A quick wiring power rail

Abstract

The application discloses a quick wiring power track and belongs to the technical field of electrical accessory equipment. The quick wiring power track comprises a track main body and a wiring power connection box arranged at the end of the track main body, the track main body comprises a slot, and the two sides of the slot are respectively provided with a first conductive assembly and a second conductive assembly; the wiring power connection box comprises two wire plug-in groups which are electrically connected with the first conductive assembly and the second conductive assembly respectively, and a grounding plug-in group is arranged between the two wire plug-in groups. The application simplifies the structure, realizes modularization, reduces the cost and ensures firm fixation of the conductive strip.

Description

Technical Field

[0001] This invention relates to the field of electrical accessory equipment technology, and more specifically to a quick-connect power rail. Background Technology

[0002] Existing wiring power rails include a junction box (i.e., a wiring power connection box) and a rail body. The junction box is used to connect wires, and the rail body is used to plug in adapters. However, the existing wiring power rails have complex wiring power connection boxes with many parts and high costs. They also cannot achieve the function of plugging in ground wires at the same time as plugging in wires, and lack an independent plug-in channel for ground wires. The fixing structure for conductive strips is complex, with high manufacturing costs and difficult mold development.

[0003] Chinese Patent Publication No. CN220797341U, published on April 16, 2024, discloses a Chinese patent entitled "Rail Socket," which includes an electric rail and an adapter. The electric rail has a rail section, a sealed end section, and a wiring section. The rail section is an integrally molded structure, and along its length, it has a sliding groove, a conductive busbar mounting groove, and a conductive busbar assembly. The conductive busbar assembly is installed in the conductive busbar mounting groove via an insulating snap-fit ​​strip. One end of the conductive busbar assembly is connected to the wiring section, and the other end is sealed off by the sealed end section. The adapter has a socket, a plug-in part, and a conductive plate. The plug-in part is located at the lower end of the adapter, inserts into the sliding groove, and slides on the rail section. The socket is connected to the conductive plate, which is located within the plug-in part and rotates relative to the plug-in part before connecting to the conductive busbar assembly. This rail socket has a complex structure, requires advanced injection molding technology, and has a high cost. Summary of the Invention

[0004] This invention provides a quick-connection power rail that simplifies the structure, achieves modularity, and reduces costs by setting up wire plug groups and grounding plug groups.

[0005] A further objective of this invention is to simplify the fixing structure while ensuring the conductive strip is firmly fixed by setting a first conductive component and a second conductive component.

[0006] To achieve the above objectives, the present invention adopts the following technical solution: a quick-connect power rail, comprising a rail body and a power connection box disposed at the end of the rail body, the rail body comprising a slot, and a first conductive component and a second conductive component respectively disposed on both sides of the slot; the power connection box comprising wire plug-in groups electrically connected to the first conductive component and the second conductive component respectively, and a grounding plug-in group disposed between the two wire plug-in groups.

[0007] In one embodiment, the track body includes a housing, a slot disposed on the surface of the housing and disposed along the length of the housing, and a first conductive component and a second conductive component disposed inside the housing.

[0008] In one embodiment, the first conductive component includes a first conductive strip, the second conductive component includes a second conductive strip, and both the first conductive strip and the second conductive strip have fixed folded edges at their opposite ends.

[0009] In one embodiment, both the first conductive component and the second conductive component include a fixing base, the fixing base having a fixing groove, the openings of the two fixing grooves being arranged opposite to each other, and the first conductive strip and the second conductive strip being fixed in the fixing groove respectively.

[0010] In one embodiment, the wall of the fixing groove is provided with a first fixing protrusion and a second fixing protrusion, and a fixing cavity is provided between the first fixing protrusion and the second fixing protrusion, and the fixing flange is engaged in the fixing cavity.

[0011] In one embodiment, the wire connector assembly includes a handle, an elastic pressure plate, and a connector. The connector is connected to a first conductive strip and a second conductive strip, respectively. The handle abuts against the elastic pressure plate, and the elastic pressure plate contacts the connector.

[0012] In one embodiment, the grounding plug assembly includes a handle, an elastic pressure plate, and a grounding plug. The grounding plug is electrically connected to the housing. The handle is hinged to the housing, and the angle between the direction in which the handle drives the elastic pressure plate to rotate and the thickness direction of the housing is 0° to 90°.

[0013] In one embodiment, the wire connector assembly includes a mounting base, a wiring socket is provided between the mounting base and the connector, the mounting base is provided with a mounting groove facing the handle side, a fixing post is provided in the mounting groove, and an elastic pressure plate is disposed between the fixing post and the wall of the mounting groove and rotates around the fixing post.

[0014] In one embodiment, the elastic pressure plate includes an arc-shaped body, one end of which is provided with a first elastic arm and a bending pressure portion extending in a radial direction, and the other end is provided with a second elastic arm and a bending electrical contact extending in a radial direction.

[0015] In one embodiment, the connector is located on the side of the elastic pressure plate away from the handle.

[0016] Beneficial effects: By setting up wire plug-in groups and grounding plug-in groups, the present invention expands the traditional single wiring function into an integrated and modular design. This not only significantly simplifies the overall structure of the wiring power connection box and reduces the number of parts and assembly processes, but also effectively reduces mold development and production costs. At the same time, it achieves reliable grounding wire connection, improving the product's safety performance and applicability.

[0017] By setting up a first conductive component and a second conductive component, this invention significantly simplifies the traditional complex buckle or insert fixing structure while ensuring that the conductive strip is firmly fixed and has reliable contact. This reduces the processing precision and assembly difficulty, thereby further reducing manufacturing costs and improving production efficiency. Attached Figure Description

[0018] Figure 1 This is a schematic diagram of the structure of the present invention.

[0019] Figure 2 This is a schematic diagram of the wiring power connection box of the present invention.

[0020] Figure 3 This is a schematic diagram of the internal structure of the wiring power connection box of the present invention.

[0021] Figure 4 This is a detailed enlarged view of the wiring power connection box of the present invention.

[0022] Figure 5 This is a cross-sectional view of the first conductive component and the second conductive component of the present invention.

[0023] Figure 6 This is a schematic diagram of the handle of the present invention.

[0024] Figure 7 This is a schematic diagram of the structure of the elastic compression sheet of the present invention.

[0025] Reference numerals: 1: Track body; 2: Housing; 3: Slot; 4: Wiring power connection box; 5: First conductive component; 6: Second conductive component; 7: Cover plate; 8: Handle; 9: Fixing base; 10: Wire plug assembly; 11: Grounding plug assembly; 12: Hand; 13: Fixing hole; 14: Force application part; 15: Groove; 16: Handle fixing post; 17: Protrusion; 18: Boss; 19: Mounting base; 20: Mounting groove; 21: Fixing post; 22: Spring 23: Pressure plate; 24: Arc-shaped body; 25: First elastic arm; 26: Bending pressure part; 27: Second elastic arm; 28: Bending electrical contact; 29: Connector; 30: Grounding socket; 31: First conductive strip; 32: Second conductive strip; 33: Fixing base; 34: Fixing fold; 35: First fixing protrusion; 36: Second fixing protrusion; 37: Fixing cavity; 38: Fixing groove; 39: Third fixing protrusion; 40: Grounding connector. Detailed Implementation

[0026] like Figure 1-7As shown, a quick-connection power rail includes a rail body 1 and a wiring power connection box 4 disposed at the end of the rail body 1. The rail body 1 includes a slot 3, with a first conductive component 5 and a second conductive component 6 respectively disposed on both sides of the slot 3. The wiring power connection box 4 includes wire plug-in groups 10 connected to the first conductive component 5 and the second conductive component 6 respectively, and a grounding plug-in group 11 is disposed between the two wire plug-in groups 10. The overall structure integrates the conductive structure and the wiring structure into one unit. The functional components are clearly divided and neatly arranged. The conductive components and various plug-in groups cooperate to form a complete conductive and wiring system. The overall architecture is simple and orderly, which can not only ensure the basic function of power transmission, but also lay a good structural foundation for subsequent quick-connection operations. The positions of each component are reasonably matched and tightly connected to each other, resulting in stronger overall integrity, facilitating overall assembly, and making the line route more regular. This effectively avoids various problems caused by messy lines and improves the overall regularity and practicality of the equipment.

[0027] In one embodiment, the track body 1 includes a housing 2, a slot 3 disposed on the surface of the housing 2 and arranged along the length of the housing 2, and a first conductive component 5 and a second conductive component 6 disposed within the housing 2. The housing 2 provides all-round protection for the internal conductive components, preventing damage to the conductive components from external dust, moisture, and external impacts, effectively extending the service life of the conductive components and ensuring stable conductivity during long-term use. The slot 3 is disposed on the front of the housing 2, and the wiring power connection box 4 is disposed at one end of the back of the housing 2. The layout of the slot 3 on the front and the wiring power connection box 4 on the back achieves separation of functional areas. The front is responsible for adapter plugging operations, while the back is responsible for wiring operations. The two work areas do not interfere with each other, and the division of labor is clear during use. The first conductive component 5 and the second conductive component 6 have the same structure. The first conductive strip 31 in the first conductive component 5 is an L-polar conductive strip, and the second conductive strip 32 in the second conductive component 6 is an N-polar conductive strip. Correspondingly, the two wire plug groups located on both sides of the grounding plug group are connected to the L-polar conductive strip and the N-polar conductive strip, respectively. The two sets of conductive components have the same structure, and can share processing molds and processes during production, reducing the complexity of the production process.

[0028] In one embodiment, the first conductive component 5 includes a first conductive strip 31, and the second conductive component 6 includes a second conductive strip 32. Both the first conductive strip 31 and the second conductive strip 32 have fixed flanges 34 at their opposite ends. The fixed flanges 34 added to the ends of the conductive strips are integrated limiting structures, which can assist the conductive strips in completing positioning and installation without additional accessories, eliminating the assembly steps of additional fixing parts and simplifying the assembly process. Two first conductive strips 31 and two second conductive strips 32 are provided, and the first conductive strip 31, the second conductive strip 32, and the fixing base 33 are all arranged along the length direction of the housing 2. The first conductive component 5 and the second conductive component 6 have the same structure and are symmetrically arranged along the slot 3, which is used to insert the adapter. The two sets of conductive components are symmetrically distributed around the slot 3, which not only keeps the structural forces on both sides of the track body 1 balanced, preventing component displacement caused by uneven force on one side during long-term use, but also ensures uniform conductivity on both sides of the slot 3. After the adapter is inserted into the slot 3, it can make stable contact with the conductive components on both sides, ensuring smooth power transmission. The symmetrical structural design also gives the components good versatility, and the two conductive components can be used interchangeably, further simplifying the production preparation and assembly process.

[0029] Two first conductive strips 31 are arranged parallel to each other and back to back, with the fixed flange 34 extending towards the side wall of the fixing groove 38 on the opposite side. The outer ends of the first conductive strips 31 abut against the bottom surface of the fixing groove 38. Two second conductive strips 32 are also arranged parallel to each other and back to back, with the fixed flange 34 extending towards the side wall of the fixing groove 38 on the opposite side. The outer ends of the second conductive strips 32 abut against the bottom surface of the fixing groove 38. This installation arrangement allows each conductive strip to form a tight contact with the fixing groove 38 from multiple positions on the side and end, creating a multi-point limiting structure that effectively restricts the displacement of the conductive strips in all directions. Even if the equipment is subjected to slight vibration or external force, the conductive strips will not loosen or shift, always maintaining the preset installation position. The parallel and back-to-back arrangement leaves reasonable space between the two conductive strips of the same type for the connector 28 to extend into and connect to. This significantly improves the stability of the conductive strip after installation, structurally ensuring the reliability of the conductive component installation, avoiding faults such as poor contact and power outages caused by loose components, and improving the stability of equipment operation.

[0030] In one embodiment, both the first conductive component 5 and the second conductive component 6 include a fixing base 33. The fixing base 33 has a fixing groove 38, with the openings of the two fixing grooves 38 facing each other. The first conductive strip 31 and the second conductive strip 32 are respectively fixed within the fixing grooves 38. The fixing base 33, as a dedicated support component, combined with the internal fixing grooves 38, provides a dedicated installation space for the conductive strips, completely housing them within the fixing grooves 38. The groove walls of the fixing grooves 38 provide a protective enclosure for the conductive strips, further isolating them from the influence of the external environment. The design of the two sets of fixing grooves 38 facing each other echoes the position of the central slot 3, resulting in a coordinated and unified overall structural layout. The conductive strips are embedded and fixed within the fixing grooves 38, making the installation simple and intuitive. Assemblers can quickly place the conductive strips in place, reducing the difficulty of assembly operations. The fixed base 33 and the conductive strip form a combined structure. The modular component form facilitates individual production, transportation and maintenance. When a problem occurs in a certain group of conductive components, the corresponding fixed base 33 and internal components can be disassembled and maintained separately without disassembling the entire track body 1, which significantly improves the convenience of maintenance.

[0031] In one embodiment, the wall of the fixing groove 38 is provided with a first fixing protrusion 35 and a second fixing protrusion 36, and a fixing cavity 37 is provided between the first fixing protrusion 35 and the second fixing protrusion 36. The fixing flange 34 is snapped into the fixing cavity 37. The opening of the fixing groove 38 is flared. The first fixing protrusion 35 is located near the opening of the fixing groove 38 and is inclined toward the fixing flange 34. The second fixing protrusion 36 located at the bottom is inclined toward the fixing flange 34. A third fixing protrusion 39 is provided on the side of the second fixing protrusion 36 near the bottom surface of the fixing groove 38. Both the second fixing protrusion 36 and the third fixing protrusion 39 abut against the conductive strip. The multiple sets of fixing protrusions added inside the fixing groove 38 form an independent fixing cavity 37. The fixing flange 34 of the conductive strip is firmly fixed in the fixing cavity 37 by snapping. The snapping structure has a good locking effect. Compared with the traditional connection method, the locking force is stronger, and the vibration resistance and tensile resistance are better. It can maintain the snapping state for a long time without loosening. The flared groove guides the conductive strip during insertion, with its width gradually narrowing from the outside in. Multiple sets of inclined fixing protrusions abut and limit the fixing fold 34 and the conductive strip body from different angles, comprehensively constraining the movement space of the components. Each protrusion fits tightly against the surface of the conductive component, ensuring uniform stress distribution and preventing localized stress concentration. This guarantees the fixing effect while avoiding rigid compression that could cause wear and deformation, thus extending the service life of the conductive strip and fixing groove 38.

[0032] In one embodiment, the wire connector assembly 10 includes a handle 8, an elastic pressure plate 22, and a connector 28. The connector 28 is connected to the first conductive strip 31 and the second conductive strip 32, respectively. The handle 8 and the elastic pressure plate 22 abut against each other, and the elastic pressure plate 22 and the connector 28 are in contact. The elastic pressure plate 22 is V-shaped, and the two wire plug-in groups 10 are symmetrically arranged along the grounding plug-in group 11. The handle 8 is integrally formed and includes a hand part 12, a fixing hole 13, and a force application part 14. The back of the housing 2 is provided with a fixing base 9, which is a recessed platform. The thickness H of the housing 2 is (8, 11 mm], and the depth of the recessed platform is (0, 1 mm]. The wiring power connection box 4 is set in the recessed platform. This can reduce the thickness of the power rail, improve wiring efficiency, and reduce operating space. The recessed fixing base 9 on the back of the housing 2 embeds the entire wiring power connection box 4, effectively reducing the overall thickness of the power rail, making the device thinner and lighter, and adaptable to more narrow installation scenarios. The embedded layout also prevents the wiring structure from protruding outward, reducing the overall external space occupied.

[0033] A handle fixing post 16 is provided on the fixed base 9. The handle fixing post 16 passes through the fixing hole 13, and the handle 8 is hinged to the fixed base 9. It can rotate 0 to 90 degrees around the handle fixing post 16. The force-applying part 14 has a contact surface. In the initial state, the contact surface is in contact with the bent and pressure-bearing part 25 of the elastic pressure plate 22. The hand part 12 is bent upward and has a groove 15 on the side, which conforms to the human operating habit. The groove 15 on the side can increase the friction between the hand 12 and the handle 8, so that the operator is less likely to slip when turning the handle 8, and the operation is comfortable and more convenient. The angle between the rotation direction of the handle 8 driving the elastic pressure plate 22 and the thickness direction of the housing 2 is located in the range of (0, 90°). The handle fixing post 16 has a protrusion 17 at a concentric circle position, and the fixing post 21 has a boss 18 at a concentric circle position.

[0034] In one embodiment, the grounding plug assembly 11 includes a handle 8, an elastic pressure plate 22, and a grounding plug 40, which is connected to the housing 2. The components of the grounding plug assembly 11 are identical to those of the wire plug assembly 10, except that the grounding plug assembly 11 is vertically positioned, with the mounting groove 20 of the mounting base 19 facing the conductive strip. The grounding plug 40 is connected to the housing 2 by bolts. A grounding interface 29 is provided between the mounting base 19 and the grounding plug 40. The grounding interface 29 is for inserting a power cord. The grounding plug assembly 11 uses the same component structure as the wire plug assembly 10, ensuring high component versatility. This allows for unified processing and inventory management during production, reducing the variety of components, simplifying production management, and making maintenance and replacement of parts more convenient without the need for multiple specifications of parts. The dedicated grounding interface 29 has a clear function: it is specifically for inserting a grounding power cord. The interface is clearly divided, allowing operators to quickly distinguish between the wiring port and the grounding port, preventing misoperation. The independent grounding structure ensures proper grounding function and improves the safety factor of the equipment's power supply.

[0035] The wiring power connection box 4 also includes a cover plate 7, the shape of which is adapted to the shape of the wire plug group 10 and the grounding plug group 11, and the positions of the wiring socket 30 and the grounding socket are exposed. The handle 8 is also exposed. The cover plate 7 is fixed to the fixing base 9 by bolts. While achieving the protection function, it will not interfere with normal wiring, turning the handle 8, and other operations, thus balancing protection and use.

[0036] In one embodiment, the wire connector assembly 10 includes a mounting base 19 with a mounting groove 20 facing the handle 8. A fixing post 21 is located within the mounting groove 20, and an elastic pressure plate 22 is partially disposed between the fixing post 21 and the wall of the mounting groove 20, rotating around the fixing post 21. The shape of the mounting groove 20 is adapted to the elastic pressure plate 22. This is a fitted installation structure that precisely constrains the range of motion of the elastic pressure plate 22, ensuring that it always rotates along a preset trajectory without deviation or jamming. The connector is L-shaped, with one end positioned between the two first conductive strips 31 and the two second conductive strips 32, and the other end in contact with the bent contact portion of the elastic pressure plate 22. This cleverly utilizes the installation space, achieving bidirectional connection within a limited area, significantly improving space utilization. The tight connection between components further ensures stable operation of conductivity and wiring functions.

[0037] In one embodiment, the elastic pressure plate 22 includes an arc-shaped body 23. One end of the arc-shaped body 23 extends radially and is provided with a first elastic arm 24 and a bending pressure portion 25, while the other end extends radially and is provided with a second elastic arm 26 and a bending electrical contact 27. The bending electrical contact is bent towards the connector 28. The arc-shaped body 23 rotates around the fixing post 21 and is positioned between the fixing post 21 and the mounting groove 20. The bending electrical contact 27 contacts the plane of the connector 28. The force-applying part 14 can press firmly on the bending pressure portion 25 and generate a downward pressing force on the bending electrical contact 27, ensuring close contact between the power cord and the connector 28. The contact between the bending electrical contact 27 and the plane of the connector 28 forms an input terminal. When the handle 8 applies force to press down on the bent pressure part 25, the overall structure can quickly transmit pressure, allowing the bent electrical contact 27 to continuously apply downward pressure, firmly clamping the inserted power cord. There will be no looseness or poor connection between the power cord and the connector 28, and they will always maintain close contact. Structurally, this avoids safety hazards such as power outages and arcing caused by poor wiring contact. The combination of planar contacts also constitutes a stable input wiring structure, ensuring normal power input.

[0038] In one embodiment, the connector 28 is located on the side of the mounting base 19 away from the handle 8. A wiring socket 30 is provided between the mounting base 19 and the connector 28. The handle 8 is hinged to the housing 2. The wiring socket 30 is used for inserting the power cord. The operating area and the insertion area are reasonably separated, and the layout is clear. The operator's movement of the handle 8 will not interfere with the power cord insertion operation. The two actions are independent of each other, and the operation process is orderly. A dedicated wiring socket 30 is reserved between the mounting base 19 and the connector 28. The socket position is intuitive and eye-catching, and the opening size is adapted to the power cord plug. The power cord insertion and removal process is simple and smooth with low resistance, making daily wiring and disconnection operations very convenient.

[0039] This invention expands the traditional single wiring function into an integrated and modular design by setting up a wire plug-in group 10 and a grounding plug-in group 11. This not only significantly simplifies the overall structure of the wiring power connection box 4, reducing the number of parts and assembly steps, but also effectively reduces mold development and production costs. Simultaneously, it achieves reliable grounding wire connection, improving product safety performance and applicability. The integrated and modular design concept completely changes the problem of traditional wiring structures being scattered and having numerous parts. The integrated structure has a significantly reduced number of parts, making the internal structure of the product simpler and reducing the overall weight. With fewer parts, the corresponding production and assembly steps are simplified, reducing the difficulty of assembly workers' work and increasing assembly speed. Modular components can be uniformly molded for production, eliminating the need to make separate molds for scattered small parts, significantly reducing mold development, manufacturing, and subsequent maintenance costs, and lowering overall production costs from the source. The wire plug-in and grounding plug-in functions are integrated into the same wiring structure, the grounding function is specifically strengthened, the grounding connection is stable and reliable, effectively avoiding electrical safety risks, and significantly improving the safety level of the equipment. The integrated wiring module is suitable for a variety of usage scenarios. Whether it is a conventional power supply scenario or a special power environment with grounding requirements, this product can be used normally. The application scenarios that the product can adapt to are more diverse, and the market application scope is further broadened.

[0040] This invention, by setting a first conductive component 5 and a second conductive component 6, significantly simplifies the traditional complex snap-fit ​​or insert fixing structure while ensuring the conductive strip is firmly fixed and has reliable contact. This reduces processing precision and assembly difficulty, thereby further compressing manufacturing costs and improving production efficiency. Traditional conductive components mostly rely on complex snap-fit ​​or insert combinations for fixing. These structures have high processing requirements, with stringent demands on the dimensional and fitting accuracy of parts, resulting in a high scrap rate. This invention abandons the complex fixing structure, relying on the fixing fold 34 of the conductive strip itself combined with the protruding structure inside the fixing groove 38 to achieve snap-fit ​​fixing. The structure is simple, the processing difficulty of parts is greatly reduced, and there is no need to pursue extremely high precision during processing. The processing steps are also reduced accordingly, improving processing efficiency while significantly reducing the number of defective products, effectively controlling production losses. The simplified fixing structure has a simple assembly logic. Assembly personnel do not need to perform complex alignment, splicing, and snap-fit ​​combination operations, making it easy to learn. A single person can complete large-scale assembly work, steadily improving the overall production line efficiency. The simplified structure, coupled with fewer auxiliary fixing parts, reduces the amount of raw materials used. Combined with optimizations in processing and assembly, the overall manufacturing cost of the product is reduced in all aspects. At the same time, the simplified structure does not sacrifice the fixing effect and conductivity. The conductive strip can still maintain a firm installation state, and the contact between components is tight and the conductivity is stable. While controlling costs and improving efficiency, the core performance of the product is fully preserved, achieving a balance between performance, cost, and efficiency.

Claims

1. A quick-connect power rail, characterized in that, It includes a track body and a wiring power connection box disposed at the end of the track body. The track body includes a slot, and a first conductive component and a second conductive component are respectively disposed on both sides of the slot. The wiring power connection box includes wire plug-in groups that are electrically connected to the first conductive component and the second conductive component respectively, and a grounding plug-in group is provided between the two wire plug-in groups.

2. The quick-connect power rail according to claim 1, characterized in that, The track body includes a housing, a slot is disposed on the surface of the housing and is disposed along the length of the housing, and the first conductive component and the second conductive component are both disposed inside the housing.

3. The quick-connect power rail according to claim 1, characterized in that, The first conductive component includes a first conductive strip, and the second conductive component includes a second conductive strip. Both the first conductive strip and the second conductive strip have fixed folded edges at their opposite ends.

4. A quick-connect power rail according to claim 3, characterized in that, Both the first conductive component and the second conductive component include a fixing base, and the fixing base has a fixing groove. The openings of the two fixing grooves are arranged opposite to each other, and the first conductive strip and the second conductive strip are respectively fixed in the fixing groove.

5. A quick-connect power rail according to claim 4, characterized in that, The groove wall of the fixing groove is provided with a first fixing protrusion and a second fixing protrusion, and a fixing cavity is provided between the first fixing protrusion and the second fixing protrusion, and the fixing flange is locked in the fixing cavity.

6. A quick-connect power rail according to claim 3, characterized in that, The wire connector assembly includes a handle, an elastic pressure plate, and a connector. The connector is connected to the first conductive strip and the second conductive strip, respectively. The handle and the elastic pressure plate abut against each other, and the elastic pressure plate and the connector are in contact.

7. A quick-connect power rail according to claim 2, characterized in that, The grounding plug assembly includes a handle, an elastic pressure plate, and a grounding plug. The grounding plug is electrically connected to the housing. The handle is hinged to the housing. The angle between the direction in which the handle drives the elastic pressure plate to rotate and the thickness direction of the housing is 0° to 90°.

8. A quick-connect power rail according to claim 6, characterized in that, The wire connector assembly includes a mounting base, a wiring socket between the mounting base and the connector, a mounting groove facing the handle side on the mounting base, a fixing post inside the mounting groove, and an elastic pressure plate part disposed between the fixing post and the wall of the mounting groove, and rotating around the fixing post.

9. A quick-connect power rail according to claim 6 or 8, characterized in that, The elastic pressure plate includes an arc-shaped body. One end of the arc-shaped body is provided with a first elastic arm and a bending pressure portion extending in the radial direction, and the other end is provided with a second elastic arm and a bending electrical contact extending in the radial direction.

10. A quick-connect power rail according to claim 6, characterized in that, The connector is located on the side of the elastic pressure plate away from the handle.

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