Electrical circuit installation structure

The airbag assembly's inflatable clamping design solves the adaptability problem of electrical wiring installation structures of different specifications, enabling safe and convenient installation of cables of different specifications and improving the safety and convenience of electrical wiring installation structures.

CN224006434UActive Publication Date: 2026-03-17西安深海净化工程有限公司
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Patent Information

Authority / Receiving Office
CN · China
Patent Type
Utility models(China)
Current Assignee / Owner
Filing Date
2025-04-02
Publication Date
2026-03-17

AI Technical Summary

Technical Problem

The existing electrical wiring installation structure requires different installation structures for different specifications of electrical wiring, resulting in high installation costs and affecting convenience.

Method used

The design employs a combination of clamping components, panel components, bracket components, control components, drive components, and inflation components. The airbag component uses an inflation pump to deliver gas to inflate the airbag and clamp the cable, adapting to cables of different diameters. The clamping force can be precisely adjusted through the airbag component to avoid local stress concentration and overpressure risks of mechanical clamps.

Benefits of technology

It enables adaptive clamping of cables of different specifications, avoids the risk of local stress concentration and overpressure of mechanical clamps, and improves the safety and convenience of the installation structure.

✦ Generated by Eureka AI based on patent content.

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Abstract

The utility model relates to the field of circuit installation, in particular to an electrical circuit installation structure which comprises a clamping assembly, a panel assembly movably connected to the clamping assembly and a support assembly movably connected to the panel assembly. According to the utility model, air is conveyed into the air inflation assembly through the air inflation pump, and the air bag assembly is inflated to enable the air bag assembly to generate expansion deformation, so that the electrical circuit in the air bag assembly can be clamped by the expanded air bag assembly; the air bag assembly is used for clamping an electrical circuit to adapt to a cable with a large diameter difference, the clamp does not need to be replaced, meanwhile, non-circular section circuits such as flat wires and shielded wires can still be wrapped in the full circumferential direction, the problem of local stress concentration of a mechanical clamp is avoided, the clamping force can be accurately adjusted through the clamping mode of the air bag assembly, and the clamping efficiency is improved. And meanwhile, the surface hardness of the expansion air bag is obviously lower than that of a metal clamp, so that an insulating layer can be prevented from being scratched or deformed.
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Description

Technical Field

[0001] This utility model relates to the field of wiring installation, and in particular to an electrical wiring installation structure. Background Technology

[0002] An electrical wiring installation structure refers to a physical framework or device used to safely and orderly fix, support, and protect electrical wiring and related equipment. Its core purpose is to ensure the stability of the wiring during operation, preventing damage caused by mechanical stress, environmental factors, or human interference, while also facilitating maintenance and expansion. Its main components include a support frame, fixing elements, protective structures, and connecting modules. Electrical wiring installation structures are widely used in residential electrical systems, industrial applications, outdoor deployments, and precision equipment. The electrical wiring installation structure is the "skeleton" of an electrical system, and its rational design directly affects the reliability, safety, and long-term operation and maintenance costs of power supply.

[0003] In the process of using existing electrical wiring installation structures, electrical wiring often needs to be installed on corresponding installation structures. However, because the specifications and dimensions of electrical wiring are different, it is often necessary to change the installation structure to match the specifications of the electrical wiring during the installation process. This results in the need to make different installation structures for each electrical wiring during the installation process, which in turn affects the overall work cost of electrical wiring installation. Utility Model Content

[0004] To overcome the problem that existing electrical wiring installation structures require different installation structures for different specifications of electrical wiring, resulting in high installation costs and potentially affecting the ease of use of the entire electrical wiring installation structure.

[0005] The technical solution of this utility model is as follows: an electrical circuit installation structure, including a clamping component, a panel component movably connected to the clamping component, a bracket component movably connected to the panel component, a control component connected to the bracket component, a drive component movably connected to the control component, and an inflation component connected to the drive component. The clamping component is used to clamp the panel component, the panel component is used to limit the electrical circuit passing through the clamping component and enable the electrical circuit to be installed on the device, the control component is used to control the flow rate of the gas delivered to the inside of the inflation component, and the drive component is used to adjust the airflow direction of the gas delivered to the inside of the inflation component.

[0006] The support assembly includes an air outlet pipe connected to the control assembly, an air pump connected to the air outlet pipe, an air source pipe connected to the input end of the air pump, a pump frame connected to the air pump, and a frame assembly connected to the pump frame. The air pump is used to deliver gas to the air outlet pipe.

[0007] The inflation assembly includes a connecting tube cover connected to the drive assembly, baffles movably connected to the front and rear ends of the connecting tube cover, several fixed baffles connected to the connecting tube cover, a discharge slot opened on the connecting tube cover, an air supply assembly movably connected to the fixed baffles, and an airbag assembly connected to the air supply assembly. The discharge slot is used to transport the gas inside the connecting tube cover to the airbag assembly.

[0008] Preferably, the connecting frame assembly includes two combined frames connected to the pump frame, fixed blocks respectively connected to the two conveying combined frames, a positioning rod connected to the fixed block of one of the conveying combined frames, a connecting strip connected to the fixed block of the other conveying combined frame, and a plurality of connecting magnetic blocks connected to the connecting strip. The positioning rod is used to drive the panel assembly to move in the horizontal direction.

[0009] Preferably, the gas delivery assembly includes a connecting ring movably connected to a fixed baffle, a plurality of distribution slots formed on the connecting ring, a baffle connected to the connecting ring, an outer cover ring connected to the baffle, and a plurality of delivery pipes connected to the outer cover ring. The plurality of distribution slots are used to deliver the gas delivered from the discharge slot to different delivery pipes respectively, and the baffle is used to separate the outer cover ring to form a plurality of cavity partitions.

[0010] Preferably, the airbag assembly includes a fixed bracket connected to the delivery pipe, an inflatable airbag connected to the fixed bracket, and a disc spring assembly connected to the inflatable airbag. The fixed bracket is used to fix the inflatable airbag, the inflatable airbag is used to inflate to clamp electrical wiring passing through the clamping assembly, and the disc spring assembly is used to absorb excess energy generated by the deformation of the inflatable airbag. The disc spring assembly is configured as two disc springs arranged opposite each other.

[0011] Preferably, the panel assembly includes a positioning sleeve movably connected to the positioning rod, a connecting panel connected to the positioning sleeve, a plurality of second through holes formed on the connecting panel, an adjustment groove formed on the connecting panel, and a mounting component movably connected to the adjustment groove.

[0012] Preferably, the mounting assembly includes an adjusting block movably connected to the adjusting groove, a mounting groove formed on the adjusting block, and a plurality of electromagnet blocks connected to the adjusting block. The electromagnet blocks are electrically connected to the connecting magnetic block, and the mounting groove is used to drive the adjusting block to move in an arc along the connecting panel.

[0013] Preferably, the clamping assembly includes two rotating bars movably connected to the assembly frame, a locking bolt connected between the two rotating bars, a connecting back plate connected to the assembly frame, a plurality of first through holes formed on the connecting back plate, and clamping bars respectively connected to the two rotating bars.

[0014] Preferably, the control component includes a connecting sleeve connected to the air outlet pipe, a return spring connected to the connecting sleeve, a push plate connected to the return spring, a fixed rod connected to the push plate, a plurality of limiting strips connected to the fixed rod, a sealing plate connected to the limiting strips, and a fixed sleeve covering the outside of the sealing plate. The fixed sleeve is connected to the connecting sleeve, the return spring is used to generate deformation to adjust the distance between the sealing plate and the fixed sleeve, and the sealing plate is used to seal the fixed sleeve and the connecting sleeve.

[0015] Preferably, the drive assembly includes a fixed frame connected to the connecting back plate, a rotating tube movably connected to the fixed frame, a plurality of guide strips connected to the inner wall of the rotating tube, a passive rotating wheel connected to the rotating tube, and a rotating assembly connected to the connecting back plate. The plurality of guide strips are used to drive the airflow entering the rotating tube to move in a spiral manner.

[0016] Preferably, the rotating assembly includes a motor bracket connected to the connecting back plate, a servo motor connected to the motor bracket, and an active rotating wheel connected to the output shaft of the servo motor. The active rotating wheel meshes with the passive rotating wheel, and the servo motor is used to drive the passive rotating wheel to rotate along the horizontal central axis of the rotating tube.

[0017] The beneficial effects of this utility model are:

[0018] 1. This utility model uses an air pump to deliver air into the inflatable component, and inflates the airbag component to cause it to expand and deform, so that the electrical circuits inside the airbag component can be clamped by the expanded airbag component. The airbag component can clamp electrical circuits to accommodate cables with large diameter differences without the need to change the clamps. At the same time, it can still achieve full circumferential wrapping for non-circular cross-section wires such as flat wires and shielded wires, avoiding the problem of local stress concentration of mechanical clamps. Furthermore, the clamping force can be precisely adjusted by using the airbag component to avoid the risk of overpressure of mechanical clamps. In addition, the surface hardness of the inflated airbag is significantly lower than that of metal clamps, which can prevent the insulation layer from being scratched or deformed.

[0019] 2. This utility model uses several distribution slots to drive the gas discharged from the discharge slot into the air zones corresponding to different distribution slots. At the same time, the baffle plate can divide the gap between the outer cover ring and the connecting ring into several cavity zones, which correspond to different conveying pipes. This allows the gas delivered by the discharge slot to enter the interior of the conveying pipe, thereby causing the expansion airbag to expand and deform. The fixed bracket can also be used to partially limit the expansion airbag, so that when the expansion airbag expands and deforms, it can only deform in the horizontal direction or on the outside. This allows the deformed expansion airbag to cause the disc spring assembly to deform. At the same time, the two disc springs arranged in opposite directions can counteract the lateral offset and improve stability. When the two springs are connected in series in opposite directions, their combined load curve is closer to linear. The oppositely arranged disc springs can improve dynamic performance and optimize mechanical characteristics.

[0020] 3. This utility model uses gas output through the gas outlet pipe to push the return spring by the push plate, so that the sealing plate can be separated from the fixed sleeve. This allows the gas to flow out from the gap between the sealing plate and the fixed sleeve, and the gas flow rate of the gas output to the fixed sleeve can be adjusted. When the gas is no longer output to the fixed sleeve through the gas outlet pipe, the sealing plate can rebound under the physical properties of the return spring, so that the gas output to the fixed sleeve will not flow back, thereby greatly improving the safety of the entire electrical circuit installation structure. Attached Figure Description

[0021] Figure 1 The diagram shown is a first three-dimensional structural schematic of the electrical wiring installation structure of this utility model.

[0022] Figure 2 The diagram shown is a second three-dimensional structural schematic of the electrical wiring installation structure of this utility model.

[0023] Figure 3 The diagram shown is a three-dimensional structural schematic of the panel assembly of the electrical wiring installation structure of this utility model.

[0024] Figure 4 The image shown is a partial enlarged view of section A of the electrical wiring installation structure of this utility model;

[0025] Figure 5 The diagram shown is a three-dimensional structural schematic of the bracket assembly of the electrical wiring installation structure of this utility model.

[0026] Figure 6 The diagram shown is a first three-dimensional structural schematic of the drive assembly of the electrical wiring installation structure of this utility model.

[0027] Figure 7The diagram shown is a second three-dimensional structural schematic of the drive assembly of the electrical wiring installation structure of this utility model.

[0028] Figure 8 The diagram shown is a three-dimensional structural schematic of the control component of the electrical circuit installation structure of this utility model.

[0029] Figure 9 The diagram shown is a three-dimensional structural schematic of the inflatable component of the electrical wiring installation structure of this utility model.

[0030] Explanation of reference numerals in the attached drawings: 1. Clamping assembly; 2. Panel assembly; 3. Bracket assembly; 4. Control assembly; 5. Drive assembly; 6. Inflation assembly; 101. Rotating bar; 102. Locking bolt; 103. Connecting back plate; 104. First through hole; 105. Clamping bar; 201. Connecting panel; 202. Second through hole; 203. Positioning sleeve; 204. Adjustment groove; 205. Adjustment block; 206. Mounting groove; 207. Electromagnet block; 301. Combination frame; 302. Fixing block; 303. Positioning rod; 304. Connecting bar; 305. Connecting magnet; 306. Pump frame; 307. Air pump; 308. Air source pipe; 309. Outlet... 401. Air tube; 402. Connecting sleeve; 403. Return spring; 404. Push plate; 405. Limiting strip; 406. Fixing rod; 407. Sealing plate; 408. Fixing sleeve; 509. Fixing bracket; 500. Rotating tube; 500. Guide strip; 501. Passive rotating wheel; 502. Active rotating wheel; 503. Servo motor; 504. Motor bracket; 605. Connecting tube cover; 606. Fixing baffle; 607. Discharge groove; 608. Connecting ring; 609. Diverting groove; 610. Fixed bracket; 611. Inflatable airbag; 612. Disc spring assembly. Detailed Implementation

[0031] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0032] An electrical wiring installation structure, according to Figure 1-9 As shown, the device includes a clamping assembly 1, a panel assembly 2 movably connected to the clamping assembly 1, a support assembly 3 movably connected to the panel assembly 2, a control assembly 4 connected to the support assembly 3, a drive assembly 5 movably connected to the control assembly 4, and an inflation assembly 6 connected to the drive assembly 5. The clamping assembly 1 is used to clamp the panel assembly 2, the panel assembly 2 is used to limit the electrical wiring passing through the clamping assembly 1 and to install the electrical wiring on the device, the control assembly 4 is used to control the flow rate of the gas delivered to the inside of the inflation assembly 6, and the drive assembly 5 is used to adjust the airflow direction of the gas delivered to the inside of the inflation assembly 6.

[0033] The support assembly 3 includes an air outlet pipe 309 connected to the control assembly 4, an air pump 307 connected to the air outlet pipe 309, an air source pipe 308 connected to the input end of the air pump 307, a pump frame 306 connected to the air pump 307, and a frame assembly connected to the pump frame 306. The air pump 307 is used to deliver gas to the air outlet pipe 309.

[0034] The inflation assembly 6 includes a connecting tube cover 601 connected to the drive assembly 5, baffles 608 movably connected to the front and rear ends of the connecting tube cover 601, a plurality of fixed baffles 602 connected to the connecting tube cover 601, a discharge groove 603 opened on the connecting tube cover 601, an air supply assembly movably connected to the fixed baffles 602, and an airbag assembly connected to the air supply assembly. The discharge groove 603 is used to transport the gas inside the connecting tube cover 601 to the airbag assembly.

[0035] It should be noted that air is supplied into the inflation assembly 6 by the air pump 307, and the airbag assembly is inflated to cause it to expand and deform. This allows the electrical circuits inside the airbag assembly to be clamped by the expanded airbag assembly. The airbag assembly can clamp electrical circuits to accommodate cables with large diameter differences without the need to change the clamps. At the same time, it can still achieve full circumferential wrapping for non-circular cross-section cables such as flat cables and shielded cables, avoiding the problem of local stress concentration of mechanical clamps. Furthermore, the clamping force can be precisely adjusted by using the airbag assembly to avoid the risk of overpressure of mechanical clamps. In addition, the surface hardness of the inflated airbag 611 is significantly lower than that of metal clamps, which can prevent the insulation layer from being scratched or deformed.

[0036] according to Figure 5 As shown, the connecting frame assembly includes two combined frames 301 connected to the pump connecting frame 306, fixing blocks 302 respectively connected to the two conveying combined frames 301, a positioning rod 303 connected to the fixing block 302 on one of the conveying combined frames 301, a connecting strip 304 connected to the fixing block 302 on the other conveying combined frame 301, and a plurality of connecting magnetic blocks 305 connected to the connecting strip 304. The positioning rod 303 is used to drive the panel assembly 2 to move in the horizontal direction.

[0037] It should be noted that the positioning rod 303 is used to assist in the installation of the positioning sleeve 203. At the same time, the connecting magnetic block 305 is used to enable the connecting panel 201 to be installed quickly by connecting the magnetic block 305 and the electromagnet block 207.

[0038] according to Figure 9As shown, the gas delivery assembly includes a connecting ring 604 movably connected to a fixed baffle 602, a plurality of distribution grooves 605 formed on the connecting ring 604, a baffle 606 connected to the connecting ring 604, an outer cover ring 607 connected to the baffle 606, and a plurality of delivery pipes 609 connected to the outer cover ring 607. The plurality of distribution grooves 605 are used to deliver the gas delivered from the discharge groove 603 to different delivery pipes 609 respectively, and the baffle 606 is used to separate the outer cover ring 607 to form a plurality of cavity partitions.

[0039] It should be noted that by setting several distribution slots 605, the gas discharged from the discharge slot 603 can enter the air zone corresponding to different distribution slots 605. At the same time, by setting baffles 606, the gap between the outer cover ring 607 and the connecting ring 604 can be divided into several cavity zones, so that the several cavity zones correspond to different delivery pipes 609, allowing the gas delivered by the discharge slot 603 to enter the interior of the delivery pipe 609, thereby causing the expansion airbag 611 to expand and deform accordingly.

[0040] according to Figure 9 As shown, the airbag assembly includes a fixed bracket 610 connected to the delivery pipe 609, an inflatable airbag 611 connected to the fixed bracket 610, and a disc spring assembly 612 connected to the inflatable airbag 611. The fixed bracket 610 is used to fix the inflatable airbag 611. The inflatable airbag 611 is used to inflate to clamp the electrical wiring passing through the clamping assembly 1. The disc spring assembly 612 is used to absorb the excess energy generated by the deformation of the inflatable airbag 611. The disc spring assembly 612 is configured as two disc springs arranged opposite each other.

[0041] It should be noted that by setting the fixed bracket 610, the inflatable airbag 611 is partially limited, so that when the inflatable airbag 611 expands and deforms, it can only deform in the horizontal direction or outward. This allows the deformed inflatable airbag 611 to cause the disc spring assembly 612 to deform. At the same time, the two opposing disc springs counteract the lateral offset and improve stability. Furthermore, when the two springs are connected in series in opposite directions, their combined load curve is closer to linear. The opposing disc springs improve the dynamic performance and optimize the mechanical characteristics.

[0042] according to Figures 3-4 As shown, the panel assembly 2 includes a positioning sleeve 203 movably connected to the positioning rod 303, a connecting panel 201 connected to the positioning sleeve 203, a plurality of second through holes 202 formed on the connecting panel 201, an adjustment groove 204 formed on the connecting panel 201, and a mounting component movably connected to the adjustment groove 204.

[0043] according to Figures 3-4As shown, the mounting assembly includes an adjustment block 205 movably connected to the adjustment groove 204, a mounting groove 206 formed on the adjustment block 205, and a plurality of electromagnet blocks 207 connected to the adjustment block 205. The electromagnet blocks 207 are electrically connected to the connecting magnetic block 305. The mounting groove 206 is used to drive the adjustment block 205 to move in an arc along the connecting panel 201.

[0044] It should be noted that the position of the adjustment block 205 can be adjusted by setting the adjustment slot 204, and the installation slot 206 opened on the adjustment block 205 can realize the quick connection between the connection panel 201 and the equipment. Furthermore, the adjustability of the adjustment slot 204 allows the adjustment block 205 to be matched with different equipment installation conditions.

[0045] according to Figures 1-2 As shown, the clamping assembly 1 includes two rotating bars 101 movably connected to the assembly frame 301, a locking bolt 102 connected between the two rotating bars 101, a connecting back plate 103 connected to the assembly frame 301, a plurality of first through holes 104 formed on the connecting back plate 103, and clamping bars 105 respectively connected to the two rotating bars 101.

[0046] according to Figure 8 As shown, the control component 4 includes a connecting sleeve 401 connected to the air outlet pipe 309, a return spring 402 connected to the connecting sleeve 401, a push plate 403 connected to the return spring 402, a fixing rod 405 connected to the push plate 403, a plurality of limiting strips 404 connected to the fixing rod 405, a sealing plate 406 connected to the limiting strips 404, and a fixing sleeve 407 covering the outside of the sealing plate 406. The fixing sleeve 407 is connected to the connecting sleeve 401. The return spring 402 is used to generate deformation to adjust the distance between the sealing plate 406 and the fixing sleeve 407. The sealing plate 406 is used to seal the fixing sleeve 407 and the connecting sleeve 401.

[0047] It should be noted that the gas output through the vent pipe 309 pushes the return spring 402 through the push plate 403, allowing the sealing plate 406 to separate from the fixed sleeve 407. This allows the gas to flow out through the gap between the sealing plate 406 and the fixed sleeve 407, thus regulating the gas flow rate through the fixed sleeve 407. When the gas is no longer output through the vent pipe 309 to the fixed sleeve 407, the sealing plate 406 rebounds due to the physical properties of the return spring 402, preventing backflow of gas from the fixed sleeve 407 and significantly improving the safety of the entire electrical wiring installation structure.

[0048] according to Figures 6-7As shown, the drive assembly 5 includes a fixed frame 501 connected to the connecting back plate 103, a rotating tube 502 movably connected to the fixed frame 501, a plurality of guide strips 503 connected to the inner wall of the rotating tube 502, a passive rotating wheel 504 connected to the rotating tube 502, and a rotating assembly connected to the connecting back plate 103. The plurality of guide strips 503 are used to drive the airflow entering the rotating tube 502 to move in a spiral manner.

[0049] according to Figures 6-7 As shown, the rotating assembly includes a motor bracket 507 connected to the connecting back plate 103, a servo motor 506 connected to the motor bracket 507, and an active rotating wheel 505 connected to the output shaft of the servo motor 506. The active rotating wheel 505 meshes with the passive rotating wheel 504, and the servo motor 506 is used to drive the passive rotating wheel 504 to rotate along the horizontal central axis of the rotating tube 502.

[0050] It should be noted that the active rotating wheel 505 is driven to rotate by the servo motor 506, and the rotating active rotating wheel 505 drives the passive rotating wheel 504 to rotate around its own central axis. The rotating passive rotating wheel 504 rotates the rotating tube 502, so that the gas entering the rotating tube 502 can flow in a spiral manner, thereby greatly improving the working efficiency of the gas entering the inflation assembly 6.

[0051] The embodiments of the present invention have been described in detail above with reference to the accompanying drawings. However, the present invention is not limited to the above embodiments. Within the scope of knowledge possessed by those skilled in the art, various changes can be made without departing from the spirit of the present invention.

Claims

1. An electrical wiring installation structure, characterized by: The utility model provides a kind of electrical line installation device, including clamping component (1), panel component (2) movably connected on clamping component (1), support component (3) movably connected on panel component (2), control component (4) connected on support component (3), drive component (5) movably connected on control component (4) and inflation component (6) connected on drive component (5), the clamping component (1) is used to clamp panel component (2), the panel component (2) is used to limit the electrical line passing through clamping component (1), and makes electrical line install on equipment, the control component (4) is used to control the flow of gas delivered to the inside of inflation component (6), and the drive component (5) is used to adjust the airflow direction of gas delivered to the inside of inflation component (6); The support component (3) includes gas outlet pipe (309) connected on control component (4), inflation pump (307) connected on gas outlet pipe (309), gas source pipe (308) connected on the input end of inflation pump (307), connecting pump frame (306) connected on inflation pump (307) and connecting frame component connected on connecting pump frame (306), and the inflation pump (307) is used to deliver gas to gas outlet pipe (309); The inflation component (6) includes connecting pipe cover (601) connected on drive component (5), respectively movably connected on front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover (601) on the front and rear ends of connecting pipe cover ( 2. An electrical wiring arrangement according to claim 1, characterised in that: ​ 3. An electrical wiring arrangement according to claim 1, wherein: ​ 4. An electrical wiring arrangement according to claim 3, wherein: The air bag assembly comprises a fixing bracket (610) connected to the conveying pipe (609), an expansion air bag (611) connected to the fixing bracket (610), and a disc spring set (612) connected to the expansion air bag (611), the fixing bracket (610) is used for fixing the expansion air bag (611), the expansion air bag (611) is used for expansion to clamp the electrical line passing through the clamping assembly (1), and the disc spring set (612) is used for absorbing the excess energy generated by the deformation of the expansion air bag (611), and the disc spring set (612) is provided as two disc springs arranged oppositely.

5. An electrical wiring arrangement according to claim 2, wherein: The panel assembly (2) comprises a positioning sleeve (203) movably connected to the positioning rod (303), a connecting panel (201) connected to the positioning sleeve (203), a plurality of second through holes (202) formed in the connecting panel (201), an adjusting groove (204) formed in the connecting panel (201), and a mounting assembly movably connected to the adjusting groove (204).

6. An electrical wiring arrangement according to claim 5, wherein: The mounting assembly comprises an adjusting block (205) movably connected to the adjusting groove (204), a mounting groove (206) formed in the adjusting block (205), and a plurality of electromagnets (207) connected to the adjusting block (205), the electromagnets (207) are electrically connected to the connecting magnetic blocks (305), and the mounting groove (206) is used for driving the adjusting block (205) to perform circular arc motion along the connecting panel (201).

7. An electrical wiring arrangement according to claim 2, wherein: The clamping assembly (1) comprises two rotating bars (101) movably connected to the combined frame (301), a locking bolt (102) connected between the two rotating bars (101), a connecting back plate (103) connected to the combined frame (301), a plurality of first through holes (104) formed in the connecting back plate (103), and clamping bars (105) respectively connected to the two rotating bars (101).

8. An electrical wiring arrangement according to claim 1, wherein: The control assembly (4) comprises a connecting sleeve (401) connected to the air outlet pipe (309), a return spring (402) connected to the connecting sleeve (401), a pushing piece (403) connected to the return spring (402), a fixing rod (405) connected to the pushing piece (403), a plurality of limiting bars (404) connected to the fixing rod (405), a sealing piece (406) connected to the limiting bars (404), and a fixing sleeve (407) covering the outside of the sealing piece (406), the fixing sleeve (407) is connected to the connecting sleeve (401), the return spring (402) is used for generating deformation to adjust the distance between the sealing piece (406) and the fixing sleeve (407), and the sealing piece (406) is used for sealing the fixing sleeve (407) and the connecting sleeve (401).

9. An electrical wiring arrangement according to claim 7, wherein: The driving assembly (5) comprises a fixing frame (501) connected to the connecting back plate (103), a rotating pipe (502) movably connected to the fixing frame (501), a plurality of guide strips (503) connected to the inner wall of the rotating pipe (502), a driven rotating wheel (504) connected to the rotating pipe (502), and a rotating assembly connected to the connecting back plate (103), and the plurality of guide strips (503) are used for driving the air flow entering the inside of the rotating pipe (502) to move in a spiral manner.

10. An electrical wiring arrangement according to claim 9, wherein: The rotating assembly comprises a motor support (507) connected to the connecting back plate (103), a servo motor (506) connected to the motor support (507), and a driving rotating wheel (505) connected to the output shaft of the servo motor (506), the driving rotating wheel (505) is engaged with the driven rotating wheel (504), and the servo motor (506) is used for driving the driven rotating wheel (504) to rotate along the horizontal central axis of the rotating pipe (502).