Rail joint electrifying module

Abstract

The utility model discloses a track joint electrifying module, comprising a sliding assembly which is matched with a conductive track, and an electric appliance slides along the conductive track through the sliding assembly; the rotating assembly is arranged on the outer side of the sliding assembly in a sleeving mode and can rotate around the sliding assembly, the outer side of the rotating assembly is provided with a mounting face, a connecting structure is arranged around the mounting face, and the electric appliance is detachably connected with the rotating assembly through the connecting structure; one end of the conductive assembly is arranged on the side, facing the conductive track, of the sliding assembly and abuts against the conductive track, and the other end of the conductive assembly penetrates out of the installation face and is electrically connected with the electric appliance. According to the utility model, by arranging the modularized track joint structure, the sequence of different electric appliances on the conductive track can be changed only by replacing the electric appliances on the track joint electrifying modules at the corresponding positions.

Description

Technical Field

[0001] This utility model relates to the field of electrical installation technology on conductive rails, and in particular to a rail connector energizing module. Background Technology

[0002] By using a conductive track as a power source and combining it with a ring-shaped conductive ring, a lighting structure supporting 360° rotating illumination can be achieved, while avoiding excessive space occupation while accommodating various electrical appliances. In existing technologies, multiple appliances can be installed in a small space by placing conductive rings on the appliances and then mounting them onto the conductive track. However, when installing appliances on the conductive track, once different appliances are mounted in a predetermined order, their order cannot be changed individually. All appliances must be removed from the conductive track and reinstalled to rearrange their order, resulting in a cumbersome and inconvenient process.

[0003] Therefore, existing technologies still need to be improved and developed. Utility Model Content

[0004] In view of the shortcomings of the prior art, the purpose of this utility model is to provide a rail connector power-conducting module, which aims to solve the problem that in the prior art, after installing multiple electrical appliances on the conductive rail, it is necessary to reinstall them to change the order of the electrical appliances, which leads to cumbersome and inconvenient use.

[0005] The technical solution of this utility model is as follows:

[0006] A track connector power-conducting module, which is slidably sleeved on a conductive track to fix an electrical appliance on the conductive track and provide an electrical connection to the appliance, comprising:

[0007] A sliding component is provided, which is configured to match the conductive track, and the electrical appliance slides along the conductive track via the sliding component;

[0008] A rotating assembly is sleeved on the outside of the sliding assembly and is rotatable around the sliding assembly. The rotating assembly has a mounting surface on its outer side and a connecting structure around the mounting surface. The electrical appliance is detachably connected to the rotating assembly through the connecting structure.

[0009] A conductive component, one end of which is disposed on the side of the sliding component facing the conductive track and abuts against the conductive track, and the other end of which extends out from the mounting surface and is electrically connected to the electrical appliance.

[0010] In one embodiment, the conductive component includes:

[0011] A first conductive protrusion is fixed inside the sliding assembly and extends toward the conductive track, whereby the sliding assembly abuts against the conductive track.

[0012] A conductive structure is disposed between the sliding component and the rotating component, and one side of the conductive structure is connected to the first conductive protrusion.

[0013] The second conductive protrusion is fixed inside the rotating assembly, and one end of the second conductive protrusion abuts against the other side of the conductive structure when the rotating assembly rotates, while the other end of the second conductive protrusion protrudes from the mounting surface and is electrically connected to the electrical appliance.

[0014] In one embodiment, the first conductive protrusion and the second conductive protrusion are respectively provided with spring pins to ensure that the first conductive protrusion always extends out of the sliding component and abuts against the conductive track, and to ensure that the second conductive protrusion always extends out of the rotating component and abuts against the conductive structure.

[0015] In one embodiment, the sliding component includes:

[0016] The body is a ring-shaped structure that is fitted onto the conductive track;

[0017] A boss is provided on the inner side of the body and is engaged with the conductive track. When the sliding component slides along the conductive track, the boss ensures that there is no relative rotation between the sliding component and the conductive track.

[0018] A ring rib is provided around the body circumferentially, and the conductive structure is placed in conjunction with the body.

[0019] In one embodiment, the boss is provided with two first protruding contact through holes penetrating the body, the first conductive contact is fixed in the first protruding contact through holes, and the first protruding contact through holes are arranged on both sides of the ring rib to correspond to the conductive structures arranged on both sides of the ring rib respectively; wherein, the conductive structure is a copper wire ring, and the two conductive structures are arranged around the body on both sides of the ring rib.

[0020] In one embodiment, the rotating component is a ring structure, and a circumferential groove is formed on the inner side of the rotating component to accommodate the sliding component and the conductive structure. The second conductive protrusion abuts against the conductive structure, so that the sliding component and the conductive structure are eccentrically positioned with respect to the rotating component, thereby locking the track connector energizing module on the conductive track.

[0021] In one embodiment, the rotating assembly has an unlocking member on the side away from the mounting surface. The unlocking member abuts against the sliding assembly and pushes the unlocking member toward the sliding assembly and the conductive structure, so that the sliding assembly and the conductive structure are concentrically arranged with the rotating assembly, thereby unlocking the track connector energizing module from the conductive track.

[0022] In one embodiment, a groove is provided between the mounting surface and the rotating component as a connection structure to match the electrical appliance and realize a detachable connection between the electrical appliance and the rotating component.

[0023] In one embodiment, the mounting surface is provided with two second protruding contact through holes penetrating the rotating assembly, and the second protruding contact through holes are respectively provided corresponding to the conductive structures on both sides of the ring rib, and the second conductive protrusions are fixed in the second protruding contact through holes.

[0024] In one embodiment, a mounting groove is provided on the side of the mounting surface away from the rotating assembly, and a spring clip is fixedly provided in the mounting groove to lock the electrical appliance when it is connected to the rotating assembly.

[0025] Compared to existing technologies, this utility model discloses a track connector power-on module, comprising: a sliding component, which is matched with the conductive track, and the electrical appliance slides along the conductive track via the sliding component; a rotating component, which is sleeved on the outside of the sliding component and is rotatable around the sliding component, wherein the outer side of the rotating component has a mounting surface, and a connecting structure is provided around the mounting surface, and the electrical appliance is detachably connected to the rotating component through the connecting structure; and a conductive component, one end of which is disposed on the side of the sliding component facing the conductive track and abuts against the conductive track, and the other end of which protrudes from the mounting surface and is electrically connected to the electrical appliance. This utility model, by setting a modular electrical connector structure, simplifies the process by allowing users to change the order of different electrical appliances on the conductive track simply by replacing the appliance with the corresponding track connector power-on module, eliminating the need to completely remove and reinstall the appliances from the conductive track, making it more convenient and faster to use. Attached Figure Description

[0026] Figure 1 This is a three-dimensional schematic diagram of the track connector power module installed on a conductive track in one embodiment of the present invention.

[0027] Figure 2 This is a three-dimensional schematic diagram of the rail connector power module installed on a conductive rail and connected to different electrical appliances in one embodiment of this utility model.

[0028] Figure 3 This is a top view of one embodiment of the present invention, showing the track connector power module fixed on the conductive track.

[0029] Figure 4 This is a cross-sectional view of the rail connector power module after it is connected to the electrical components in one embodiment of this utility model.

[0030] Figure 5 This is a schematic diagram showing the disassembly of the track joint power module and electrical components in one embodiment of this utility model.

[0031] Figure 6 This is an exploded view of the rail joint power supply module described in one embodiment of this utility model.

[0032] Figure 7 This is another exploded view of the rail joint power supply module described in one embodiment of this utility model.

[0033] Figure 8 This is an exploded view of the rail joint energizing module in one embodiment of the present invention from another direction.

[0034] Figure 9 This is a top view of the track connector energizing module after it has been unlocked relative to the conductive track in one embodiment of this utility model. Detailed Implementation

[0035] This utility model provides a track joint power supply module. To make the purpose, technical solution, and effects of this utility model clearer and more explicit, the following provides a more detailed description of this utility model. It should be understood that the specific embodiments described herein are merely illustrative of this utility model and are not intended to limit this utility model.

[0036] It should be noted that the terms "center", "upper", "lower", "left", "right", "inner", "outer", "vertical", "horizontal", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this utility model and simplifying the description, and do not indicate or imply that the structure referred to must have a specific orientation or must be constructed in a specific orientation. They should not be construed as limitations on this utility model.

[0037] Furthermore, unless otherwise specified in the text, "a" and "described" can refer to a single or multiple entities. If the embodiments of this utility model involve descriptions such as "first," "second," etc., these descriptions are for descriptive purposes only and should not be construed as indicating or implying their relative importance or implicitly specifying the number of indicated technical features. Therefore, a feature defined with "first" or "second" can explicitly or implicitly include at least one of those features. Additionally, the technical solutions of various embodiments can be combined with each other, but this must be based on the ability of those skilled in the art to implement them. When the combination of technical solutions is contradictory or impossible to implement, it should be considered that such a combination of technical solutions does not exist and is not within the scope of protection claimed by this utility model.

[0038] This utility model provides a track joint power supply module, such as Figure 1 and Figure 2 As shown, the track connector energizing module 10 is slidably sleeved on the conductive track 500 to fix the electrical appliance 400 on the conductive track 500 and provide electrical connection for the electrical appliance. Specifically, as... Figure 3 and Figure 5 As shown, the rail connector energizing module 10 includes a sliding component 100, a rotating component 200, and a conductive component 300. The sliding component 100 is configured to match the conductive rail 500, and the electrical appliance 400 slides along the conductive rail 500 via the sliding component 100. The rotating component 200 is sleeved on the outside of the sliding component 100 and is rotatable around the sliding component 100. The rotating component 200 has a mounting surface 230 on its outer side, and a connecting structure 240 surrounds the mounting surface 230, through which the electrical appliance 400 is detachably connected to the rotating component 200. One end of the conductive component 300 is located on the side of the sliding component 100 facing the conductive rail 500 and abuts against the conductive rail 500; the other end of the conductive component 300 protrudes from the mounting surface 230 and is electrically connected to the electrical appliance 400. By utilizing the cooperation of the sliding component 100 and the rotating component 200, the electrical appliance 400 is positioned on the conductive track 500. Then, the conductive component 300 establishes an electrical connection between the electrical appliance 400 and the conductive track 500, thereby ensuring the normal operation of the electrical appliance 400. Finally, through the detachable connection between the electrical appliance 400 and the mounting surface 230 of the rotating component 200 in the track connector power module, it is ensured that when the order of different electrical appliances 400 needs to be changed, it is only necessary to remove the electrical appliance 400 from the original track connector power module and install it on the corresponding track connector power module. It is not necessary to remove all electrical appliances from the conductive track to complete the adjustment of the electrical appliance order, which is convenient and quick to use.

[0039] In one implementation, such as Figure 6 and Figure 7 As shown, the conductive component 300 includes a first conductive protrusion 310, a second conductive protrusion 320, and a conductive structure 330. The first conductive protrusion 310 is fixed within the sliding component 100 and extends towards the conductive track 500, abutting against the track. The conductive structure 330 is disposed between the sliding component 100 and the rotating component 200, with one side of the conductive structure 330 connected to the first conductive protrusion 310. The second conductive protrusion 320 is fixed within the rotating component 200, and when the rotating component 200 rotates, one end of the second conductive protrusion 320 remains in contact with the other side of the conductive structure 330, while the other end of the second conductive protrusion 320 extends from the mounting surface 230 and is electrically connected to the electrical appliance 400. By setting a first conductive protrusion 310, a conductive structure 330, and a second conductive protrusion 320 that abut against each other in sequence, and ensuring that the first conductive protrusion 310 is always in contact with the conductive track 500 and the second conductive protrusion 320 is always connected to the electrical appliance 400, it is ensured that when the track connector energizing module slides along the conductive track 500 or rotates around the conductive track 500, the track connector energizing module can stably realize the electrical connection between the electrical appliance 400 and the conductive track 500, and realize the operation of the corresponding electrical appliance on the conductive track.

[0040] In one embodiment, the first conductive protrusion 310 and the second conductive protrusion 320 are respectively provided with spring pins to ensure that the first conductive protrusion 310 always extends out of the sliding component 100 and abuts against the conductive track 500, and to ensure that the second conductive protrusion 320 always extends out of the rotating component 200 and abuts against the conductive structure 330. Optionally, the spring pins are disposed inside the first conductive protrusion 310 and the second conductive protrusion 320, and the first conductive protrusion 310 and the second conductive protrusion 320 each have movable ends that can extend and retract relative to the whole. Under the elastic force of the spring pins, the movable ends abut against the conductive track 500 and the conductive structure 330 respectively, thereby ensuring that when the track connector energizing module slides along the conductive track 500 or rotates relative to the conductive track 500, the first conductive protrusion 310 remains electrically connected to the conductive track 500, and the second conductive protrusion 320 remains electrically connected to the conductive structure 330, thereby ensuring the electrical connection between the corresponding electrical appliance and the conductive track and ensuring the stable operation of the electrical appliance.

[0041] In one implementation, such as Figure 4 and Figure 6As shown, the sliding assembly 100 includes a body 110, a boss 120, and a ring rib 130. The body 110 is an annular structure fitted onto the conductive track 500. The boss 120 is disposed on the inner side of the body 110 and engages with the conductive track 500. When the sliding assembly 100 slides along the conductive track 500, the boss 120 ensures that there is no relative rotation between the sliding assembly 100 and the conductive track 500. The ring rib 130 is arranged circumferentially around the body 110, and the ring rib 130 cooperates with the body 110 to hold the conductive structure 330. This invention, through the design of the sliding assembly 100, ensures that the track connector energizing module remains stable during sliding along the conductive track 500, while simultaneously fixing the conductive structure 330 stably between the sliding assembly 100 and the rotating assembly 200, thereby ensuring a stable power supply to the corresponding electrical appliance.

[0042] In one implementation, such as Figure 7 and Figure 8 As shown, the boss 120 has two first contact through holes 121 penetrating the body 110. The first conductive contact 310 is fixed in the first contact through hole 121, and the first contact through hole 121 is arranged on both sides of the ring rib 130 to correspond to the conductive structure 330 arranged on both sides of the ring rib 130 respectively. The conductive structure 330 is a copper wire ring, and the two conductive structures 330 surround the body 110 and are arranged on both sides of the ring rib 130. The ring rib 130 divides the outer surface of the body 110 into two areas to place two conductive structures 330 respectively, and each corresponds to one first conductive contact 310 in one of the first contact through holes 121, thereby ensuring that there are two paths in the conductive component 300 and ensuring the electrical connection between the electrical appliance and the conductive track 500.

[0043] In one implementation, such as Figure 7 and Figure 8As shown, the rotating component 200 has a ring-shaped structure, and a circumferential groove 210 is formed on the inner side of the rotating component 200 to accommodate the sliding component 100 and the conductive structure 330. By using the groove 210 to accommodate the sliding component 100 and the conductive structure 330, the rotating component 200 can rotate relative to the sliding component 100, thereby driving the connected electrical appliance to rotate relative to the conductive track, achieving 360° placement of the electrical appliance, such as for 360° lighting. Furthermore, the inner diameter of the groove 210 is larger than the outer diameter of the sliding component 100 and the conductive structure 330, thereby ensuring that the sliding component 100 and the conductive structure 330 can move within the groove 210 relative to the radial plane of the rotating component 200. Figure 3 and Figure 4 As shown, under the action of the spring pin inside the second conductive protrusion 320, the sliding component 100 and the conductive structure 330 are eccentrically arranged with the rotating component 200. That is, the central hole structure of the sliding component 100 and the conductive structure 330 is misaligned with the central hole structure of the rotating component 200, so as to increase the friction between the sliding component 100 and the rotating component 200 and the conductive track 500, thereby locking the track connector energizing module at a specific position on the conductive track 500.

[0044] In one implementation, such as Figure 5 and Figure 6 As shown, the rotating assembly 200 has an unlocking member 220 on the side away from the mounting surface 230. The unlocking member 220 abuts against the sliding assembly 100 and can extend and retract relative to the axial direction of the rotating assembly 200 to push the sliding assembly 100 and the conductive structure 330 to move toward or away from the mounting surface 230. Figure 9 As shown, when the unlocking element 220 is pressed, the sliding component 100 and the conductive structure 330 move towards the mounting surface 230 to be concentrically aligned with the rotating component 200. That is, the central hole structures of the sliding component 100 and the conductive structure 330 are aligned with the central hole structure of the rotating component 200, thereby unlocking the track connector energizing module from the conductive track 500. The track connector energizing module can then slide freely along the conductive track. After moving the track connector energizing module to the desired position on the conductive track 500, the corresponding unlocking element 220 is released. Figure 3As shown, the sliding component 100 and the conductive structure 330 move away from the mounting surface 230 under the action of the spring pin in the second conductive protrusion 320. The sliding component 100 and the conductive structure 330 are re-eccentrically set with the rotating component 200, locking the track connector energizing module in the desired position on the conductive track. The locking and unlocking of the track connector energizing module relative to the conductive track 500 is achieved through the cooperation of the unlocking member 220 and the second conductive protrusion 320. When the unlocking member 220 is pressed, it pushes the sliding component 100 and the conductive structure 330 to align with the rotating component 200, allowing the track connector energizing module to move along the conductive track. When the unlocking member 220 is released, the second conductive protrusion 320 pushes the sliding component 100 and the conductive structure 330 to shift relative to the rotating component 200, using friction to keep the track connector energizing module stationary with respect to the conductive track 500. This locks the track connector energizing module in the corresponding position on the conductive track 500, thereby fixing the corresponding electrical appliance. Regardless of whether it is locked or unlocked, the second conductive protrusion 320 always remains in contact with the conductive structure 330, ensuring that the conductive track 500 supplies power to the electrical appliance.

[0045] In one embodiment, a groove is provided between the mounting surface 230 and the rotating assembly 200 as a connecting structure 240 to match the electrical appliance and achieve a detachable connection between the electrical appliance and the rotating assembly. Specifically, by providing a retaining structure on the electrical appliance that matches the groove, a detachable connection between the electrical appliance 400 and the rail connector power module is achieved, allowing for convenient and quick reordering of different electrical appliances with simple operation.

[0046] In one implementation, such as Figure 6 and Figure 7 As shown, the mounting surface 230 is provided with two second protruding contact through holes 231 penetrating the rotating assembly 200, and the second protruding contact through holes 231 are respectively provided corresponding to the conductive structures 330 on both sides of the annular rib 130. The second conductive protrusions 320 are fixed in the second protruding contact through holes 231. By matching the two second protruding contact through holes 231 with the two conductive structures 330 one-to-one, the second conductive protrusions 320 and the conductive structures 330 are matched one-to-one, thereby ensuring that there are two paths in the conductive assembly 300, and ensuring the electrical connection between the electrical appliance and the conductive track.

[0047] In one implementation, such as Figure 3 and Figure 6As shown, the mounting surface 230 has a mounting groove 232 on the side away from the rotating assembly 200. A spring clip 233 is fixedly installed in the mounting groove 232 to lock the electrical appliance 400 when it is connected to the rotating assembly 200. When the electrical appliance 400 is installed onto the mounting surface 230, the spring clip 233 retracts into the mounting groove 232, thus installing the electrical appliance 400 onto the rotating assembly 200. When the mounting groove 232 aligns with the latch on the electrical appliance 400, the spring clip 233 springs back and engages with the latch, locking the electrical appliance 400 to the mounting surface 230 and completing the installation of the electrical appliance 400 and the rail connector power module. When it is necessary to disassemble the electrical appliance 400, moving the electrical appliance 400 causes the spring clip 233 to retract into the mounting groove 232, separating the electrical appliance 400 from the mounting surface 230. This allows for quick installation and removal of the electrical appliances, enabling convenient and fast switching of the order between different appliances.

[0048] The following describes the structural configuration and usage of the rail connector power module of this utility model with reference to specific embodiments.

[0049] In this embodiment, as Figure 3 and Figure 5 As shown, the track connector energizing module includes a sliding component 100, a rotating component 200, and a conductive component 300, which are sleeved on the conductive track 500 along its axial direction. Specifically, the conductive track 500 is fixed to one side of a hollow cylinder. The sliding component 100 and the rotating component 200 are arranged in a ring shape. The sliding component 100 is sleeved outside the conductive track 500 and can slide along the axial direction of the conductive track 500. The rotating component 200 surrounds the sliding component 100 and can rotate around the conductive track 500. Furthermore, the outer side of the rotating component 200 is provided with a mounting surface 230, and a connecting structure 240 is provided between the mounting surface 230 and the rotating component 200. The track connector power module is detachably connected to the electrical appliance 400 through the connecting structure 240, and the electrical connection between the electrical appliance 400 and the conductive track 500 is realized through the conductive component 300, thereby ensuring that the electrical appliance 400 can move along the conductive track 500 and rotate around the conductive track 500 with the track connector power module, and that the electrical appliance 400 remains energized during movement or rotation. By supplying power to the electrical appliance 400, functions such as charging objects suspended or placed on the track connector power module or providing ambient lighting are provided, making the functions of the track connector power module of this utility model more diverse, applicable to different scenarios, and conducive to market promotion.

[0050] Furthermore, such as Figure 7 and Figure 8 As shown, the sliding assembly 100 includes a body 110, a boss 120, and a ring rib 130. The body 110 is a ring-shaped structure corresponding to the conductive track 500, and the inner ring size of the body 110 is slightly larger than the outer ring size of the conductive track 500 to ensure that the sliding assembly 100 can slide freely along the conductive track 500, thereby ensuring that the electrical appliance 400 slides along the conductive track 500 through the track connector power module. Furthermore, the boss 120 is disposed corresponding to the conductive track 500 and is adapted to the groove that fixes the conductive track 500, so as to realize the locking of the sliding component 100 and the conductive track 500. This ensures that when the sliding component 100 slides along the conductive track 500, the sliding component 100 does not rotate relative to the conductive track 500. That is, the boss 120 always remains disposed corresponding to the conductive track 500, so as to ensure that when the electrical appliance 400 slides with the track connector power-on module, the conductive track 500 always maintains electrical connection with the conductive component 300, and continuously supplies power to the electrical appliance 400. Furthermore, the boss 120 provides a positioning function for the sliding component 100. When assembling the track connector power-on module, it is only necessary to lock the boss 120 into the corresponding groove of the conductive track 500 to ensure the positional relationship between the sliding component 100 and the conductive track 500, thereby completing the installation of the track connector power-on module. The whole process is convenient, quick and easy to operate.

[0051] Furthermore, such as Figure 6 and Figure 7 As shown, the annular rib 130 is arranged around the outer wall of the body 110 in a circumferential direction, dividing the outer wall of the body 110 into upper and lower parts. Specifically, the boss 120 is provided with two first protruding contact through holes 121, allowing the conductive component 300 to pass through the sliding component 100 and electrically connect with the conductive track 500. Further, the first protruding contact through holes 121 are respectively arranged on both sides of the annular rib 130, that is, corresponding to the upper and lower halves of the body 110, respectively, to provide two parallel conductive paths for the conductive component 300.

[0052] Furthermore, such as Figure 4 and Figure 5As shown, the rotating component 200 is sleeved on the outside of the sliding component 100, and the rotating component 200 can rotate around the conductive track 500. Specifically, the rotating component 200 has a placement groove 210 on its inner side along the axial direction corresponding to the sliding component 100, to accommodate the sliding component 100 and allow the rotating component 200 to move along the axial direction of the conductive track 500 following the sliding component 100, while ensuring that the rotating component 200 can rotate relative to the sliding component 100 in the radial plane of the conductive track 500. Further, the inner diameter of the placement groove 210 is larger than the outer diameter of the sliding component 100, and the sliding component 100 is eccentrically positioned relative to the rotating component 200; the placement groove 210 has an opening 211 on the other side opposite to the mounting surface 230, and an unlocking member 220 is provided corresponding to the opening 211. The unlocking member 220 is provided corresponding to the ring rib 130 of the sliding component 100 and can extend and retract from the opening 211 along the axial direction of the rotating component 200. When the unlocking member 220 is not pressed, the sliding component 100 and the rotating component 200 are eccentrically positioned, and the conductive track 500 is clamped between the sliding component 100 and the rotating component 200, thereby locking the position of the sliding component 100 on the conductive track 500. Simultaneously, the friction between the sliding component 100 and the rotating component 200 locks the orientation of the rotating component 200 on the sliding component 100, thus locking the position and orientation of the track connector energizing module on the conductive track 500. When the unlocking member 220 is pressed, the sliding component 100 moves to a position concentric with the rotating component 200, and both the sliding component 100 and the rotating component 200 separate from the conductive track 500. The sliding component 100 can then slide freely along the conductive track 500, and the rotating component 200 can rotate freely relative to the sliding component 100, facilitating user adjustment of the position and orientation of the track connector energizing module on the conductive track 500.

[0053] Furthermore, in this embodiment, as Figure 4 and Figure 5As shown, the connection structure 240 between the mounting surface 230 and the rotating component 200 is a slot. The mounting surface 230 and the rotating component 200 form an "I"-shaped structure to adapt to the retaining structure on the electrical appliance 400, thereby realizing the detachable connection between the electrical appliance 400 and the track connector power module. Further, the mounting surface 230 is provided with two second protruding contact holes 231 and one mounting groove 232. In this embodiment, the second protruding contact holes 231 are symmetrically arranged relative to the mounting groove 232, and the second protruding contact holes 231 are respectively arranged corresponding to the upper and lower halves separated by the ring rib 130 in the sliding component 100, so that the conductive component 300 passes through the sliding component 100 to electrically connect with the conductive track 500, and provides two parallel conductive paths for the conductive component 300. Further, as... Figure 4 and Figure 6 As shown, a spring clip 233 is provided in the mounting groove 232. The spring clip 233 can extend and retract relative to the surface of the mounting surface 230. When subjected to force, the spring clip 233 retracts into the mounting groove 232 to facilitate the installation of the track connector power module and the electrical appliance 400 through the mounting surface 230. After the electrical appliance 400 is installed in place, the mounting groove 232 corresponds to the latch on the electrical appliance 400, and the spring clip 233 extends from the mounting groove 232 and engages with the latch. The conductive component 300 is electrically connected to the conductive protrusion on the electrical appliance 400, thereby achieving the fixation and electrical connection between the electrical appliance 400 and the track connector power module, ensuring that the electrical appliance 400 can move freely with the track connector power module while ensuring the power supply to the electrical appliance 400.

[0054] Furthermore, such as Figure 7 and Figure 8As shown, the conductive component 300 includes a first conductive protrusion 310, a second conductive protrusion 320, and a conductive structure 330. The first conductive protrusion 310, the conductive structure 330, and the second conductive protrusion 320 are connected sequentially. Further, the first conductive protrusion 310 is fixed within the first protrusion through-hole 121. One end of the first conductive protrusion 310 extends inward from the sliding component 100 and abuts against the conductive track 500. The other end of the first conductive protrusion 310 extends outward from the sliding component 100 and abuts against the conductive structure 330, forming a conductive path. Further, the conductive structure 330 is a copper ring, and its shape matches that of the ring rib 130. Two conductive structures 330 are respectively disposed on both sides of the ring rib 130 and each corresponds to one of the first protrusion through-holes 121, thereby ensuring a conductive path between the two first conductive protrusions 310 and the conductive structure 330. Furthermore, the conductive structure 330 is fixedly accommodated within the placement groove 210 of the rotating assembly 200 to ensure that the conductive structure 330 moves synchronously with the sliding assembly 100, and that the conductive structure 330 is electrically connected to the first conductive protrusion 310 and the second conductive protrusion 320 respectively when the rotating assembly 200 rotates relative to the sliding assembly 100. Furthermore, the second conductive protrusion 320 is fixed within the second protrusion through hole 231. One end of the second conductive protrusion 320 extends inward from the rotating assembly 200 and abuts against the conductive structure 330, while the other end extends outward from the rotating assembly 200 and is parallel to the surface of the mounting surface 230. This arrangement does not affect the installation process of the electrical appliance 400 on the mounting surface 230 of the rotating assembly 200, and ensures electrical connection between the second conductive protrusion 320 and the conductive protrusion of the electrical appliance 400 after the electrical appliance 400 is installed on the mounting surface 230. Furthermore, the two second conductive protrusions 320 are respectively provided with the two conductive structures 330 to ensure two conductive paths between the electrical appliance 400 and the conductive track 500.Furthermore, the first conductive protrusion 310 and the second conductive protrusion 320 are respectively provided with spring pins. The spring pins ensure that the two ends of the first conductive protrusion 310 and the second conductive protrusion 320 can freely extend and retract. By setting the length of the first conductive protrusion 310 to be greater than the length of the first protrusion through hole 121, it is ensured that the first conductive protrusion 310 abuts against the conductive track 500 and the conductive structure 330 respectively. By setting the length of the second conductive protrusion 320 to be greater than the length of the second protrusion through hole 231, it is ensured that the second conductive protrusion 320 abuts against the conductive structure 330 and the conductive protrusion of the electrical appliance 400 respectively, thereby ensuring the electrical connection between the conductive track 500 and the electrical appliance 400 during use.

[0055] Furthermore, such as Figure 4 and Figure 8 As shown, in this embodiment, the electrical appliance 400 is provided with a retaining structure 410 corresponding to the track connector power supply module. The retaining structure 410 is matched with the connecting structure 240 on the track connector power supply module. Inserting the retaining structure 410 into the slot of the connecting structure 240 completes the retaining connection between the electrical appliance 400 and the track connector power supply module. Further, as... Figure 8 As shown, the electrical appliance 400 is provided with a conductive protrusion 420 corresponding to the second protrusion through hole 231 on the rail connector power supply module, and a bayonet 430 is provided corresponding to the mounting groove 232 on the rail connector power supply module. This ensures that when the electrical appliance 400 is connected to the rail connector power supply module, the spring buckle 233 and the bayonet 430 lock together. The conductive protrusion 420 abuts against the second conductive protrusion 320 in the second protrusion through hole 231 to form a conductive path to supply power to the electrical appliance 400.

[0056] Furthermore, such as Figure 4As shown, the electrical appliance 400 has a pivot structure, and the pivot structure has locking teeth 440 and several locking tooth slots 450 corresponding to the locking teeth 440. The locking tooth slots 450 engage with the locking teeth 440. Thus, when it is necessary to adjust the angle of the electrical appliance 400 on the axial plane of the conductive track 500, the angle of the electrical appliance 400 on the axial plane of the conductive track 500 can be adjusted by engaging the locking teeth 440 into different locking tooth slots 450. When the conductive track 500 is placed vertically, after connecting the electrical appliance 400 to the track connector power module, the sliding component 100 drives the track connector power module to slide along the conductive track 500, thereby adjusting the height of the electrical appliance 400. Then, the rotating component 200 drives the track connector power module to rotate around the conductive track 500, thereby adjusting the fixed orientation of the electrical appliance 400 in the horizontal plane. Finally, through the cooperation of the clamping 440 and the clamping tooth groove 450, the electrical appliance 400 rotates relative to the axial direction of the conductive track 500, thereby determining the fixed angle of the electrical appliance 400 in the vertical plane. By using the track connector power module in conjunction with different structures on the electrical appliance, users can be provided with lighting, charging, or power supply functions at different heights, angles, and directions. By staggering the positions of different items, space utilization is optimized, the application scenarios of different electrical appliances are expanded, and further market promotion is beneficial.

[0057] In this embodiment, after assembling the track connector power supply module, several track connector power supply modules can be sequentially fitted onto the conductive track 500. The position and orientation of each track connector power supply module on the conductive track 500 can be arbitrarily set as needed. Figure 1 and Figure 2 As shown, after multiple track connector power modules 10 are mounted on the conductive track 500, when electrical appliances need to be connected, the appliances 400 are connected to the corresponding track connector power modules 10 as needed, enabling the placement of appliances in different positions and orientations. When the order of different appliances 400 needs to be adjusted, the appliances 400 are simply removed from the track connector power modules 10 and reinstalled onto the corresponding track connector power modules 10 to complete the interchange. The method is simple, quick, and user-friendly. In this embodiment, the appliances 400 include LED lights, USB charging connectors, and wireless charging trays. By adjusting the height, angle, and orientation of the appliances 400 relative to the conductive track 500, users can be provided with lighting and charging functions in specific directions. Simultaneously, adjacent appliances can be staggered, further improving space utilization.

[0058] The track connector power module of this invention enables quick assembly and disassembly of the electrical appliance 400 via the mounting surface 230 and the connecting structure 240. Simultaneously, the sliding component 100 allows sliding along the conductive track 500, and the rotation component 200 adjusts the orientation of the electrical appliance 400 on the horizontal plane. Finally, the conductive component 300 ensures that the electrical appliance 400 maintains an electrical connection with the conductive track 500 at all times, thereby ensuring the continuous operation of the electrical appliance 400. This allows for quick adjustment of the position and orientation of different electrical appliances 400, and also enables quick assembly and disassembly to change the order of different electrical appliances 400, thus providing users with more customized lighting, charging, or power supply functions, making it convenient for users.

[0059] In summary, this utility model discloses a track connector power-on module, comprising: a sliding component, which is matched with a conductive track, and an electrical appliance slides along the conductive track via the sliding component; a rotating component, which is sleeved on the outside of the sliding component and is rotatable around the sliding component, wherein the outer side of the rotating component has a mounting surface, and a connecting structure is provided around the mounting surface, and the electrical appliance is detachably connected to the rotating component through the connecting structure; and a conductive component, one end of which is disposed on the side of the sliding component facing the conductive track and abuts against the conductive track, and the other end of which protrudes from the mounting surface and is electrically connected to the electrical appliance. This utility model, by setting a modular electrical connector structure, simplifies the process when changing the order of different electrical appliances on the conductive track; only the electrical appliance needs to be replaced with the corresponding track connector power-on module, eliminating the need to completely remove and reinstall the electrical appliances from the conductive track, making it more convenient and faster to use.

[0060] It should be understood that the application of this utility model is not limited to the examples above. Those skilled in the art can make improvements or modifications based on the above description, and all such improvements and modifications should fall within the protection scope of the appended claims.

Claims

1. A rail connector power supply module, characterized in that, The track connector energizing module can be slidably sleeved on the conductive track to fix the electrical appliance on the conductive track and provide electrical connection to the electrical appliance, including: A sliding component is provided, which is configured to match the conductive track, and the electrical appliance slides along the conductive track via the sliding component; A rotating assembly is sleeved on the outside of the sliding assembly and is rotatable around the sliding assembly. The rotating assembly has a mounting surface on its outer side and a connecting structure around the mounting surface. The electrical appliance is detachably connected to the rotating assembly through the connecting structure. A conductive component, one end of which is disposed on the side of the sliding component facing the conductive track and abuts against the conductive track, and the other end of which extends out from the mounting surface and is electrically connected to the electrical appliance.

2. The track joint power supply module according to claim 1, characterized in that, The conductive component includes: A first conductive protrusion is fixed inside the sliding assembly and extends toward the conductive track, whereby the sliding assembly abuts against the conductive track. A conductive structure is disposed between the sliding component and the rotating component, and one side of the conductive structure is connected to the first conductive protrusion. The second conductive protrusion is fixed inside the rotating assembly, and one end of the second conductive protrusion abuts against the other side of the conductive structure when the rotating assembly rotates, while the other end of the second conductive protrusion protrudes from the mounting surface and is electrically connected to the electrical appliance.

3. The track joint power supply module according to claim 2, characterized in that, The first conductive protrusion and the second conductive protrusion are respectively provided with spring pins to ensure that the first conductive protrusion always extends out of the sliding component and abuts against the conductive track, and to ensure that the second conductive protrusion always extends out of the rotating component and abuts against the conductive structure.

4. The track joint power supply module according to claim 2, characterized in that, The sliding component includes: The body is a ring-shaped structure that is fitted onto the conductive track; A boss is provided on the inner side of the body and is engaged with the conductive track. When the sliding component slides along the conductive track, the boss ensures that there is no relative rotation between the sliding component and the conductive track. A ring rib is provided around the body circumferentially, and the conductive structure is placed in conjunction with the body.

5. The track joint power supply module according to claim 4, characterized in that, The protrusion is provided with two first protruding contact through holes penetrating the body. The first conductive protrusion is fixed in the first protruding contact through hole, and the first protruding contact through hole is arranged on both sides of the ring rib to correspond to the conductive structure arranged on both sides of the ring rib respectively. The conductive structure is a copper wire ring, and the two conductive structures are arranged around the body on both sides of the ring rib.

6. The track joint power supply module according to claim 3, characterized in that, The rotating component is a ring structure, and a groove is formed around the inner side of the rotating component to accommodate the sliding component and the conductive structure. The second conductive protrusion abuts against the conductive structure, so that the sliding component and the conductive structure are eccentrically positioned relative to the rotating component, thereby locking the track connector energizing module onto the conductive track.

7. The track joint power supply module according to claim 6, characterized in that, The rotating assembly has an unlocking component on the side away from the mounting surface. The unlocking component abuts against the sliding assembly and pushes the unlocking component toward the sliding assembly and the conductive structure, so that the sliding assembly and the conductive structure are concentrically arranged with the rotating assembly, thereby unlocking the track connector energizing module from the conductive track.

8. The rail joint power supply module according to claim 2, characterized in that, A groove is provided between the mounting surface and the rotating component as a connection structure to match the electrical appliance and realize the detachable connection between the electrical appliance and the rotating component.

9. The track joint power supply module according to claim 5, characterized in that, The mounting surface is provided with two second protruding contact through holes that penetrate the rotating assembly, and the second protruding contact through holes are respectively provided with conductive structures on both sides of the ring rib, and the second conductive protrusions are fixed in the second protruding contact through holes.

10. The rail joint power supply module according to claim 8, characterized in that, The mounting surface is provided with a mounting groove on the side away from the rotating component, and a spring clip is fixed in the mounting groove to lock the electrical appliance when it is connected to the rotating component.

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