Emergency supporting device for power pole

Abstract

The invention relates to an emergency supporting device for a power pole, and the device comprises a chassis which is connected with a vehicle; the supporting structure comprises a telescopic assembly and a supporting assembly, and the supporting assembly is arranged at the top of the telescopic assembly and ascends and descends along with the telescopic assembly so as to support the power line; the stable structure comprises a plurality of supporting leg assemblies, a plurality of balance detection assemblies and a plurality of texture detection assemblies, the balance detection assemblies and the texture detection assemblies are integrally arranged in the supporting leg assemblies, the supporting leg assemblies can ascend and descend in the height direction to abut against or break away from the ground, and the balance detection assemblies can detect whether the supporting leg assemblies make full contact with the ground or not; the texture detection assembly can detect the softness degree of the ground; and the adjusting structure can balance the weight of the chassis and can incline along with the chassis so as to adjust the gravity center of the chassis. In this way, the power pole emergency supporting device can be quickly transported to a first-aid repair place, it is guaranteed that the power pole emergency supporting device is reliably supported to the ground, and the safety of power pole first-aid repair is guaranteed.

Description

Technical Field

[0001] The present application relates to the technical field of emergency repair of power poles, and in particular to an emergency support device for power poles. Background Art

[0002] Power poles support overhead conductors. Common types of poles include wooden poles, concrete poles, and iron towers. The railway power industry adheres to the principle of "opening the line first, then restoring it" and "opening the line first." Currently, repairing broken 10kV power lines relies on human operators working with large-scale machinery. However, in areas with complex terrain, such as mountainous areas, hilly areas, and cultivated land, inclement weather and complex terrain make it difficult for many large machines to reach the fault site, thus delaying repair operations.

[0003] Moreover, when emergency repairs are carried out in severe weather and complex terrain, especially in thunderstorms and strong winds, the ground in mountainous areas and cultivated land is relatively muddy and loose, and the conductors are installed at a high position, usually requiring high-altitude repairs. However, the soft bottom surface poses a high risk and cannot fix the equipment well. The ground inside a certain support point may be soft, causing the equipment to overturn. Personnel cannot judge the ground conditions well and cannot avoid this risk. Summary of the Invention

[0004] Based on this, it is necessary to provide a power pole emergency support device to address the problem that the power pole is not reliably fixed on the ground and the equipment is prone to overturning during emergency repairs. The device can be quickly transported to the repair site and ensure that the power pole emergency support device is reliably supported to the ground, thereby ensuring the safety of the power pole repair.

[0005] An emergency support device for a power pole, used for emergency support of a power line, comprising:

[0006] Chassis, used for connection with the vehicle;

[0007] A supporting structure comprising a telescopic assembly and a supporting assembly, wherein the bottom of the telescopic assembly is arranged on the chassis, and the supporting assembly is arranged on the top of the telescopic assembly and rises and falls with the telescopic assembly to support the power line;

[0008] a stable structure comprising a plurality of leg assemblies and a plurality of balance detection assemblies and a plurality of texture detection assemblies integrated in the leg assemblies, wherein the plurality of leg assemblies are respectively connected to the chassis and extend in a direction away from the chassis, the leg assemblies can be raised and lowered in height to contact or detach from the ground, the balance detection assemblies can detect whether the leg assemblies are fully in contact with the ground, and the texture detection assemblies can detect the softness of the ground; and

[0009] The adjustment structure is arranged on a side of the chassis away from the supporting structure. The adjustment structure can counterweight the chassis and can tilt with the chassis to adjust the center of gravity of the chassis.

[0010] In one embodiment of the present application, each of the leg assemblies includes a fixed leg, a lifting leg, a mounting shell, and a support plate, wherein one end of the fixed leg is connected to the chassis, and the other end extends away from the chassis and is connected to the lifting leg;

[0011] The support plate is arranged at the bottom of the lifting legs, and the mounting shell is arranged on the lifting legs and located above the support plate. The lifting legs can drive the support plate and the mounting shell to rise and fall relative to the fixed legs so that the support plate abuts against or leaves the ground.

[0012] The plurality of balance detection assemblies and the plurality of texture detection assemblies are arranged in the support plate and the mounting shell at intervals along the circumference of the support plate, and the ends of the balance detection assemblies and the ends of the texture detection assemblies can be exposed from the support plate to contact the ground.

[0013] In one embodiment of the present application, the balance detection assembly includes a compression contact, a pressing component, and an indicating component. The compression contact is movably disposed in the support plate in a height direction, with the bottom of the compression contact exposed from the support plate. The pressing component is liftably disposed in the mounting shell and is capable of abutting against or separating from the compression contact. The indicating component is disposed in the mounting shell and is operatively engaged with the pressing component.

[0014] When the compression contact moves toward the mounting housing, it can push the extrusion component to move toward the indication component, so that the extrusion component triggers the indication component to send an indication signal to indicate that the compression contact is in contact with the ground.

[0015] In one embodiment of the present application, the extrusion component includes an extrusion ring and an extrusion plate. The extrusion ring is movably arranged at the bottom of the mounting shell and is arranged opposite to the compression contact. The extrusion plate is arranged on the side of the extrusion ring along the radial direction of the extrusion ring and is opposite to the indicating component. When the compression contact is able to move toward the mounting shell, it can push the extrusion ring and drive the extrusion plate to move, so that the extrusion plate can touch the indicating component.

[0016] And / or, the indicating component includes a trigger switch and an indicating member, the trigger switch is arranged in the mounting shell and is arranged corresponding to the extruding component, the indicating member is arranged outside the mounting shell and is electrically connected to the trigger switch, and when the extruding component touches the trigger switch, the trigger switch can cause the indicating member to emit an indication signal;

[0017] And / or, the balance detection assembly further comprises a first elastic member, the first elastic member elastically connecting the compression contact and the support disk, and the elastic force of the first elastic member can push the compression contact out of the support disk;

[0018] And / or, the balance detection assembly further includes a second elastic member, the second elastic member elastically connecting the mounting shell and the extrusion plate of the extrusion component, and the elastic force of the second elastic member can reset the extrusion plate.

[0019] In one embodiment of the present application, the texture detection assembly includes a detection contact and a pusher, wherein the detection contact is movably disposed in the support plate along a height direction, and the bottom of the detection contact is exposed from the support plate;

[0020] The pushing member is arranged in the mounting shell, and can extend in the height direction and abut against the detection contact to push the detection contact out of the support plate and into the ground to judge the softness of the ground.

[0021] In one embodiment of the present application, the texture detection assembly further includes an oblique insertion component, which can be tilted and extended from the support disk to be obliquely inserted into the ground; the oblique insertion component includes a lower pressing plate, an oblique piercing rod and a flipping member, the lower pressing plate is radially arranged on the outer wall of the detection contact, the oblique piercing rod is tilted and arranged in the support disk, and can be extended from the support disk to be obliquely inserted into the ground, the flipping member is flipably connected to the oblique piercing rod, and when the detection contact moves toward the pushing member, the flipping member can be pushed by the lower pressing plate to flip, so that the lower pressing plate moves above the flipping member, and when the pushing member pushes the detection contact to extend out of the support disk, the detection contact can push the flipping member by the lower pressing plate to drive the oblique piercing rod to extend out of the support disk;

[0022] And / or, the texture detection assembly also includes a protective component, which is arranged at the output end of the pushing member, and is used to protect the movement of the pushing member when the pushing member pushes the detection contact to extend; the protective component includes an extrusion column, a transition plate and an opening and closing door, and the transition plate can be movably arranged in the mounting shell along the height direction, the extrusion column is installed at one end of the transition plate, and the opening and closing door is installed at the other end of the transition plate, and the output end of the pushing member is in contact and extrusion cooperation with the opening and closing door. When the opening and closing door is closed, the pushing member can push the opening and closing door to drive the transition plate and the extrusion column to push the detection contact to extend out of the support plate, and the pushing member can also extend through the opening and closing door when the opening and closing door is opened.

[0023] In one embodiment of the present application, the compression contact of the balance detection assembly has a mounting hole extending through the mounting hole in the height direction, the detection contact is mounted in the mounting hole, and the top of the detection contact is exposed above the compression contact, or the detection contact is independently provided with the compression contact of the balance detection assembly;

[0024] And / or, the oblique insertion component further includes a third elastic member, wherein the third elastic member elastically connects the compression contact of the balance detection assembly and the lower pressing plate to push the lower pressing plate to reset;

[0025] And / or, the oblique insertion component further includes a fourth elastic member, wherein the fourth elastic member elastically connects the oblique piercing rod and the support plate to reset the oblique piercing rod;

[0026] And / or, the protective component further includes a fifth elastic member, wherein the fifth elastic member elastically connects the opening and closing door and the transition plate to keep the opening and closing door in a closed state;

[0027] And / or, the extrusion column and the detection contact are respectively located on both sides of an extrusion ring in the balance detection assembly, and both the extrusion column and the detection contact can pass through the center of gravity of the extrusion ring;

[0028] And / or, the detection contact includes a detection rod and an external convex flange, and the external convex flange is provided at one end of the detection rod to increase the contact area between the detection contact and the ground.

[0029] In one embodiment of the present application, the telescopic assembly includes a telescopic ladder that can be raised and lowered in a height direction and a lifting bracket, wherein the bottom of the telescopic ladder is set on the chassis and the top is connected to the support assembly, and the bottom of the lifting bracket is set on the chassis and the top is supported and connected to the support assembly;

[0030] And / or, the support assembly includes a working platform, a supporting column and an insulating cross arm, the working platform is arranged on the top of the telescopic assembly, the supporting column is flipably mounted on the working platform by a hydraulic arm, the insulating cross arm is arranged on the top of the supporting column, and an insulator is provided on the insulating cross arm to support the power line;

[0031] And / or, the power pole emergency support device also includes an auxiliary structure, which includes a trailer hook, a power unit and a storage pillar, the trailer hook is arranged at one end of the chassis, the power unit is arranged on the surface of the chassis facing the support structure, and the storage pillar is arranged on the surface of the chassis facing away from the support structure.

[0032] In one embodiment of the present application, the adjustment structure includes a buffer block, a balancing block, a rotating column, two mating parts, and a clamping assembly. The buffer block is symmetrically arranged on a surface of the chassis facing away from the support structure. The rotating column is rotatably arranged in the middle of the balancing block and connected to the surface of the chassis facing away from the support structure.

[0033] The surface of the balancing block facing the chassis has a recessed avoidance groove, the matching pieces are symmetrically arranged on both sides of the avoidance groove on the balancing block and are telescopically connected to the chassis, the clamping assembly is arranged in the balancing block and is connected to the rotating column, so that the balancing block rotates around the rotating column and drives the matching pieces to extend and retract, so that the balancing block tilts with the chassis.

[0034] In one embodiment of the present application, the rotating column includes a rotating shaft and a cam member, the rotating shaft extends in a longitudinal direction, the cam member is disposed on the rotating shaft and rotates with the rotating shaft, and the adjustment structure includes two said clamping assemblies, the two said clamping assemblies are symmetrically disposed in the balancing block and cooperate with the cam member to drive the corresponding said cooperating member to move;

[0035] and / or, the clamping assembly includes a clamping member, an extruded member, a sliding member, a fixed pulley and a traction rope, the bottom of the mating member has a mounting groove, the clamping member is slidably arranged in the mounting groove along the length direction, the side wall of the avoidance groove has a clamping groove, and the clamping groove is communicated with the mounting groove; the extruded member is slidably arranged in the mounting groove along the width direction and is extruded and fitted with the clamping member, the extruded member can push the clamping member to move along the length direction so that the clamping member can be clamped in or out of the clamping groove; the interior of the balancing block has a mounting cavity, the sliding member can be slidably arranged in the mounting cavity along the width direction and is extruded and fitted with the cam member of the rotating column, the fixed pulley is rotatably arranged in the balancing block, one end of the traction rope is connected to the extruded member, and the other end is connected to the sliding member through the fixed pulley;

[0036] In which, the snap-fit ​​assembly also includes a sixth elastic member, which elastically connects the snap-fit ​​member and the inner wall of the mounting groove, and / or the snap-fit ​​assembly also includes a seventh elastic member, which elastically connects the extruded member and the inner wall of the mounting groove, and / or the snap-fit ​​assembly also includes an eighth elastic member, which elastically connects the sliding member and the inner wall of the mounting cavity.

[0037] After adopting the above technical solution, this application has at least the following technical effects:

[0038] The power pole emergency support device of the present application is connected to the vehicle via a chassis to facilitate the transportation of the power pole emergency support device. The telescopic component in the support structure is arranged on the chassis and can drive the support component to extend and retract so that the support component can support the power line. The multiple leg assemblies in the stable structure can respectively contact the ground to firmly support the chassis on the ground. The leg assemblies are integrated with multiple balance detection assemblies. The balance detection assemblies detect whether the leg assemblies are in contact with the ground at the current position to ensure that the ground can fully support the leg assemblies. In addition, the leg assemblies are also integrated with multiple texture detection assemblies. The texture detection assemblies can be inserted into the ground and detect the softness of the ground. At the same time, the adjustment structure can counterweight the chassis to avoid overturning of the chassis as much as possible, and the adjustment structure can also tilt with the chassis to adjust the center of gravity of the chassis and limit the overturning tendency of the chassis.

[0039] This power pole emergency support device can connect the chassis to a vehicle to quickly transport the power pole emergency support device to the repair site. It is suitable for areas with complex terrain such as mountainous areas, hills, and cultivated land, and is not restricted by severe weather and complex terrain. At the same time, the height of the chassis can be adjusted through multiple leg assemblies to adapt to different terrains. The balance detection assembly in the leg assembly detects whether the bottom of the leg assembly is completely in contact with the ground to identify the stability of the leg assembly and ensure the safety of the equipment. The texture detection assembly is inserted into the ground and detects the softness of the ground to further secure the equipment to the ground. The chassis is counterweighted by adjusting the structure and tilted with the chassis to limit the chassis's tendency to flip, improve the overall stability of the equipment, and prevent the power pole emergency support device from overturning in severe weather and complex terrain conditions, thereby ensuring the safety of power pole repairs. BRIEF DESCRIPTION OF THE DRAWINGS

[0040] Figure 1 This is a schematic diagram of a power pole emergency support device according to an embodiment of the present application from one perspective.

[0041] Figure 2 for Figure 1 The shown diagram is a partial schematic diagram of the power pole emergency support device from another perspective.

[0042] Figure 3 for Figure 1 Schematic diagram of the stabilizing structure in the power pole emergency support device shown.

[0043] Figure 4 for Figure 3 A cross-sectional view of the stable structure is shown.

[0044] Figure 5 for Figure 4 A partial schematic diagram of the stable structure shown.

[0045] Figure 6 for Figure 5 A partial schematic diagram of the support leg at point A is shown.

[0046] Figure 7 for Figure 5 Schematic diagram of the protective components in the leg assembly shown.

[0047] Figure 8 for Figure 2 A cross-sectional view of the adjustment structure in the power pole emergency support device is shown.

[0048] Figure 9 for Figure 8 A partial schematic diagram at point B in the adjustment structure shown.

[0049] Figure 10 for Figure 8The partial schematic diagram of the adjustment structure shown at C.

[0050] Figure 11 for Figure 9 A partial schematic diagram of the matching parts in the adjustment structure shown.

[0051] Among them: 10. Emergency support device for power pole; 100. Chassis; 200. Support structure; 210. Telescopic assembly; 211. Telescopic ladder; 212. Lifting bracket; 220. Support assembly; 221. Working platform; 222. Support column; 223. Insulating crossarm; 224. Insulator; 225. Protective fence; 300. Stable structure; 310. Leg assembly; 311. Fixed leg; 312. Lifting leg; 313. Mounting shell; 314. Support plate; 320. Balance detection assembly; 321. Compression contact; 322. Extrusion component; 3221. Extrusion ring; 3222. Extrusion plate; 323. Indicator component; 3231. Trigger switch; 3232. Indicator; 324. First elastic component; 325. Second elastic component; 330. Texture detection assembly; 331. Detection contact; 3311. Detection rod; 3312. Outer convex flange; 332, pusher; 333, oblique insertion member; 3331, lower pressure plate; 3332, oblique piercing rod; 3333, flip member; 3334, third elastic member; 3335, fourth elastic member; 334, protective member; 3341, extrusion column; 3342, transition plate; 3343, opening and closing door; 400, adjustment structure; 410, buffer block; 420, balance block; 421, avoidance groove; 422, snap connection Slot; 430, rotating column; 431, rotating shaft; 432, cam member; 440, matching member; 450, snap-fit ​​assembly; 451, snap-fit ​​member; 452, extrusion member; 453, sliding member; 454, fixed pulley; 455, traction rope; 456, sixth elastic member; 457, seventh elastic member; 458, eighth elastic member; 500, auxiliary structure; 510, trailer hook; 520, power unit; 530, storage pillar. DETAILED DESCRIPTION

[0052] To make the above-mentioned objects, features, and advantages of the present application more clearly understood, the specific embodiments of the present application are described in detail below with reference to the accompanying drawings. The following description sets forth many specific details to facilitate a full understanding of the present application. However, the present application can be implemented in many other ways than those described herein, and those skilled in the art can make similar improvements without violating the scope of the present application. Therefore, the present application is not limited to the specific embodiments disclosed below.

[0053] In the description of this application, it should be understood that if the terms "center", "longitudinal", "lateral", "length", "width", "thickness", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside", "clockwise", "counterclockwise", "axial", "radial", "circumferential", etc. appear, the orientation or position relationship indicated by these terms is based on the orientation or position relationship shown in the accompanying drawings, which is only for the convenience of describing this application and simplifying the description, and does not indicate or imply that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as a limitation on this application.

[0054] In addition, if the terms "first" or "second" appear, these terms are used for descriptive purposes only and should not be understood to indicate or imply relative importance or implicitly specify the number of technical features indicated. Therefore, a feature specified as "first" or "second" may explicitly or implicitly include at least one of such features. In the description of this application, if the term "plurality" appears, "plurality" means at least two, for example, two, three, etc., unless otherwise specifically defined.

[0055] In this application, unless otherwise specified or limited, the terms "mounted," "connected," "connected," "fixed," etc., should be interpreted broadly. For example, these terms may refer to fixed connections, removable connections, or integration; mechanical connections or electrical connections; direct connections or indirect connections through an intermediary; and internal communication between two components or interaction between two components, unless otherwise specified. Those skilled in the art will understand the specific meanings of these terms in this application based on the specific circumstances.

[0056] In this application, unless otherwise expressly specified or limited, if a first feature is described as being "above" or "below" a second feature, or similar descriptions appear, it may mean that the first and second features are in direct contact, or that the first and second features are in indirect contact through an intermediate medium. Moreover, the first feature being "above," "above," and "above" the second feature may mean that the first feature is directly above or diagonally above the second feature, or simply means that the first feature is at a higher level than the second feature. The first feature being "below," "below," and "below" the second feature may mean that the first feature is directly below or diagonally below the second feature, or simply means that the first feature is at a lower level than the second feature.

[0057] It should be noted that if an element is referred to as being "fixed to" or "disposed on" another element, it may be directly on the other element or there may be an intermediate element. If an element is considered to be "connected to" another element, it may be directly connected to the other element or there may be an intermediate element. If any, the terms "vertical", "horizontal", "upper", "lower", "left", "right" and similar expressions used in this application are for illustrative purposes only and do not represent the only embodiment.

[0058] Understandably, power poles support overhead conductors. Common types of power poles include wooden poles, concrete poles, and iron towers. The railway power industry adheres to the principle of "opening the line first, then restoring it" and "opening the line first." Currently, repairing broken 10kV power lines is carried out by human operators working with large-scale machinery. However, in areas with complex terrain, such as mountainous areas, hills, and cultivated land, inclement weather and complex terrain make it difficult for many large machines to reach the fault site, thus delaying repair operations.

[0059] Moreover, when emergency repairs are carried out in severe weather and complex terrain, especially in thunderstorms and strong winds, the ground in mountainous areas and cultivated land is relatively muddy and loose, and the conductors are installed at a high position, usually requiring high-altitude repairs. However, the soft bottom surface poses a high risk and cannot fix the equipment well. The ground inside a certain support point may be soft, causing the equipment to overturn. Personnel cannot judge the ground conditions well and cannot avoid this risk.

[0060] For this purpose, see Figure 1 , the present application provides a power pole emergency support device 10. Figure 1 This is a schematic diagram of a power pole emergency support device 10 from one perspective, according to one embodiment of the present application. As will be appreciated, power poles can support power lines. In the event of a power pole failure, the power pole emergency support device 10 can provide emergency support for the power lines at the repair site, facilitating repairs. Of course, in other embodiments of the present application, the power pole emergency support device 10 can also provide emergency support for other overhead lines.

[0061] The power pole emergency support device 10 of the present application can be quickly transported to the repair site and is suitable for areas with complex terrain such as mountainous areas, hills, and cultivated land. It is not restricted by severe weather and complex terrain and can support power lines under severe weather and complex terrain conditions. At the same time, the power pole emergency support device 10 can detect the stability of contact with the ground and the softness of the ground to fix the equipment to the ground, improve the overall stability of the equipment, and prevent the power pole emergency support device 10 from overturning under severe weather and complex terrain conditions, thereby ensuring the safety of power pole repairs. The following introduces the specific structure of the power pole emergency support device 10 in some embodiments.

[0062] See Figures 1 to 5 In one embodiment, the power pole emergency support device 10 includes a chassis 100, a support structure 200, a stabilizing structure 300, and an adjustment structure 400. The support structure 200 includes a telescopic assembly 210 and a support assembly 220. The bottom of the telescopic assembly 210 is set on the chassis 100, and the support assembly 220 is set on the top of the telescopic assembly 210 and rises and falls with the telescopic assembly 210 to support the power line. The stabilizing structure 300 includes a plurality of leg assemblies 310 and a plurality of balance detection assemblies 320 and a plurality of texture detection assemblies 330 integrated into the leg assemblies 310. The plurality of leg assemblies 310 are respectively connected to the chassis 100 and extend in a direction away from the chassis 100. The leg assemblies 310 can abut against or detach from the ground.

[0063] Each leg assembly 310 is equipped with multiple balance detection assemblies 320 and texture detection assemblies 330. The balance detection assemblies 320 can detect whether the leg assembly 310 is fully in contact with the ground, and the texture detection assemblies 330 can detect the softness of the ground. The adjustment structure 400 is located on the side of the chassis 100 facing away from the support structure 200. The adjustment structure 400 can counterweight the chassis 100 and tilt with the chassis 100 to adjust the center of gravity of the chassis 100. Figure 2 for Figure 1 The partial schematic diagram of the power pole emergency support device 10 shown in another perspective, Figure 3 for Figure 1 The schematic diagram of the stabilizing structure 300 in the power pole emergency support device 10 is shown. Figure 4 for Figure 3 The cross-sectional view of the stabilizing structure 300 is shown, Figure 5 for Figure 4 A partial schematic diagram of the stabilizing structure 300 is shown.

[0064] The chassis 100 is a seat structure for supporting and installing the power pole emergency support device 10. The chassis 100 extends in the length direction and the width direction, and has a certain thickness in the height direction. Figure 1 The left and right directions are shown, and the width direction is as shown Figure 1 The front and rear directions are shown, and the height direction is as shown Figure 1 The vertical direction, top-bottom direction, length direction, width direction and height direction shown are also applicable to the power pole emergency support device 10 and other components, which will not be described in detail below.

[0065] Furthermore, the chassis 100 can be connected to a vehicle, allowing workers to quickly transport the power pole emergency support device 10 to the repair site without being restricted by inclement weather or complex terrain, making transportation convenient. Optionally, a wheel set is provided at the bottom of the chassis 100, allowing the power pole emergency support device 10 to move along the ground via the wheel set, facilitating transportation of the power pole emergency support device 10.

[0066] The support structure 200 is arranged above the chassis 100 and can do lifting and lowering movements (along the height direction, which will not be described in detail later). When the support structure 200 rises relative to the chassis 100, the support structure 200 can support the power lines. Figure 1 In the embodiment, the support structure 200 is in the raised state and can support the power line. After the emergency repair is completed, the support structure 200 is lowered so that the support structure 200 can be folded and stored, which facilitates the transportation of the power pole emergency support device 10.

[0067] Specifically, the support structure 200 includes a telescopic component 210 and a support component 220. The telescopic component 210 can perform telescopic movement in the height direction. The bottom of the telescopic component 210 is installed on the chassis 100, and the top of the telescopic component 210 is connected to the support component 220. The telescopic component 210 can drive the support component 220 to rise or fall in the height direction. When the telescopic component 210 is extended, the telescopic component 210 can drive the support component 220 to rise in the height direction, such as Figure 1 As shown, the support assembly 220 can support the power line. After the emergency repair is completed, the telescopic assembly 210 is retracted so that the telescopic assembly 210 and the support assembly 220 are folded and stored.

[0068] The stabilizing structure 300 is located at the edge of the chassis 100 and can be in contact with or separated from the ground. During emergency repairs on a power pole, the stabilizing structure 300 can contact the ground, thereby stably supporting the chassis 100 on the ground. This reduces swaying of the chassis 100 and the risk of the chassis 100 tipping over, thereby improving the stability of the power pole emergency support device 10. After the repair is complete, the stabilizing structure 300 can be released from the ground.

[0069] Specifically, the stabilizing structure 300 includes a plurality of leg assemblies 310, which are spaced apart at the edge of the chassis 100 and located on the front and rear sides of the chassis 100. Moreover, one end of each leg assembly 310 is connected to the edge of the chassis 100, and the other end extends in a direction away from the chassis 100. In this way, the plurality of leg assemblies 310 can support the chassis 100 on the front and rear sides of the chassis 100.

[0070] Furthermore, the leg assemblies 310 can be raised and lowered in height. This allows the leg assemblies 310 to be adjusted in height, quickly adjusting the support height and, therefore, the height of the chassis 100 relative to the ground to accommodate varying terrains. In this embodiment, there are four sets of leg assemblies 310, one on each of the front and rear sides of the chassis 100. Of course, in other embodiments of the present application, the number of leg assemblies 310 may vary.

[0071] The stabilizing structure 300 further includes a plurality of balance detection assemblies 320 and a plurality of texture detection assemblies 330, each of which is integrated into each leg assembly 310. The plurality of balance detection assemblies 320 are spaced apart along the circumference of the leg assembly 310, and the ends of the balance detection assemblies 320 are capable of extending beyond the bottom surface of the leg assembly 310 to detect whether the leg assembly 310 is in contact with the ground at the balance detection assembly 320, that is, whether the leg assembly 310 and the ground are in full support.

[0072] It is understood that when the balance detection assembly 320 contacts the ground, the balance detection assembly 320 can move upward (in the height direction, which will not be mentioned later) relative to the leg assembly 310, and the balance detection assembly 320 can trigger a corresponding signal to prompt the operator that the balance detection assembly 320 has contacted the ground. If the balance detection assembly 320 is not in contact with the ground, the balance detection assembly 320 will not move upward, and the balance detection assembly 320 will not trigger a corresponding signal. At this time, the operator does not hear or see the prompt of the balance detection assembly 320, indicating that the balance detection assembly 320 is not in contact with the ground, and the leg assembly 310 is in a state of incomplete support with the ground.

[0073] Under complex terrain conditions, the leg assembly 310 contacts the ground through multiple balance detection assemblies 320. When all balance detection assemblies 320 are in contact with the ground and trigger corresponding signals, the operator can know through the signals indicated by each balance detection assembly 320 that each balance detection assembly 320 is in contact with the ground, indicating that the leg assembly 310 and the ground are in a fully supported state. If some balance detection assemblies 320 are not in contact with the ground, the position of the leg assembly 310 needs to be adjusted so that each balance detection assembly 320 is in contact with the ground at the same time. In this way, multiple balance detection assemblies 320 can detect whether the leg assembly 310 is in a fully supported state with the ground, so as to identify the stability of the ground of the leg assembly 310 and ensure the safety of the equipment.

[0074] Multiple texture detection assemblies 330 are spaced apart along the circumference of the leg assembly 310, with the bottoms of the texture detection assemblies 330 being able to protrude from the leg assembly 310. The texture detection assemblies 330 can be inserted downward (descended in the height direction) into the ground to detect the softness of the ground, i.e., the softness of the soil. It will be appreciated that if the ground is soft, the bottoms of the texture detection assemblies 330 will be directly pressed into the ground. If the ground is firm, the bottoms of the texture detection assemblies 330 will not be able to move downward, or will not be able to move further downward after moving a short distance.

[0075] The staff judges the softness of the ground by the depth of the texture detection component 330 inserted into the ground. If the ground is soft, corresponding measures can be taken, such as auxiliary fixation, to further fix the leg assembly 310, so that the leg assembly 310 can be reliably fixed to the ground, avoiding the leg assembly 310 from shaking on the ground, ensuring that the leg assembly 310 is firmly fixed to the ground, and improving the overall stability of the equipment.

[0076] The adjustment structure 400 is disposed on the back side of the chassis 100, that is, on the lower surface of the chassis 100. The adjustment structure 400 counterweights the chassis 100, thereby increasing its weight. Furthermore, when the chassis 100 tilts, the adjustment structure 400 tilts along with the chassis 100 to adjust its center of gravity. At this point, the adjustment structure 400 applies an opposing torque to the chassis 100 to prevent it from tipping over. This prevents the chassis 100 from tipping over in adverse weather or complex terrain, thereby improving the overall stability of the power pole emergency support device 10.

[0077] The utility pole emergency support device 10 of the above-described embodiment can connect the chassis 100 to a vehicle for rapid transportation to the repair site. This makes it suitable for use in areas with complex terrain, such as mountainous areas, hilly areas, and cultivated land, and is unaffected by inclement weather and complex terrain. Furthermore, the height of the chassis 100 can be adjusted through multiple leg assemblies 310 to accommodate varying terrains. The balance detection assembly 320 within the leg assembly 310 detects whether the bottom of the leg assembly 310 is fully in contact with the ground, thereby identifying the stability of the leg assembly 310 and ensuring the safety of the device. The texture detection assembly 330 is inserted into the ground and detects the softness of the ground, further securing the device to the ground. The adjustment structure 400 counterweights the chassis 100, causing it to tilt with the chassis 100 to limit its tendency to flip, thereby improving the overall stability of the device and preventing the utility pole emergency support device 10 from tipping over in inclement weather and complex terrain, thereby ensuring the safety of utility pole repairs.

[0078] In this embodiment, there are three balance detection assemblies 320, which are evenly distributed around the circumference of the leg assembly 310. Of course, in other embodiments of the present application, the number of balance detection assemblies 320 may be four or another number. In this embodiment, there are three texture detection assemblies 330, which are evenly distributed around the circumference of the leg assembly 310. Of course, in other embodiments of the present application, the number of texture detection assemblies 330 may be four or another number.

[0079] In one embodiment, the balance detection assembly 320 and the texture detection assembly 330 may be integrated. That is, part of the structure of the texture detection assembly 330 may be incorporated into part of the structure of the balance detection assembly 320. This reduces the space occupied by the balance detection assembly 320 and the texture detection assembly 330. Of course, in other embodiments of the present application, the balance detection assembly 320 and the texture detection assembly 330 may also be independently provided. This simplifies the structures of the balance detection assembly 320 and the texture detection assembly 330.

[0080] See Figure 1In an embodiment, the telescopic assembly 210 comprises a telescopic ladder 211 and a lifting support 212, the bottom of the telescopic ladder 211 is arranged on the base 100, and the top is connected to the support assembly 220, the bottom of the lifting support 212 is arranged on the base 100, and the top supports the support assembly 220. The lifting support 212 can be lifted along the height direction, and when the lifting support 212 is lifted, it can be unfolded to drive the support assembly 220 to rise, so that the support assembly 220 can be lifted to a specified position to support the power cable. When the lifting support 212 drives the support assembly 220 to rise, the telescopic ladder 211 can also be lifted along the height direction to unfold the telescopic ladder 211. The worker can enter the support assembly 220 through the telescopic ladder 211 to repair the power pole.

[0081] Referring to Figure 1 In an embodiment, the support assembly 220 comprises a working platform 221, a support column 222, and an insulating cross arm 223, the working platform 221 is arranged on the top of the telescopic assembly 210, the support column 222 is reversibly installed on the working platform 221 through a hydraulic arm, and the insulating cross arm 223 is arranged on the top of the support column 222, and insulators 224 are arranged on the insulating cross arm 223 to support the power line. The working platform 221 is a bearing platform for the worker to repair the power pole, and the worker operates the power pole on the working platform 221.

[0082] The support column 222 is a reversible component, the hydraulic arm is arranged on the working platform 221, and the output end of the hydraulic arm is installed with the support column 222, so that the hydraulic arm can drive the support column 222 to reverse relative to the working platform 221, and the support column 222 is erected when working and is laid down when not in use, so as to facilitate the storage of the support column 222. The insulating cross arm 223 is arranged on the top of the support column 222, and a plurality of insulators 224 are arranged on the insulating cross arm 223, and the power cable is supported by the insulating cross arm 223 to ensure the insulation performance.

[0083] When the support structure 200 is in use, the hydraulic arm reverses the support column 222 to make the support column 222 stand up, at the same time, the hydraulic arm supports the support column 222 to keep it stable, and the power cable is supported by the insulating cross arm 223. In an embodiment, a protective fence 225 is installed on the periphery of the working platform 221 to improve the safety of the repair.

[0084] Referring to Figure 1 and Figure 2In one embodiment, the power pole emergency support device 10 further includes an auxiliary structure 500, which is disposed on the chassis 100. The auxiliary structure 500 integrates corresponding functions into the power pole emergency support device 10, thereby facilitating its use. Specifically, the auxiliary structure 500 includes a trailer hook 510, a power unit 520, and a storage support column 530. The trailer hook 510 is disposed at one end of the chassis 100, the power unit 520 is disposed on a surface of the chassis 100 facing the support structure 200, and the storage support column 530 is disposed on a surface of the chassis 100 facing away from the support structure 200.

[0085] The trailer hook 510 is disposed at one end of the chassis 100. Furthermore, the trailer hook 510 is disposed at the right end of the chassis 100. In this way, the trailer hook 510 can be connected to a vehicle, and the vehicle can drive the chassis 100 along the ground through the trailer hook 510 to facilitate the transportation of the power pole emergency support device 10. The power unit 520 is disposed on the chassis 100. The power unit 520 can include a current generator, etc., which can provide an energy source in the field. The storage support 530 is rotatably disposed at the bottom of the chassis 100 and is located at the right end of the chassis 100. When the power pole emergency support device 10 is stored, the storage support 530 can be lowered and used as a support leg.

[0086] See Figure 1 、 Figures 3 to 5 In one embodiment, each leg assembly 310 includes a fixed leg 311, a lifting leg 312, a mounting shell 313, and a support plate 314. One end of the fixed leg 311 is connected to the chassis 100, and the other end extends away from the chassis 100 and is connected to the lifting leg 312. The support plate 314 is disposed at the bottom of the lifting leg 312, and the mounting shell 313 is disposed on the lifting leg 312 and above the support plate 314. The lifting leg 312 can drive the support plate 314 and the mounting shell 313 to rise and fall relative to the fixed leg 311, so that the support plate 314 contacts or leaves the ground. A plurality of balance detection assemblies 320 and a plurality of texture detection assemblies 330 are spaced apart along the circumference of the support plate 314 and within the mounting shell 313. The ends of the balance detection assemblies 320 and the ends of the texture detection assemblies 330 can be exposed from the support plate 314 to contact the ground.

[0087] The fixed leg 311 is a fixed support member. One end of the fixed leg 311 is connected to the chassis 100, and the other end of the fixed leg 311 extends in a direction away from the chassis 100. Figure 1As shown. The end of the fixed leg 311 away from the chassis 100 is connected to the lifting leg 312. The lifting leg 312 is a lifting support member and can output lifting movement in the height direction. The support plate 314 is set at the bottom of the lifting leg 312. The support plate 314 is a component that contacts the ground. The leg assembly 310 contacts the ground through the support plate 314. The mounting shell 313 is set on the lifting leg 312 and is located above the support plate 314. The mounting shell 313 is hollow in design, and some components of the balance detection component 320 and the texture detection component 330 are set in the mounting shell 313.

[0088] At the same time, the bottoms of the balance detection assembly 320 and the texture detection assembly 330 are exposed above the lower surface of the support plate 314. When the leg assembly 310 is in contact with the ground, the bottoms of the balance detection assembly 320 and the texture detection assembly 330 are also in contact with the ground. After the power pole emergency support device 10 is transported to the repair site, the lifting leg 312 is lowered relative to the fixed leg 311. The lifting leg 312 can drive the balance detection assembly 320 and the texture detection assembly 330 downward, bringing them into contact with the ground.

[0089] Subsequently, the weight of the entire device pushes the support plate 314 relative to the balance detection assembly 320, so that the lower surface of the support plate 314 contacts the ground. In this case, the balance detection assembly 320 can detect whether the lower surface of the support plate 314 is in contact with the ground to determine whether it is fully supported by the ground. At the same time, the texture detection assembly 330 can detect the softness of the ground.

[0090] Optionally, the fixed leg 311 is a fixed pillar, and the lifting leg 312 is a lifting hydraulic cylinder, etc. When the leg assembly 310 contacts the ground, the lifting leg 312 drives the support plate 314, the balance detection assembly 320, and the texture detection assembly 330 to descend, so that the support plate 314, the balance detection assembly 320, and the texture detection assembly 330 descend, thereby making the lower surface of the support plate 314 contact the ground and the balance detection assembly 320 inserted into the ground, and the texture detection assembly 330 can detect the softness of the ground. At the same time, the lifting height of the lifting leg 312 can be adjusted to adjust the height of the support plate 314 and the ground, so that the support plate 314 can adapt to different terrains. After the emergency repair is completed, the lifting leg 312 drives the support plate 314, the balance detection assembly 320, and the texture detection assembly 330 to rise and leave the ground.

[0091] See Figure 1 、 Figures 3 to 6In one embodiment, the balance detection assembly 320 includes a compression contact 321, a pressing component 322, and an indicator component 323. The compression contact 321 is disposed within the support plate 314 so as to be movable along the height direction, with the bottom of the compression contact 321 exposed from the support plate 314. The pressing component 322 is disposed within the mounting housing 313 so as to be liftable and capable of abutting or separating from the compression contact 321. The indicator component 323 is disposed within the mounting housing 313 and actuates in conjunction with the pressing component 322. When the compression contact 321 moves toward the mounting housing 313, it pushes the pressing component 322 toward the indicator component 323, causing the pressing component 322 to actuate the indicator component 323 and generate an indication signal, indicating that the compression contact 321 is in contact with the ground. Figure 6 for Figure 5 A partial schematic diagram of the support leg at point A is shown.

[0092] The compression contact 321 is the component of the balance detection assembly 320 that detects ground contact. The support plate 314 has a mounting hole extending in the height direction, into which the compression contact 321 is mounted. The compression contact 321 is movable in the height direction within the mounting hole, with the bottom of the compression contact 321 exposed above the lower surface of the support plate 314. The compression component 322 is positioned at the bottom of the mounting housing 313, allowing it to be raised and lowered in the height direction. The indicator component 323 is positioned at the top of the mounting housing 313, exposed above the mounting housing 313.

[0093] The squeezing component 322 is a transmission component for the movement of the compression contact 321, and the squeezing component 322 can also realize the driving of the indicating component 323. The indicating component 323 can prompt the staff whether the compression contact 321 is in contact with the ground. After the compression contact 321 is in contact with the ground, the top of the compression contact 321 can push the squeezing component 322 to move, and then the squeezing component 322 can touch the indicating component 323, so that the indicating component 323 will issue a prompt that the compression contact 321 is in contact with the ground. If the compression contact 321 is not in contact with the ground, at this time, the top of the compression contact 321 will not push the squeezing component 322 to move, and then the squeezing component 322 will not touch the indicating component 323, and then the indicating component 323 will not issue a prompt.

[0094] After the leg assembly 310 is placed on the ground, the bottom of the compression contact 321 can contact the ground. At this time, the entire device can press down the compression contact 321 under the action of gravity, and the support plate 314 presses down the compression contact 321, so that the compression contact 321 contacts the ground. At the same time, the support plate 314 can move downward relative to the compression contact 321, and the lower surface of the support plate 314 contacts the ground. The top of the compression contact 321 can push the extrusion component 322 to move, and then the extrusion component 322 can touch the indication component 323, so that the indication component 323 issues a prompt that the compression contact 321 is in contact with the ground, so as to judge that the support plate 314 and the ground are in a fully supported state.

[0095] As will be appreciated, the support plate 314 is provided with a plurality of compression contacts 321. After the support leg assembly 310 is placed on the ground, if all compression contacts 321 are able to contact the ground, the support plate 314 presses down on the compression contacts 321, and the compression contacts 321, through the squeezing component 322, can trigger the indicator component 323, causing the indicator component 323 to issue a prompt, thereby prompting the staff that the compression contacts 321 are in contact with the ground, and the lower surface of the support plate 314 is in a fully supported state with the ground. If some compression contacts 321 are able to contact the ground, while others are not, in this case, some indicator components 323 will issue prompts, while others will not, and the staff will need to adjust the position of the support leg assembly 310 until all compression contacts 321 are able to contact the ground. In this case, the lower surface of the support plate 314 is fully in contact with the ground, and the support plate 314 is in a fully supported state with the ground.

[0096] See Figure 1 、 Figures 3 to 6 In one embodiment, the height of the compression contact 321 is greater than the height of the support plate 314. Thus, after the compression contact 321 contacts the ground, the top of the compression contact 321 can contact the pressing member 322 in the mounting housing 313, causing the pressing member 322 to actuate the indicator member 323.

[0097] See Figure 1 、 Figures 3 to 6 In one embodiment, the extrusion component 322 includes an extrusion ring 3221 and an extrusion plate 3222. The extrusion ring 3221 can be raised and lowered at the bottom of the mounting shell 313 and is arranged opposite to the compression contact 321. The extrusion plate 3222 is arranged on the side of the extrusion ring 3221 along the radial direction of the extrusion ring 3221 and is opposite to the indicating component 323. When the compression contact 321 is able to move toward the mounting shell 313, it can push the extrusion ring 3221 to drive the extrusion plate 3222 to move, so that the extrusion plate 3222 can touch the indicating component 323.

[0098] The extrusion ring 3221 is arranged at the bottom of the mounting shell 313 in a liftable manner and is arranged directly opposite the compression contact 321. That is, the extrusion ring 3221 is located directly above the compression contact 321. The extrusion plate 3222 is arranged on the side of the extrusion ring 3221 and extends radially. In this way, the extrusion plate 3222 is located directly below the indicator component 323. After the compression contact 321 contacts the ground, the top of the compression contact 321 can push the extrusion ring 3221 to move upward, and then the extrusion ring 3221 drives the extrusion plate 3222 to move upward, so that the extrusion plate 3222 touches the indicator component 323, so that the indicator component 323 can issue a prompt that the balance detection assembly 320 has contacted the ground.

[0099] See Figure 1 、 Figures 3 to 6 In one embodiment, the indicating component 323 includes a trigger switch 3231 and an indicating component 3232. The trigger switch 3231 is arranged in the mounting shell 313 and is arranged corresponding to the extrusion component 322. The indicating component 3232 is arranged on the outside of the mounting shell 313 and is electrically connected to the trigger switch 3231. When the extrusion component 322 touches the trigger switch 3231, the trigger switch 3231 can enable the indicating component 3232 to send an indication signal.

[0100] The trigger switch 3231 is disposed in the mounting shell 313, and the indicator 3232 is disposed at the top of the mounting shell 313 and is electrically connected to the trigger switch 3231. When the trigger switch 3231 is triggered, the trigger switch 3231 can control the indicator 3232 to issue a prompt. In this embodiment, the indicator 3232 is an indicator light. When the trigger switch 3231 is triggered, the indicator 3232 lights up to prompt the staff that the balance detection assembly 320 is in contact with the ground. When the trigger switch 3231 is not triggered, the indicator 3232 is not lit. The staff can know that the balance detection assembly 320 is not in contact with the ground by seeing the unlit indicator 3232. Of course, in other embodiments of the present application, the indicator 3232 can also be a speaker or other component that can prompt the staff.

[0101] After the compression contact 321 contacts the ground, the top of the compression contact 321 pushes the extrusion ring 3221 upward, which in turn drives the extrusion plate 3222 upward, causing the extrusion plate 3222 to trigger the trigger switch 3231. The trigger switch 3231 then controls the indicator 3232 to illuminate, indicating that the balance detection assembly 320 has contacted the ground. If the compression contact 321 does not push the extrusion ring 3221 and the extrusion plate 3222 to trigger the trigger switch 3231, the indicator 3232 will not illuminate. When the staff sees the unlit indicator 3232, they will know that the balance detection assembly 320 is not in contact with the ground and need to adjust the position of the leg assembly 310 until all the indicators 3232 are illuminated.

[0102] In one embodiment, the balance detection assembly 320 further includes a power supply, which is disposed within the mounting housing 313 and electrically connected to the trigger switch 3231 and the indicator 3232. The power supply provides power to the trigger switch 3231 and the indicator 3232, enabling the indicator 3232 to accurately indicate whether the balance detection assembly 320 is in contact with the ground.

[0103] See Figure 4 and Figure 5 In one embodiment, the balance detection assembly 320 further includes a first elastic member 324, which elastically connects the compression contact 321 to the support plate 314. The elastic force of the first elastic member 324 can push the compression contact 321 out of the support plate 314. The first elastic member 324 is located in the fixing hole and sleeved over the compression contact 321. One end of the first elastic member 324 is connected to the compression contact 321, and the other end is connected to the support plate 314. When the force between the compression contact 321 and the ground is low, the elastic force of the first elastic member 324 prevents the compression contact 321 from moving upward along with the extrusion ring 3221. Only when the force exerted by the support plate 314 on the compression contact 321 exceeds the elastic force of the first elastic member 324 can the top of the compression contact 321 push the extrusion ring 3221 upward. Furthermore, when the leg assembly 310 is lifted off the ground, the elastic force of the first elastic member 324 can push the compression contact 321 back into place. Optionally, the first elastic member 324 is a spring.

[0104] See Figure 4 and Figure 5 In one embodiment, the balance detection assembly 320 further includes a second elastic member 325, which elastically connects the mounting shell 313 and the extrusion plate 3222 of the extrusion component 322. The elastic force of the second elastic member 325 can reset the extrusion plate 3222. The second elastic member 325 is connected between the mounting shell 313 and the extrusion plate 3222. After the top of the compression contact 321 pushes the extrusion ring 3221, the extrusion ring 3221 can drive the extrusion plate 3222 to overcome the elastic force of the second elastic member 325, and then the extrusion plate 3222 can trigger the trigger switch 3231. In this way, the movement of the extrusion plate 3222 in the mounting shell 313 can be prevented from accidentally triggering the trigger switch 3231, thereby ensuring the accuracy of the detection of the balance detection assembly 320. Optionally, the second elastic member 325 is a spring.

[0105] As the leg assembly 310 descends and contacts the ground, the compression contact 321 gradually contacts the ground. As the leg assembly 310 continues to descend, the weight of the entire device is concentrated on the leg assembly 310, pressing the compression contact 321 downward via the first elastic member 324. Simultaneously, the support plate 314 is able to overcome the elastic force of the first elastic member 324 and move downward relative to the compression contact 321. The lower surface of the support plate 314 contacts the ground, and the top of the compression contact 321 pushes the extrusion ring 3221 upward. The extrusion ring 3221 then drives the extrusion plate 3222 upward, overcoming the elastic force of the second elastic member 325. The extrusion plate 3222 triggers the trigger switch 3231, which in turn illuminates the indicator 3232 to alert the operator that the balance detection assembly 320 is in contact with the ground and that the lower surface of the support plate 314 is also in contact with the ground at that location.

[0106] When the indicator elements 3232 of the multiple balance detection assemblies 320 are all illuminated, it indicates that the lower surface of the support plate 314 is completely in contact with the ground, and the support plate 314 is in a fully supported state with the ground. If an indicator element 3232 is not illuminated, indicating that the support plate 314 is not in contact with the ground at the position corresponding to the balance detection assembly 320, the staff will adjust the position of the leg assembly 310 until the lower surface of the entire support plate 314 is completely in contact with the ground. In this way, the multiple balance detection assemblies 320 can identify the temperature of the lower surface of the support plate 314, ensuring that the leg assembly 310 is stably supported on the ground and ensuring the safety of the equipment.

[0107] See Figures 4 to 6 In one embodiment, the texture detection assembly 330 includes a detection contact 331 and a pusher 332. The detection contact 331 is disposed within the support plate 314 so as to be movable in the vertical direction, with the bottom of the detection contact 331 exposed from the support plate 314. The pusher 332 is disposed within the mounting housing 313 and is capable of extending in the vertical direction and abutting against the detection contact 331, thereby pushing the detection contact 331 out of the support plate 314 and into the ground to determine the softness of the ground. Optionally, the pusher 332 is an electric push rod, a linear motor, or a pneumatic cylinder.

[0108] The detection contact 331 is a component of the texture detection assembly 330 that detects the softness of the ground. The detection contact 331 is positioned vertically within the support plate 314 and is movable in this direction. The bottom of the detection contact 331 is exposed above the lower surface of the support plate 314. A pusher 332 is positioned within the mounting housing 313 and faces the detection contact 331. When in operation, the pusher 332 generates a lifting motion, thereby pushing the detection contact 331 downward, allowing it to penetrate the ground and thereby detect the softness of the ground.

[0109] As will be appreciated, after the leg assembly 310 descends so that the lower surface of the support plate 314 contacts the ground, the support plate 314 can descend relative to the compression contact 321 and the detection contact 331. When the balance detection assembly 320 detects that the lower surface of the support plate 314 is completely in contact with the ground, the pusher 332 pushes the detection contact 331 downward so that the detection contact 331 can be inserted into the ground, thereby detecting the softness of the ground. If the ground is soft, the bottom of the detection contact 331 is directly squeezed into the ground. If the ground is firm, the bottom of the detection contact 331 cannot move downward, or cannot continue to move downward after moving a short distance. When the detection contact 331 detects that the ground is firm, the support and fixation requirements of the chassis 100 can be met by the leg assembly 310. When the detection contact 331 detects that the ground is soft, auxiliary fixation or other methods can be used to reliably fix the chassis 100 to the ground.

[0110] See Figure 1 、 Figures 3 to 6 In one embodiment, the height of the detection contact 331 is greater than the height of the support plate 314. Thus, after the detection contact 331 contacts the ground, the top of the detection contact 331 can contact the pusher 332, allowing the pusher 332 to push the detection contact 331 downward into the ground.

[0111] See Figures 4 to 6 In one embodiment, the compression contact 321 of the balance detection assembly 320 has a mounting hole extending vertically therethrough. The detection contact 331 is mounted in the mounting hole, with the top of the detection contact 331 exposed. The compression contact 321 is hollow and can be installed in the mounting hole so that it can be raised and lowered vertically. In other words, the compression contact 321 and the detection contact 331 are integrated. After the support plate 314 descends relative to the compression contact 321 and contacts the ground, the compression contact 321 can lift the extrusion ring 3221 to indicate that the support plate 314 is in contact with the ground.

[0112] Furthermore, the compression contact 321 is exposed at the top of the detection contact 331, which facilitates the pusher 332 to push the detection contact 331 into the ground, preventing the pusher 332 from pushing the detection contact 331. The integrated arrangement of the detection contact 331 behind the compression contact 321 can reduce the space occupied by the compression contact 321 and the detection contact 331 in the support plate 314, facilitating the integration of the balance detection assembly 320 and the texture detection assembly 330 in the leg assembly 310. Of course, in other embodiments of the present application, the detection contact 331 is independently arranged from the compression contact 321 of the balance detection assembly 320. That is, the compression contact 321 and the detection contact 331 are separately arranged in the support plate 314.

[0113] See Figures 4 to 6In one embodiment, the detection contact 331 includes a detection rod 3311 and an external convex flange 3312. The external convex flange 3312 is disposed at one end of the detection rod 3311 to increase the contact area between the detection contact 331 and the ground. The detection rod 3311 is disposed in the mounting hole of the compression contact 321, and the external convex flange 3312 is disposed at the bottom of the detection rod 3311. The detection contact 331 contacts the ground through the external convex flange 3312, thereby increasing the contact area and reducing pressure. This prevents the detection contact 331 from being directly inserted into the hard ground due to its sharp end in muddy conditions.

[0114] See Figures 4 to 6 In one embodiment, the texture detection assembly 330 further includes an oblique insertion component 333, which is connected to the detection contact 331. The oblique insertion component 333 can extend obliquely from the support plate 314 to be inserted obliquely into the ground. When the pushing member 332 pushes the detection contact 331 to insert into the ground, it can drive the oblique insertion component 333 to move synchronously. When the ground is tight and the detection contact 331 cannot be inserted or continues to be inserted into the ground, the oblique insertion component 333 will not extend out of the support plate 314, and there is no need to pierce the ground. When the ground is soft, the pushing member 332 can push the detection contact 331 to insert into the ground. At this time, the detection contact 331 can drive the oblique insertion component 333 to extend obliquely from the support plate 314 and insert into the ground. In this way, the oblique insertion component 333 can support the chassis 100 on the side of the support plate 314, so that the chassis 100 is reliably fixed on the soft ground.

[0115] See Figures 4 to 6 In one embodiment, the oblique insertion component 333 includes a lower pressing plate 3331, an oblique piercing rod 3332 and a flipping piece 3333. The lower pressing plate 3331 is radially arranged on the outer wall of the detection contact 331. The oblique piercing rod 3332 is obliquely arranged in the support disk 314 and can extend out of the support disk 314 to be obliquely inserted into the ground. The flipping piece 3333 is flippably connected to the oblique piercing rod 3332. When the detection contact 331 moves toward the pushing piece 332, the flipping piece 3333 can be flipped through the lower pressing plate 3331 to push the flipping piece 3333 to flip the lower pressing plate 3331 so that the lower pressing plate 3331 moves to the top of the flipping piece 3333. When the pushing piece 332 pushes the detection contact 331 to extend out of the support disk 314, the detection contact 331 can push the flipping piece 3333 through the lower pressing plate 3331 to drive the oblique piercing rod 3332 to extend out of the support disk 314.

[0116] In this embodiment, the detection contact 331 is integrated into the compression contact 321. The outer wall of the compression contact 321 has an opening portion that is radially connected to the inner cavity. The lower pressure plate 3331 is arranged on the outer wall of the detection contact 331 and extends radially. The lower pressure plate 3331 extends through the opening portion to extend the compression contact 321. The oblique piercing rod 3332 is arranged at an angle in the support disk 314 and can be tilted to extend out of the support disk 314. The flip member 3333 is reversibly connected to the oblique piercing rod 3332, and the flip member 3333 can cooperate with the lower pressure plate 3331. The flip member 3333 and the lower pressure plate 3331 are in a contact and extrusion fit. When the detection contact 331 has not descended, the lower pressure plate 3331 is located below the flip piece 3333. After the detection contact 331 descends and is inserted into the ground, the lower pressure plate 3331 can push the flip piece 3333 to flip, so that the lower pressure plate 3331 pushes the flip piece 3333 to flip, so that the lower pressure plate 3331 moves to the top of the flip piece 3333, and then pushes the flip piece 3333 through the lower pressure plate 3331 to drive the oblique rod 3332 to extend out of the support plate 314 and insert into the ground.

[0117] When the leg assembly 310 descends to bring the support plate 314 into contact with the ground, the support plate 314 descends relative to the compression contact 321 and the detection contact 331. At this point, the support plate 314 drives the stabbing rod 3332 and the flip member 3333 downward relative to the compression contact 321 and the detection contact 331. When the flip member 3333 contacts the lower pressing plate 3331, the lower pressing plate 3331 pushes the flip member 3333 upward, allowing the lower pressing plate 3331 to move above the flip member 3333. After the balance detection assembly 320 detects that the lower surface of the support plate 314 is in contact with the ground, the push member 332 pushes the detection contact 331 downward, causing the detection contact 331 to penetrate the ground. When the detection contact 331 descends, it can drive the lower pressing plate 3331 to descend, and then the lower pressing plate 3331 pushes the flip member 3333 to move downward, and then the flip member 3333 can drive the oblique piercing rod 3332 to extend out of the support plate 314, so that the oblique piercing rod 3332 is obliquely inserted into the ground.

[0118] See Figures 4 to 6 In one embodiment, the oblique insertion member 333 further includes a third elastic member 3334. The third elastic member 3334 elastically connects the compression contact 321 of the balance detection assembly 320 to the lower pressing plate 3331, and is used to push the lower pressing plate 3331 back to its original position. The elastic force of the third elastic member 3334 can reset the lower pressing plate 3331. Optionally, the third elastic member 3334 is a spring.

[0119] See Figures 4 to 6In one embodiment, the oblique insertion member 333 further includes a fourth elastic member 3335, which elastically connects the oblique piercing rod 3332 to the support plate 314 and is used to reset the oblique piercing rod 3332. The fourth elastic member 3335 can be connected to the oblique piercing rod 3332, thereby resetting the oblique piercing rod 3332. Optionally, the fourth elastic member 3335 is a spring.

[0120] See Figures 4 to 6 In one embodiment, the texture detection component 330 further includes a protective component 334, which is disposed at the output end of the push member 332 and is used to protect the movement of the push member 332 when the push member 332 pushes the detection contact 331 to extend. The protective component 334 can protect the push member 332. When the detection contact 331 cannot be inserted into the ground or cannot continue to be inserted into the ground, if the push member 332 continues to push the detection contact 331 to move downward, the push member 332 will be damaged. For this reason, the present application provides a protective component 334. Once the detection contact 331 cannot move downward, the protective component 334 opens, and the push member 332 cannot continue to push the detection contact 331 downward, so as to protect the push member 332.

[0121] See Figures 4 to 7 In one embodiment, the protective component 334 includes an extrusion column 3341, a transition plate 3342 and an opening and closing door 3343. The transition plate 3342 can be movably arranged in the mounting shell 313 along the height direction. The extrusion column 3341 is installed at one end of the transition plate 3342, and the opening and closing door 3343 is installed at the other end of the transition plate 3342. The output end of the push member 332 is in contact and extrusion cooperation with the opening and closing door 3343. When the opening and closing door 3343 is closed, the push member 332 can push the opening and closing door 3343 to drive the transition plate 3342 and the extrusion column 3341 to push the detection contact 331 out of the support plate 314. When the opening and closing door 3343 is opened, the push member 332 can also extend through the opening and closing door 3343. Figure 7 for Figure 5 A schematic diagram of the guard component 334 in the leg assembly 310 is shown.

[0122] The pusher 332 is mounted on the top inner wall of the mounting shell 313, and the transition plate 3342 is arranged in the mounting shell 313 so that it can be raised and lowered in the height direction. A compression column 3341 is mounted on one end of the transition plate 3342, and an opening and closing door 3343 is mounted on the other end of the transition plate 3342, so that the opening and closing door 3343 can be rotated downward to open. The pusher 332 and the switch door are in a compression contact fit. When the pusher 332 squeezes the opening and closing door 3343, the transition plate 3342 can squeeze the detection contact 331 through the compression column 3341. If the ground is soft, the detection contact 331 is directly squeezed into the ground. If the ground is firm, the detection contact 331 cannot move downward or moves downward a short distance. At this time, the pusher 332 continues to extend, which can push the opening and closing door 3343 to open, allowing the pusher 332 to extend smoothly, thereby preventing the pusher 332 from being forcibly squeezed and causing damage.

[0123] See Figures 4 to 7 In one embodiment, the protective component 334 further includes a fifth elastic member, which elastically connects the opening and closing door 3343 and the transition plate 3342 to keep the opening and closing door 3343 in a closed state. The fifth elastic member connects the opening and closing door 3343 and the transition plate 3342, and supports the opening and closing door 3343 through the fifth elastic member. When the pusher 332 pushes the opening and closing door 3343 to open, due to the support of the opening and closing door 3343 by the fifth elastic member, the pusher 332 can push the opening and closing door 3343, driving the transition plate 3342 and the extrusion column 3341 to push the detection contact 331 downward. When the detection contact 331 cannot descend, the force exerted by the pusher 332 on the opening and closing door 3343 gradually becomes greater than the elastic force of the fifth elastic member, causing the opening and closing door 3343 to gradually open.

[0124] See Figures 4 to 7 In one embodiment, the extrusion post 3341 and the detection contact 331 are respectively located on either side of the extrusion ring 3221 in the balance detection assembly 320. Both the extrusion post 3341 and the detection contact 331 can pass through the center of gravity of the extrusion ring 3221. In this way, the detection contact 331 can pass through the extrusion ring 3221 and contact the extrusion post 3341. The pushing member 332 can also push the extrusion post 3341 through the extrusion ring 3221 to push the detection contact 331.

[0125] See Figure 2 、 Figures 8 to 11In one embodiment, the adjustment structure 400 includes a buffer block 410, a balancing block 420, a rotating post 430, two mating members 440, and a snap assembly 450. The buffer blocks 410 are symmetrically disposed on the surface of the chassis 100 facing away from the support structure 200. The rotating post 430 is rotatably disposed in the middle of the balancing block 420 and connected to the surface of the chassis 100 facing away from the support structure 200. The balancing block 420 has a recessed escape groove 421 on the surface facing the chassis 100. The mating members 440 are symmetrically disposed on either side of the escape groove 421 on the balancing block 420 and are telescopically connected to the chassis 100. The snap assembly 450 is disposed in the balancing block 420 and connected to the rotating post 430, causing the balancing block 420 to rotate about the rotating post 430 and drive the mating members 440 to extend and retract, thereby causing the balancing block 420 to tilt with the chassis 100. Figure 8 for Figure 2 The cross-sectional view of the adjustment structure 400 in the power pole emergency support device 10 is shown. Figure 9 for Figure 8 The partial schematic diagram at B in the adjustment structure 400 shown, Figure 10 for Figure 8 The partial schematic diagram of the adjustment structure 400 at C is shown. Figure 11 for Figure 9 A partial schematic diagram of the matching member 440 in the adjustment structure 400 is shown.

[0126] Buffer blocks 410 are symmetrically mounted on either side of the lower surface of chassis 100. These provide a buffering and noise reduction function while also reducing wear. Optionally, buffer blocks 410 are made of rubber. Balancing block 420 is rotatably mounted to the lower surface of chassis 100 via a rotating post 430. The central axis of rotating post 430 extends in the longitudinal direction, while balancing block 420 extends in the width direction. Both ends of rotating post 430 are fixedly supported to the lower surface of chassis 100 via lugs. Rotating post 430 is rotatably disposed in the central region of balancing block 420.

[0127] The balancing weight 420 counterbalances the chassis 100, preventing it from tipping over. Furthermore, if the chassis 100 tilts, the balancing weight 420 can rotate relative to the chassis 100 around the rotating column 430 to adjust the center of gravity of the chassis 100 and prevent it from tipping over. Furthermore, when the lifting bracket 212 rises (increases upward), the center of gravity of the power pole emergency support device 10 shifts upward, making it easier to move. The balancing weight 420 adds weight to the bottom of the chassis 100, lowering the overall center of gravity and enhancing stability.

[0128] Furthermore, two mating members 440 are symmetrically disposed on the lower surface of the chassis 100. The mating members 440 are retractable structures, with the tops of the mating members 440 connected to the lower surface of the chassis 100. The upper surface of the balancing weight 420 has an escape groove 421, and the bottoms of the mating members 440 are connected to the bottom wall of the escape groove 421. The clamping assembly 450 is disposed within the balancing weight 420 and connected to the mating members 440. When the chassis 100 tilts, the chassis 100 can push the clamping assembly 450 to move via the rotating column 430, which in turn drives the mating members 440 to extend or retract, thereby causing the balancing weight 420 to rotate about the rotating column 430, causing the balancing weight 420 to tilt along with the chassis 100.

[0129] See Figure 2 、 Figures 8 to 11 In one embodiment, the rotating column 430 includes a rotating shaft 431 and a cam member 432. The rotating shaft 431 extends along the width direction. The cam member 432 is set on the rotating shaft 431 and rotates with the rotating shaft 431. The adjustment structure 400 includes two clamping components 450. The two clamping components 450 are symmetrically arranged in the balancing block 420, and cooperate with the cam member 432 to drive the corresponding matching member 440 to move.

[0130] The cam member 432 is disposed on the outer periphery of the rotating shaft 431. The two ends of the rotating shaft 431 are rotatably mounted to the lower surface of the chassis 100 via lugs. Two clamping assemblies 450 are symmetrically disposed in the balancing weight 420. The two clamping assemblies 450 can respectively engage with the cam member 432 and connect to the corresponding mating member 440 for movement. When the chassis 100 tilts, the chassis 100 can drive the rotating column 430 to rotate relative to the balancing weight 420. At this time, the rotating column 430 can contact one of the clamping assemblies 450 through the cam member 432. The cam member 432 can push the clamping assembly 450 to pull the mating member 440, causing the mating member 440 corresponding to the clamping assembly 450 to contract and the mating member 440 corresponding to the other clamping assembly 450 to extend, causing the balancing weight 420 to rotate with the chassis 100.

[0131] It is worth noting that the structures and working principles of the two clamping assemblies 450 are substantially the same. The two clamping assemblies 450 are symmetrically arranged and connected to the matching piece 440. Only the structure of one clamping assembly 450 is described here.

[0132] See Figure 2 、 Figures 8 to 11In one embodiment, the clamping assembly 450 includes a clamping member 451, an extrusion member 452, a sliding member 453, a fixed pulley 454 and a traction rope 455. The bottom of the matching member 440 has a mounting groove, and the clamping member 451 is slidably arranged in the mounting groove along the length direction. The side wall of the avoidance groove 421 has a clamping groove 422, and the clamping groove 422 is connected to the mounting groove; the extrusion member 452 is slidably arranged in the mounting groove along the width direction and is squeezed and matched with the clamping member 451. 452 can push the clamping part 451 to move along the length direction so that the clamping part 451 can be clamped or disengaged from the clamping groove 422; the balance block 420 has an installation cavity inside, and the sliding part 453 can be slidably set in the installation cavity along the width direction, and squeezed and fitted with the cam part 432 of the rotating column 430, and the fixed pulley 454 is rotatably set in the balance block 420. One end of the traction rope 455 is connected to the extrusion part 452, and the other end is connected to the sliding part 453 through the fixed pulley 454.

[0133] There are two clips 451, symmetrically disposed along the lengthwise direction in the mounting slots provided at the bottom of the mating member 440. The clips 451 are capable of sliding along the lengthwise direction, and the mounting slots are connected to the avoidance slots 421. An extrusion piece 452 is movably disposed in the mounting slots along the widthwise direction and engages with the clips 451. When the extrusion piece 452 moves along the widthwise direction, it pushes the clips 451 along the lengthwise direction, allowing the clips 451 to extend through the mounting slots and engage with the engaging slots 422 on the sidewalls of the avoidance slots 421, thereby temporarily engaging the clips 451 in the engaging slots 422.

[0134] Sliding member 453 is slidably disposed in the mounting cavity of counterweight 420 along the width direction and is located on the side of rotating column 430. Fixed pulley 454 is rotatably disposed in counterweight 420. One end of traction cable 455 is connected to sliding member 453, while the other end passes around fixed pulley 454 and is connected to extrusion member 452. Fixed pulley 454 serves to save effort and convert the direction of force, allowing traction cable 455 to connect to coupling member 451.

[0135] When the chassis 100 is tilted, the chassis 100 can drive the rotating column 430 to rotate relative to the balancing block 420. At this time, the rotating column 430 can push the sliding member 453 on one side through the cam member 432, and then the sliding member 453 can pull the extrusion member 452 to move along the length direction through the traction rope 455, and then the extrusion member 452 can push the two clamping members 451 to slide along the length direction. After sliding along the length direction, the two clamping members 451 can extend out of the installation slot and be temporarily clamped in the clamping slot 422, and then the balancing block 420 can be compressed, causing the matching member 440 corresponding to the clamping assembly 450 to contract, and the matching member 440 corresponding to the other clamping assembly 450 to extend, so that the balancing block 420 rotates with the chassis 100.

[0136] See Figure 11 In one embodiment, the snap assembly 450 further includes a sixth elastic member 456, which elastically connects the snap member 451 to the inner wall of the mounting slot. The sixth elastic member 456 enables the snap member 451 to be reset. After the chassis 100 is reset and the rotating post 430 disengages the sliding member 453, the elastic force of the sixth elastic member 456 pushes the snap member 451 out of the snap slot 422 and into the mounting slot. Optionally, the sixth elastic member 456 is a spring.

[0137] See Figure 11 In one embodiment, the clamping assembly 450 further includes a seventh elastic member 457, which elastically connects the extrusion 452 to the inner wall of the mounting slot. The seventh elastic member 457 enables the extrusion 452 to be repositioned. After the chassis 100 is repositioned and the rotating post 430 disengages the sliding member 453, the elastic force of the seventh elastic member 457 propels the extrusion 452 in the width direction, thereby repositioning the extrusion 452. Optionally, the seventh elastic member 457 is a spring.

[0138] See Figure 10 In one embodiment, the latch assembly 450 further includes an eighth elastic member 458, which elastically connects the sliding member 453 to the inner wall of the mounting cavity. The eighth elastic member 458 enables the sliding member 453 to be reset. After the chassis 100 is reset and the rotating column 430 is disengaged from the sliding member 453, the eighth elastic member 458 can push the sliding member 453 back into position. Optionally, the eighth elastic member 458 is a spring.

[0139] The power pole emergency support device 10 of the present application is connected to the vehicle through the trailer hook 510 and can be quickly transported to the emergency repair site. It is suitable for areas with complex terrain such as mountainous areas, hills, and cultivated land, and is not restricted by bad weather and terrain. At the same time, the support height can be quickly adjusted by fixing the support legs 311 and the lifting legs 312 to adapt to different terrains. The compression contact 321 under the support plate 314 can detect whether the support plate 314 and the ground are in a fully supported state, identify the stability of the bottom surface of the fulcrum, and ensure the safety of the equipment. The detection contact 331 can secondarily judge the softness of the ground and take corresponding measures to insert the oblique rod 3332 to enhance stability. The balance block 420 can rotate as the chassis 100 tilts, applying an opposite torque to limit the overturning tendency of the chassis 100, further improving the overall stability of the equipment to cope with bad weather.

[0140] The technical features of the above-mentioned embodiments can be combined arbitrarily. In order to make the description concise, not all possible combinations of the technical features in the above-mentioned embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0141] The above-described embodiments merely represent several implementation methods of the present application. While the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the patent application. It should be noted that a person of ordinary skill in the art may make various modifications and improvements without departing from the spirit of the present application, and these modifications and improvements fall within the scope of protection of the present application. Therefore, the scope of protection of the present patent application shall be determined by the appended claims.

Claims

1. An emergency support device for a power pole, characterized in that: Used for emergency support of power lines, the power pole emergency support device includes: Chassis, used for connection with the vehicle; A supporting structure comprising a telescopic assembly and a supporting assembly, wherein the bottom of the telescopic assembly is arranged on the chassis, and the supporting assembly is arranged on the top of the telescopic assembly and rises and falls with the telescopic assembly to support the power line; a stable structure comprising a plurality of leg assemblies and a plurality of balance detection assemblies and a plurality of texture detection assemblies integrated in the leg assemblies, wherein the plurality of leg assemblies are respectively connected to the chassis and extend in a direction away from the chassis, the leg assemblies can be raised and lowered in height to contact or detach from the ground, the balance detection assemblies can detect whether the leg assemblies are fully in contact with the ground, and the texture detection assemblies can detect the softness of the ground; and The adjustment structure is arranged on a side of the chassis away from the supporting structure. The adjustment structure can counterweight the chassis and can tilt with the chassis to adjust the center of gravity of the chassis.

2. The power pole emergency support device according to claim 1, characterized in that: Each of the leg assemblies includes a fixed leg, a lifting leg, a mounting shell, and a support plate, wherein one end of the fixed leg is connected to the chassis, and the other end extends away from the chassis and is connected to the lifting leg; The support plate is arranged at the bottom of the lifting legs, and the mounting shell is arranged on the lifting legs and located above the support plate. The lifting legs can drive the support plate and the mounting shell to rise and fall relative to the fixed legs so that the support plate abuts against or leaves the ground. The plurality of balance detection assemblies and the plurality of texture detection assemblies are arranged in the support plate and the mounting shell at intervals along the circumference of the support plate, and the ends of the balance detection assemblies and the ends of the texture detection assemblies can be exposed from the support plate to contact the ground.

3. The power pole emergency support device according to claim 2, characterized in that: The balance detection assembly includes a compression contact, a pressing component, and an indicating component. The compression contact is movably arranged in the support plate along the height direction, and the bottom of the compression contact is exposed from the support plate. The pressing component is liftably arranged in the mounting shell and can abut or separate from the compression contact. The indicating component is arranged in the mounting shell and is contacted and matched with the pressing component. When the compression contact moves toward the mounting housing, it can push the extrusion component to move toward the indication component, so that the extrusion component triggers the indication component to send an indication signal to indicate that the compression contact is in contact with the ground.

4. The power pole emergency support device according to claim 3, characterized in that: The extrusion component includes an extrusion ring and an extrusion plate. The extrusion ring is movably arranged at the bottom of the mounting shell and is arranged opposite to the compression contact. The extrusion plate is arranged on the side of the extrusion ring along the radial direction of the extrusion ring and is opposite to the indicating component. When the compression contact is able to move toward the mounting shell, it can push the extrusion ring to drive the extrusion plate to move, so that the extrusion plate can touch the indicating component. And / or, the indicating component includes a trigger switch and an indicating member, the trigger switch is arranged in the mounting shell and is arranged corresponding to the extruding component, the indicating member is arranged outside the mounting shell and is electrically connected to the trigger switch, and when the extruding component touches the trigger switch, the trigger switch can cause the indicating member to emit an indication signal; And / or, the balance detection assembly further comprises a first elastic member, the first elastic member elastically connecting the compression contact and the support disk, and the elastic force of the first elastic member can push the compression contact out of the support disk; And / or, the balance detection assembly further includes a second elastic member, the second elastic member elastically connecting the mounting shell and the extrusion plate of the extrusion component, and the elastic force of the second elastic member can reset the extrusion plate.

5. The power pole emergency support device according to claim 2, characterized in that: The texture detection assembly includes a detection contact and a pusher, wherein the detection contact is movably disposed in the support plate along a height direction, and the bottom of the detection contact is exposed from the support plate; The pushing member is arranged in the mounting shell, and can extend in the height direction and abut against the detection contact to push the detection contact out of the support plate and into the ground to judge the softness of the ground.

6. The power pole emergency support device according to claim 5, characterized in that: The texture detection assembly also includes an oblique insertion component, which can be tilted and extended from the support plate to be obliquely inserted into the ground; the oblique insertion component includes a lower pressing plate, an oblique piercing rod and a flipping member, the lower pressing plate is radially arranged on the outer wall of the detection contact, the oblique piercing rod is tilted and arranged in the support plate, and can extend from the support plate to be obliquely inserted into the ground, the flipping member is flipably connected to the oblique piercing rod, and when the detection contact moves toward the pushing member, the flipping member can be pushed by the lower pressing plate to flip, so that the lower pressing plate moves above the flipping member, and when the pushing member pushes the detection contact to extend from the support plate, the detection contact can push the flipping member by the lower pressing plate to drive the oblique piercing rod to extend from the support plate; And / or, the texture detection assembly also includes a protective component, which is arranged at the output end of the pushing member, and is used to protect the movement of the pushing member when the pushing member pushes the detection contact to extend; the protective component includes an extrusion column, a transition plate and an opening and closing door, and the transition plate can be movably arranged in the mounting shell along the height direction, the extrusion column is installed at one end of the transition plate, and the opening and closing door is installed at the other end of the transition plate, and the output end of the pushing member is in contact and extrusion cooperation with the opening and closing door. When the opening and closing door is closed, the pushing member can push the opening and closing door to drive the transition plate and the extrusion column to push the detection contact to extend out of the support plate, and the pushing member can also extend through the opening and closing door when the opening and closing door is opened.

7. The power pole emergency support device according to claim 6, characterized in that: The compression contact of the balance detection assembly has a mounting hole extending through the mounting hole in the height direction, the detection contact is mounted in the mounting hole, and the top of the detection contact is exposed to the compression contact, or the detection contact is independently provided with the compression contact of the balance detection assembly; And / or, the oblique insertion component further includes a third elastic member, wherein the third elastic member elastically connects the compression contact of the balance detection assembly and the lower pressing plate to push the lower pressing plate to reset; And / or, the oblique insertion component further includes a fourth elastic member, wherein the fourth elastic member elastically connects the oblique piercing rod and the support plate to reset the oblique piercing rod; And / or, the protective component further includes a fifth elastic member, wherein the fifth elastic member elastically connects the opening and closing door and the transition plate to keep the opening and closing door in a closed state; And / or, the extrusion column and the detection contact are respectively located on both sides of an extrusion ring in the balance detection assembly, and both the extrusion column and the detection contact can pass through the center of gravity of the extrusion ring; And / or, the detection contact includes a detection rod and an external convex flange, and the external convex flange is provided at one end of the detection rod to increase the contact area between the detection contact and the ground.

8. The power pole emergency support device according to any one of claims 1 to 7, characterized in that: The telescopic assembly includes a telescopic ladder that can be raised and lowered in the height direction and a lifting bracket. The bottom of the telescopic ladder is set on the chassis and the top is connected to the support assembly. The bottom of the lifting bracket is set on the chassis and the top is supported and connected to the support assembly. And / or, the support assembly includes a working platform, a supporting column and an insulating cross arm, the working platform is arranged on the top of the telescopic assembly, the supporting column is flipably mounted on the working platform by a hydraulic arm, the insulating cross arm is arranged on the top of the supporting column, and an insulator is provided on the insulating cross arm to support the power line; And / or, the power pole emergency support device also includes an auxiliary structure, which includes a trailer hook, a power unit and a storage pillar, the trailer hook is arranged at one end of the chassis, the power unit is arranged on the surface of the chassis facing the support structure, and the storage pillar is arranged on the surface of the chassis facing away from the support structure.

9. The power pole emergency support device according to any one of claims 1 to 7, characterized in that: The adjustment structure includes a buffer block, a balancing block, a rotating column, two matching pieces, and a clamping assembly. The buffer block is symmetrically arranged on the surface of the chassis facing away from the support structure. The rotating column is rotatably arranged in the middle of the balancing block and connected to the surface of the chassis facing away from the support structure. The surface of the balancing block facing the chassis has a recessed avoidance groove, the matching pieces are symmetrically arranged on both sides of the avoidance groove on the balancing block and are telescopically connected to the chassis, the clamping assembly is arranged in the balancing block and is connected to the rotating column, so that the balancing block rotates around the rotating column and drives the matching pieces to extend and retract, so that the balancing block tilts with the chassis.

10. The power pole emergency support device according to claim 9, characterized in that: The rotating column includes a rotating shaft and a cam member, the rotating shaft extends in the longitudinal direction, the cam member is arranged on the rotating shaft and rotates with the rotating shaft, and the adjustment structure includes two said clamping components, the two said clamping components are symmetrically arranged in the balancing block and cooperate with the cam member to drive the corresponding said matching member to move; and / or, the clamping assembly includes a clamping member, an extruded member, a sliding member, a fixed pulley and a traction rope, the bottom of the mating member has a mounting groove, the clamping member is slidably arranged in the mounting groove along the length direction, the side wall of the avoidance groove has a clamping groove, and the clamping groove is communicated with the mounting groove; the extruded member is slidably arranged in the mounting groove along the width direction and is extruded and fitted with the clamping member, the extruded member can push the clamping member to move along the length direction so that the clamping member can be clamped in or out of the clamping groove; the interior of the balancing block has a mounting cavity, the sliding member can be slidably arranged in the mounting cavity along the width direction and is extruded and fitted with the cam member of the rotating column, the fixed pulley is rotatably arranged in the balancing block, one end of the traction rope is connected to the extruded member, and the other end is connected to the sliding member through the fixed pulley; In which, the snap-fit ​​assembly also includes a sixth elastic member, which elastically connects the snap-fit ​​member and the inner wall of the mounting groove, and / or the snap-fit ​​assembly also includes a seventh elastic member, which elastically connects the extruded member and the inner wall of the mounting groove, and / or the snap-fit ​​assembly also includes an eighth elastic member, which elastically connects the sliding member and the inner wall of the mounting cavity.

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