that, A woven limiting sleeve (221) is sleeved on the outer end of the multiple anti-stab limiting bands (220), and a relay pressing sleeve (222) is sleeved on the outer end of the woven limiting sleeve (221). A plurality of buffer processing holes (223) are equidistantly opened on the side end of the relay pressing sleeve (222). The outer end of the relay pressing sleeve (222) is fitted with an armored anti-stab sleeve (224), and the outer end of the armored anti-stab sleeve (224) is fitted with a reinforced elastic sleeve (225).

7. A high-durability, wear-resistant power cable for new energy applications according to claim 6, characterized in that, The outer diameter of the relay pressing sleeve (222) is equal to the inner diameter of the armored anti-stab sleeve (224). The longitudinal section of the double concave hollow plate (202), inner limiting reinforcing strip (203), inner limiting shielding strip (205), multi-hole mating plate (206), flame-retardant sliding strip (208), outer limiting shielding strip (218), contact buffer strip (219) and anti-stab limiting strip (220) is arc-shaped.

8. A high-durability, wear-resistant power cable for new energy applications according to claim 6, characterized in that, The side end of the reinforced elastic sleeve (225) is provided with an outer protective component (3); The outer protective component (3) includes an anti-ultraviolet treatment sheet (301); An anti-UV treatment sheet (301) is bonded to the outer end of the reinforced elastic sleeve (225), and several wear-resistant composite sheets (302) are bonded at equal intervals to the outer end of the reinforced elastic sleeve (225). Several pressure-resistant and anti-penetration sheets (303) are bonded at equal intervals to the side end of the wear-resistant composite sheets (302). A double-locking isolation sleeve (304) is fitted onto the side end of the reinforced elastic sleeve (225) at the position corresponding to the wear-resistant composite piece (302), and an isolation treatment piece (305) is bonded between the two double-locking isolation sleeves (304).

9. A high-durability, wear-resistant power cable for new energy applications according to claim 8, characterized in that, The longitudinal section of the double card isolation sleeve (304) is L-shaped. The inner end of the double card isolation sleeve (304) is attached to the outer end of the pressure-resistant and anti-penetration sheet (303), and the side end of the UV-resistant sheet (301) is attached to the side end of the double card isolation sleeve (304).

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