Cable fault detection device and method

Abstract

The present invention discloses a cable fault detection device and method, including a device base and a snow collision mechanism, wherein the device base includes an abnormal indication element, a trigger bearing plate is fixedly installed on the top of the abnormal indication element, a rotary base is connected to the inner side of the trigger bearing plate, a rotary snow removal panel is bonded to the outer side of the rotary base, and the rotary snow removal panel is arranged in a conical shape. The present invention sets a rotary snow removal panel, and when snowflakes accumulate on the top of the trigger bearing plate, the corresponding sliding plate will slide down, and the snowflakes will be removed by the centrifugal force generated by the rotation of the rotary snow removal panel. At the same time, the friction between the rotary snow removal panel and the trigger bearing plate generates heat, thereby preventing the snowflakes from remaining. When the trigger bearing plate rises, the rotary cylinder A rotates again, so that the rotary snow removal panel and the trigger bearing plate are heated by friction, so that when the snowflakes contact the trigger bearing plate rotary snow removal panel, they will melt and flow out, thereby preventing the snowflakes from solidifying, thereby avoiding the damage of the abnormal indication element.

Description

Technical Field

[0001] The present application relates to the technical field of photovoltaic panels, and in particular to a cable fault detection device and method. Background Art

[0002] The cable fault detection device is a device specially designed to detect cable faults in power systems. In the power transmission and distribution system, cables are key components for transmitting electric energy, but due to various reasons, cables may have insulation damage, short circuits, ground faults and other problems, which affect the normal operation of the power system. The main function of the cable fault detection device is to locate cable faults in a timely and accurate manner through precise measurement and analysis, and improve the reliability and stability of the power grid; the cable fault detection device usually uses high-precision current and voltage sensors to monitor the current and voltage waveforms in the cable in real time; by analyzing the parameters in the cable, it can quickly determine whether the cable has a fault; for example, when the cable is short-circuited, the current waveform will change abnormally, and the cable fault detection device can accurately identify and locate the fault point; the cable fault detection device uses advanced signal processing and data analysis technology to conduct a comprehensive diagnosis of the cable system. This includes monitoring of multiple aspects such as cable length, insulation resistance, conductor connection status, etc., to comprehensively judge the health of the cable. Through these detailed analyses, the specific location of the cable fault can be found more accurately, providing a strong basis for subsequent maintenance and treatment.

[0003] However, cable fault detection devices are generally installed on overhead cables and exposed to the outside. In heavy snow, snowflakes accumulate on the abnormal indicator element and freeze, and being in a low temperature state for a long time can easily cause damage to the abnormal indicator element. Therefore, in response to this problem, we need to take timely solutions to ensure the normal operation of the abnormal indicator element. This can effectively improve the stability and reliability of the cable fault detection device and ensure its normal operation under various climatic conditions. Summary of the invention

[0004] In order to overcome the above-mentioned defects of the prior art, an embodiment of the present invention provides a cable fault detection device, including a device base and a snow collision mechanism, characterized in that: the device base includes an abnormal indication element, a trigger carrier disk is fixedly installed on the top of the abnormal indication element, the inner side of the trigger carrier disk is rotatably connected to a rotary base, a rotary snow removal panel is bonded to the outer side of the rotary base, the rotary snow removal panel is arranged in a conical shape, the rotary snow removal panel and the trigger carrier disk are arranged in a close fit, a rotary column A is fixedly installed on the top of the rotary snow removal panel, a spiral spring coil A is arranged on the inner side of the rotary column A, and one end of the spiral spring coil A is fixedly connected to a linkage rope A;

[0005] One end of the linkage rope A is wound around a rotating cylinder B, a spiral spring coil B is provided on the inner side of the rotating cylinder B, a transverse support rod is rotatably connected to the inner side of the rotating cylinder B, a shield shell is fixedly installed on one end of the transverse support rod, a linkage rope B is wound around the outer side of the rotating cylinder B, the linkage rope A and the linkage rope B are wound in opposite directions, a gap is provided between the linkage rope A and the linkage rope B, one end of the linkage rope B is fixedly connected to a corresponding sliding plate, and the corresponding sliding plate is fixedly installed on the outer side of the trigger bearing plate;

[0006] A limited movement sliding column is fixedly installed on one side of the corresponding sliding plate, and the limited movement sliding column is arranged in a sliding connection with the shield shell. A corresponding node A is fixedly installed on the outer side of the limited movement sliding column, and a corresponding node B is fixedly installed on the inner side of the shield shell;

[0007] Wherein, the snow-collision mechanism includes an inclined guide rail, which is fixedly installed on one side of the shield shell, and the inner side of the inclined guide rail is slidably connected with a corresponding sliding block, and one side of the corresponding sliding block is fixedly installed with a connecting support rod.

[0008] Preferably, the connecting support rod is slidably connected to the inner side of the shield shell, a stabilizing positioning plate is fixedly installed on one end of the connecting support rod, a curved body A is hinged on one side of the stabilizing positioning plate, and a position limiting column is fixedly installed on the bottom of the stabilizing positioning plate.

[0009] Preferably, the position limiting column is attached to the bottom of the rotating cylinder A, and a curved body B is fixedly installed on one side of the corresponding sliding plate, and the curved body B and the curved body A are arranged in the same vertical plane.

[0010] Preferably, a hollow supporting structure is fixedly installed on the top of the inclined guide rail, a cylindrical hole is opened inside the hollow supporting structure, a spherical impact member is arranged in the cylindrical hole of the hollow supporting structure, and the spherical impact member is arranged in a close fit with the corresponding sliding block.

[0011] Preferably, a transverse structural plate is fixedly mounted on the side of the corresponding sliding block away from the connecting support rod, an elastic tensioning rope is sleeved on the outer side of the transverse structural plate, and one end of the elastic tensioning rope is sleeved on a movable top plate.

[0012] Preferably, the movable top plate is arranged on the top of the hollow supporting structure, and the cross-sectional area of ​​the bottom end port of the movable top plate is larger than the cross-sectional area of ​​the bottom end port of the cylindrical hole of the hollow supporting structure.

[0013] Preferably, an annular swivel seat is fixedly installed at one end of the movable top plate, an axial fixing rod is rotatably connected to the inner side of the annular swivel seat, the axial fixing rod is fixedly installed on one side of the shield shell, a cantilever arm is fixedly installed on the outer side of the annular swivel seat, and a movable collision plate is fixedly installed on the top of the cantilever arm.

[0014] Another aspect of the present invention provides a cable fault detection method, comprising:

[0015] S1: When snowflakes accumulate on the top of the trigger bearing plate, the weight of the trigger bearing plate increases, causing the corresponding sliding plate to slide down. During the sliding process, the corresponding node A rubs against the corresponding node B, which causes the corresponding sliding plate to vibrate, causing the snowflakes to be shaken off. At the same time, the linkage rope B drives the rotating cylinder B to rotate. When the rotating cylinder B rotates, it winds the linkage rope A, causing the rotating cylinder A to rotate and drive the rotating snow removal panel to rotate. The centrifugal force generated by the rotation of the rotating snow removal panel is used to remove the snowflakes. At the same time, the friction between the rotating snow removal panel and the trigger bearing plate generates heat, thereby preventing the snowflakes from remaining.

[0016] S2: When the snowflakes are removed, the weight of the trigger bearing plate is reduced, and the spiral spring coil B is used to rebound to drive the rotating column B to reversely wind the linkage rope B, thereby driving the corresponding sliding plate to rise, so that the trigger bearing plate is reset. During the rising process, the spiral spring coil A is used to rebound to drive the rotating column A to rotate again, so that the rotary snow removal panel and the trigger bearing plate are heated by friction, so that when the snowflakes come into contact with the trigger bearing plate and the rotating snow removal panel, they will melt and flow out, thereby preventing the snowflakes from solidifying;

[0017] S3: When the corresponding sliding plate slides down, the curved body B contacts the curved body A, thereby pushing the curved body A down. The distance between the curved body A and the curved body B gradually increases until they are separated. When the corresponding sliding block slides down, the elastic tension rope is stretched. When the curved body A is separated from the curved body B, the elastic tension rope rebounds and drives the corresponding sliding block to slide up and hit the spherical impact part. After being hit, the spherical impact part hits the movable top plate upward, so that the movable top plate drives the annular rotating seat to deflect. When the annular rotating seat deflects, the moving collision plate hits the trigger bearing plate to generate a large vibration to prevent snow accumulation;

[0018] S4: After the beating is completed, the movable top plate is pulled back to its original position using an elastic tensioning rope, so that the movable top plate rests on the top of the hollow support structure again. When the corresponding sliding plate slides up, the curved body B contacts the curved body A, so that the curved body A deflects upward, thereby leaving more space for the curved body B to pass through, thereby not hindering the corresponding sliding plate from sliding up and returning to its original position smoothly. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] In order to more clearly illustrate the embodiments of the present invention or the existing technical solutions, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments recorded in the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative labor.

[0020] Figure 1 It is a structural schematic diagram of the present invention.

[0021] Figure 2 It is a structural cross-sectional view of the present invention.

[0022] Figure 3 For the present invention Figure 2 A-section structure enlarged view.

[0023] Figure 4 For the present invention Figure 2 Enlarged view of the structure of part B.

[0024] Figure 5 It is a partial structural cross-sectional view of the present invention.

[0025] Figure 6 For the present invention Figure 5 Enlarged view of the C structure.

[0026] Figure 7 For the present invention Figure 1 Enlarged view of the D structure.

[0027] The reference numerals are: 1, device base; 101, abnormal indication element; 102, trigger carrier plate; 103, rotatable base; 104, rotary snow removal panel; 105, rotatable column A; 106, spiral spring coil A; 107, linkage rope A; 108, rotatable column B; 109, transverse support rod; 110, shield shell; 111, linkage rope B; 112, corresponding sliding plate; 113, limited movable sliding column; 114, corresponding node A; 115, corresponding node B ; 2. Snow collision mechanism; 201. Inclined guide rail; 202. Corresponding sliding block; 203. Connecting support rod; 204. Stable positioning plate; 205. Curved body A; 206. Position limiting column; 207. Curved body B; 208. Hollow supporting structure; 209. Spherical impact member; 210. Transverse structural plate; 211. Elastic tensioning rope; 212. Movable top plate; 213. Annular swivel seat; 214. Axis fixing rod; 215. Cantilever arm; 216. Movable collision plate. DETAILED DESCRIPTION

[0028] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0029] Example 1: Refer to the attached specification Figure 1-7 A cable fault detection device according to an embodiment of the present invention comprises a device base 1 and a snow collision mechanism 2, wherein the device base 1 comprises an abnormal indication element 101, a trigger carrier plate 102 is fixedly mounted on the top of the abnormal indication element 101, a rotary base 103 is connected to the inner side of the trigger carrier plate 102 in a rotating manner, a rotary snow removal panel 104 is bonded to the outer side of the rotary base 103, the rotary snow removal panel 104 is arranged in a conical shape, the rotary snow removal panel 104 and the trigger carrier plate 102 are arranged in a close fit, a rotary column A105 is fixedly mounted on the top of the rotary snow removal panel 104, a spiral spring coil A106 is arranged on the inner side of the rotary column A105, and a linkage rope A107 is fixedly connected to one end of the spiral spring coil A106;

[0030] like Figure 4 As shown, one end of the linkage rope A107 is wound around a rotating cylinder B108, a spiral spring coil B is provided on the inner side of the rotating cylinder B108, a transverse support rod 109 is rotatably connected to the inner side of the rotating cylinder B108, a shield shell 110 is fixedly installed on one end of the transverse support rod 109, a linkage rope B111 is wound around the outer side of the rotating cylinder B108, the linkage rope A107 and the linkage rope B111 are wound in opposite directions, a spacing is provided between the linkage rope A107 and the linkage rope B111, one end of the linkage rope B111 is fixedly connected to a corresponding sliding plate 112, and the corresponding sliding plate 112 is fixedly installed on the outer side of the trigger carrier plate 102;

[0031] like Figure 4 As shown, a limited movable sliding column 113 is fixedly installed on one side of the corresponding sliding plate 112, and the limited movable sliding column 113 is slidably connected to the shield shell 110. A corresponding node A114 is fixedly installed on the outer side of the limited movable sliding column 113, and a corresponding node B115 is fixedly installed on the inner side of the shield shell 110.

[0032] It should be noted that when the device is actually used, when snowflakes accumulate on the top of the trigger carrier plate 102, the increased weight of the trigger carrier plate 102 will cause the corresponding sliding plate 112 to slide down. During the sliding process, the corresponding node A114 and the corresponding node B115 will rub against each other, thereby causing the corresponding sliding plate 112 to vibrate and shake off the snowflakes. While the corresponding sliding plate 112 is sliding down, the linkage rope B111 will drive the rotating column B108 to rotate. The length of the linkage rope B111 will increase, and the spiral spring coil B will be tightened at the same time. The rotating column B108 will wind the linkage rope A107 when rotating, causing the rotating column A105 to rotate and tighten the spiral spring coil A106 at the same time. The rotating column A105 drives the rotary snow removal when rotating. The panel 104 rotates, and the snowflakes are removed by the centrifugal force generated by the rotation of the rotary snow removal panel 104. At the same time, the friction between the rotary snow removal panel 104 and the trigger carrier plate 102 generates heat, thereby preventing the snowflakes from remaining. After the snowflakes are removed, the weight of the trigger carrier plate 102 is reduced, and the rebound of the spiral spring coil B drives the rotating column B108 to reversely wind the linkage rope B111, thereby driving the corresponding sliding plate 112 to rise, so that the trigger carrier plate 102 is reset. During the rising process, the rebound of the spiral spring coil A106 drives the rotating column A105 to rotate again, so that the rotary snow removal panel 104 and the trigger carrier plate 102 are rubbed and heated up, so that when the snowflakes come into contact with the trigger carrier plate 102 and the rotary snow removal panel 104, they will melt and flow out, thereby preventing the snowflakes from solidifying.

[0033] Example 2: Figure 6 As shown, the snow knocking mechanism 2 includes an inclined guide rail 201, which is fixedly mounted on one side of the shield shell 110, and a corresponding sliding block 202 is slidably connected to the inner side of the inclined guide rail 201, and a connecting support rod 203 is fixedly mounted on one side of the corresponding sliding block 202, and the connecting support rod 203 is slidably connected to the inner side of the shield shell 110, and a stable positioning plate 204 is fixedly mounted on one end of the connecting support rod 203, and a curved surface body A205 is hinged on one side of the stable positioning plate 204, and a position limiting column 206 is fixedly mounted on the bottom of the stable positioning plate 204, and the position limiting column 206 is attached to the bottom of the rotating column A105, and a curved surface body B207 is fixedly mounted on one side of the corresponding sliding plate 112, and the curved surface body B207 and the curved surface body A205 are arranged in the same vertical plane;

[0034] like Figure 6As shown, a hollow support structure 208 is fixedly installed on the top of the inclined guide rail 201, and a cylindrical hole is opened inside the hollow support structure 208. A spherical impact member 209 is arranged in the cylindrical hole of the hollow support structure 208. The spherical impact member 209 is arranged in a close fit with the corresponding sliding block 202. A transverse structure plate 210 is fixedly installed on the side of the corresponding sliding block 202 away from the connecting support rod 203. An elastic tensioning rope 211 is sleeved on the outer side of the transverse structure plate 210. One end of the elastic tensioning rope 211 is sleeved on a movable top plate 212. The movable top plate 212 is provided on the movable top plate 212. The top plate 212 is arranged on the top of the hollow support structure 208, and the cross-sectional area of ​​the bottom end port of the movable top plate 212 is larger than the cross-sectional area of ​​the bottom end port of the cylindrical hole of the hollow support structure 208. An annular rotating seat 213 is fixedly installed at one end of the movable top plate 212, and the inner side of the annular rotating seat 213 is rotatably connected with an axial fixing rod 214, and the axial fixing rod 214 is fixedly installed on one side of the shield shell 110, and a cantilever arm rod 215 is fixedly installed on the outer side of the annular rotating seat 213, and a movable collision plate 216 is fixedly installed on the top of the cantilever arm rod 215.

[0035] It should be noted that when the device is actually used, when the corresponding sliding plate 112 slides down, the curved body B207 contacts the curved body A205, thereby pushing the curved body A205 to slide down, and the position limiting column 206 is used to limit the curved body A205, thereby preventing the curved body A205 from deflecting downward, and the corresponding sliding block 202 is guided by the inclined guide rail 201. When the corresponding sliding block 202 slides along the inside of the inclined guide rail 201, the distance between the curved body A205 and the curved body B207 will gradually increase until it is detached. When the corresponding sliding block 202 slides down, the elastic tensioning rope 211 is stretched, and when the curved body A205 is detached from the curved body B207, the elastic tensioning rope 211 rebounds and drives the corresponding sliding block 202 to slide up. The spherical impact member 209 hits the movable top plate 212 upward after being hit, so that the movable top plate 212 drives the annular rotating seat 213 to deflect. When the annular rotating seat 213 deflects, the movable collision plate 216 slaps and triggers the supporting plate 102 to generate a large vibration to prevent snowflakes from accumulating. After the slapping is completed, the elastic tensioning rope 211 is used to pull the movable top plate 212 to reset, so that the movable top plate 212 stays on the top of the hollow support structure 208 again. When the corresponding sliding plate 112 slides up, the curved body B207 contacts the curved body A205, so that the curved body A205 deflects upward, thereby leaving more space for the curved body B207 to pass through, so as not to hinder the corresponding sliding plate 112 from sliding up and resetting smoothly.

[0036] A cable fault detection method comprises the following steps:

[0037] S1: When snowflakes accumulate on the top of the trigger carrier plate 102, the weight of the trigger carrier plate 102 increases, causing the corresponding sliding plate 112 to slide down. During the sliding process, the corresponding node A114 rubs against the corresponding node B115, thereby causing the corresponding sliding plate 112 to vibrate, causing the snowflakes to be shaken off. At the same time, the linkage rope B111 drives the rotating cylinder B108 to rotate. When the rotating cylinder B108 rotates, it winds the linkage rope A107, causing the rotating cylinder A105 to rotate and drive the rotating snow removal panel 104 to rotate. The centrifugal force generated by the rotation of the rotating snow removal panel 104 is used to remove the snowflakes. At the same time, the friction between the rotating snow removal panel 104 and the trigger carrier plate 102 generates heat, thereby preventing the snowflakes from remaining.

[0038] S2: When the snowflakes are removed, the weight of the trigger carrier plate 102 is reduced, and the spiral spring coil B rebounds to drive the rotating cylinder B108 to reversely wind the linkage rope B111, thereby driving the corresponding sliding plate 112 to rise, so that the trigger carrier plate 102 is reset. During the rising process, the spiral spring coil A106 rebounds to drive the rotating cylinder A105 to rotate again, so that the rotating snow removal panel 104 and the trigger carrier plate 102 are heated by friction, so that when the snowflakes come into contact with the trigger carrier plate 102 and the rotating snow removal panel 104, they melt and flow out, thereby preventing the snowflakes from solidifying;

[0039] S3: When the corresponding sliding plate 112 slides down, the curved body B207 contacts the curved body A205, thereby pushing the curved body A205 down. The distance between the curved body A205 and the curved body B207 gradually increases until they are separated. When the corresponding sliding block 202 slides down, the elastic tension rope 211 is stretched. When the curved body A205 is separated from the curved body B207, the elastic tension rope 211 rebounds and drives the corresponding sliding block 202 to slide up and hit the spherical impact member 209. After being hit, the spherical impact member 209 hits the movable top plate 212 upward, so that the movable top plate 212 drives the annular rotating seat 213 to deflect. When the annular rotating seat 213 deflects, the movable collision plate 216 hits the triggering carrier plate 102, thereby generating a large vibration to prevent snow accumulation;

[0040] S4: After the beating is completed, the elastic tensioning rope 211 is used to pull the movable top panel 212 to reset, so that the movable top panel 212 stays on the top of the hollow support structure 208 again, and when the corresponding sliding plate 112 slides up, the curved surface body B207 contacts the curved surface body A205, so that the curved surface body A205 deflects upward, thereby leaving more space for the curved surface body B207 to pass through, so as not to hinder the corresponding sliding plate 112 from sliding up and resetting smoothly.

Claims

1. A cable fault detection device, comprising a device base (1) and a snow collision mechanism (2), characterized in that: The device base (1) comprises an abnormality indicating element (101), a trigger bearing plate (102) is fixedly mounted on the top of the abnormality indicating element (101), a rotary base (103) is rotatably connected to the inner side of the trigger bearing plate (102), a rotary snow removal panel (104) is bonded to the outer side of the rotary base (103), the rotary snow removal panel (104) is arranged in a conical shape, the rotary snow removal panel (104) and the trigger bearing plate (102) are arranged in a close-fitting shape, a rotary column A (105) is fixedly mounted on the top of the rotary snow removal panel (104), a spiral spring coil A (106) is arranged on the inner side of the rotary column A (105), and one end of the spiral spring coil A (106) is fixedly connected to a linkage rope A (107); One end of the linkage rope A (107) is wound around a rotating cylinder B (108), a spiral spring coil B is provided on the inner side of the rotating cylinder B (108), the inner side of the rotating cylinder B (108) is rotatably connected to a transverse support rod (109), one end of the transverse support rod (109) is fixedly mounted with a shield shell (110), the outer side of the rotating cylinder B (108) is wound around a linkage rope B (111), the linkage rope A (107) and the linkage rope B (111) are wound in opposite directions, a spacing is provided between the linkage rope A (107) and the linkage rope B (111), one end of the linkage rope B (111) is fixedly connected to a corresponding sliding plate (112), and the corresponding sliding plate (112) is fixedly mounted on the outer side of the trigger bearing plate (102); A limited movement sliding column (113) is fixedly mounted on one side of the corresponding sliding plate (112); the limited movement sliding column (113) is slidably connected to the shield shell (110); a corresponding node A (114) is fixedly mounted on the outer side of the limited movement sliding column (113); and a corresponding node B (115) is fixedly mounted on the inner side of the shield shell (110); The snow knocking mechanism (2) comprises an inclined guide rail (201), the inclined guide rail (201) being fixedly mounted on one side of the shield shell (110), a corresponding sliding block (202) being slidably connected to the inner side of the inclined guide rail (201), and a connecting support rod (203) being fixedly mounted on one side of the corresponding sliding block (202).

2. A cable fault detection device according to claim 1, characterized in that: The connecting support rod (203) is slidably connected to the inner side of the shield shell (110); a stabilizing positioning plate (204) is fixedly mounted on one end of the connecting support rod (203); a curved surface body A (205) is hingedly mounted on one side of the stabilizing positioning plate (204); and a position limiting column (206) is fixedly mounted on the bottom of the stabilizing positioning plate (204).

3. A cable fault detection device according to claim 2, characterized in that: The position limiting column (206) is fitted on the bottom of the rotating cylinder A (105), and a curved body B (207) is fixedly mounted on one side of the corresponding sliding plate (112), wherein the curved body B (207) and the curved body A (205) are arranged on the same vertical plane.

4. A cable fault detection device according to claim 3, characterized in that: A hollow support structure (208) is fixedly mounted on the top of the inclined guide rail (201), a cylindrical hole is provided inside the hollow support structure (208), a spherical impact member (209) is provided in the cylindrical hole of the hollow support structure (208), and the spherical impact member (209) is arranged in a close-fitting manner with the corresponding sliding block (202).

5. A cable fault detection device according to claim 4, characterized in that: A transverse structural plate (210) is fixedly mounted on one side of the corresponding sliding block (202) away from the connecting support rod (203), an elastic tensioning rope (211) is sleeved on the outer side of the transverse structural plate (210), and a movable top plate (212) is sleeved on one end of the elastic tensioning rope (211).

6. A cable fault detection device according to claim 5, characterized in that: The movable top plate (212) is arranged on the top of the hollow support structure (208), and the cross-sectional area of ​​the bottom end port of the movable top plate (212) is larger than the cross-sectional area of ​​the bottom end port of the cylindrical hole of the hollow support structure (208).

7. A cable fault detection device according to claim 6, characterized in that: An annular rotating seat (213) is fixedly mounted on one end of the movable top plate (212); an axial fixing rod (214) is rotatably connected to the inner side of the annular rotating seat (213); the axial fixing rod (214) is fixedly mounted on one side of the shield shell (110); a cantilever arm (215) is fixedly mounted on the outer side of the annular rotating seat (213); and a movable collision plate (216) is fixedly mounted on the top of the cantilever arm (215).

8. A cable fault detection method, characterized in that: The method is applied to a cable fault detection device according to claim 7, comprising the following steps: S1: When snowflakes accumulate on the top of the trigger bearing plate (102), the weight of the trigger bearing plate (102) increases, causing the corresponding sliding plate (112) to slide down. During the sliding process, the corresponding node A (114) and the corresponding node B (115) rub against each other, thereby causing the corresponding sliding plate (112) to vibrate, causing the snowflakes to be shaken off. At the same time, the linkage rope B (111) drives the rotating column B (108) to rotate. When the rotating column B (108) rotates, it winds the linkage rope A (107), causing the rotating column A (105) to rotate and drive the rotating snow removal panel (104) to rotate. The centrifugal force generated by the rotation of the rotating snow removal panel (104) is used to remove the snowflakes. At the same time, the friction between the rotating snow removal panel (104) and the trigger bearing plate (102) generates heat, thereby preventing the snowflakes from remaining. S2: When the snowflakes are removed, the weight of the trigger carrier plate (102) is reduced, and the spiral spring coil B rebounds to drive the rotating column B (108) to reversely wind the linkage rope B (111), thereby driving the corresponding sliding plate (112) to rise, so that the trigger carrier plate (102) is reset. During the rising process, the spiral spring coil A (106) rebounds to drive the rotating column A (105) to rotate again, so that the rotating snow removal panel (104) and the trigger carrier plate (102) are heated by friction, so that when the snowflakes come into contact with the trigger carrier plate (102) and the rotating snow removal panel (104), they melt and flow out, thereby preventing the snowflakes from solidifying; S3: When the corresponding sliding plate (112) slides down, the curved body B (207) contacts the curved body A (205), thereby pushing the curved body A (205) down. The distance between the curved body A (205) and the curved body B (207) gradually increases until they are separated. When the corresponding sliding block (202) slides down, the elastic tension rope (211) is stretched. When the curved body A (205) is separated from the curved body B (207), the elastic tension rope (211) rebounds and drives the corresponding sliding block (202) to slide up and hit the spherical impact member (209). After being hit, the spherical impact member (209) hits the movable top plate (212) upward, so that the movable top plate (212) drives the annular rotating seat (213) to deflect. When the annular rotating seat (213) deflects, the movable collision plate (216) hits the trigger carrier plate (102), thereby generating a large vibration to prevent snow accumulation; S4: After the beating is completed, the movable top plate (212) is pulled back to its original position by means of the elastic tension rope (211), so that the movable top plate (212) is resting on the top of the hollow support structure (208) again. When the corresponding sliding plate (112) slides upward, the curved body B (207) contacts the curved body A (205), so that the curved body A (205) deflects upward, thereby leaving more space for the curved body B (207) to pass through, thereby not hindering the corresponding sliding plate (112) from sliding up and returning to its original position smoothly.

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