Track socket with cleaning structure for electromechanical equipment
By introducing structures such as a movable ring, fork, scraper, sponge airbag, and air nozzle into the track socket, the problem of dust and oil entering during the sliding of the track socket is solved, thus improving the cleanliness and stability of the socket.
Patent Information
- Application Number
- CN202511258328.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-09-04
- Publication Date
- 2025-12-16
- Estimated Expiration
- Not applicable · inactive patent
AI Technical Summary
In existing track sockets, the groove remains open when the socket slides into the track, allowing dust and oil to enter, affecting the normal use of the socket and potentially causing problems such as jamming, poor contact, or short circuits.
A track socket for electromechanical equipment has been designed, comprising a movable ring, a fork, a scraper, a sponge airbag, and an air blowing port. The movable ring rotates to achieve contact and fixation, the scraper cleans, the sponge airbag squeezes, and the air blowing port blows air to ensure the cleanliness of the socket's interior.
Effectively cleans the inside of the track socket, reduces dust and oil accumulation, improves the stability and reliability of the socket, prevents poor contact and short circuits, and ensures smooth sliding of the socket.
Smart Images
Figure CN121149752A_ABST
Abstract
Description
Technical Field
[0001] This invention relates to the field of electromechanical engineering, specifically to a track socket with a clean structure for electromechanical equipment. Background Technology
[0002] As people's living standards continue to improve, their demand for electromechanical equipment in daily life is increasing. From transportation vehicles to various household appliances, computers, printers, etc., these have become indispensable electromechanical products in people's lives. Electromechanical products cannot function without electrical outlets when they need to be connected to electricity.
[0003] Track sockets are an innovative type of socket characterized by their flexibility and convenience. A relatively new type of socket that has emerged in recent years, it utilizes a customizable track that can be embedded in walls, tables, baseboards, etc., with detachable adapters installed on the track to form a movable and expandable socket module. Its working principle involves conductive contacts on the track making contact with electrodes or plugs on the socket to establish an electrical connection and transmit power. Existing conductive contacts are primarily copper strips. The two contacts on the socket slide in contact with the live and neutral copper strips, and a movable protrusion in the center of the socket engages with the ground wire plastic strip in the center of the track.
[0004] However, because track sockets require a sliding fit between the socket and the track, the track groove remains open at all times, allowing dust and oil from the air to enter. This accumulation of dust and oil can affect the normal use of the track socket, making it difficult to slide smoothly, potentially causing it to jam, or affecting its conductivity, leading to poor contact or short circuits. Therefore, this does not meet current requirements. To address this, we propose a track socket with a clean-keeping structure for electromechanical equipment. Summary of the Invention
[0005] This invention provides a track socket with a cleaning structure for electromechanical equipment, which automatically cleans the inside of the track during sliding. This solves the problem mentioned in the background art, where the track socket requires sliding contact with the track, causing the track groove to remain open. This allows dust and oil from the air to enter the groove. The accumulation of this dust and oil can affect the normal use of the track socket, making sliding difficult, potentially causing jamming, or affecting the socket's conductivity, leading to poor contact or short circuits.
[0006] This invention provides the following technical solution: a track socket with a cleaning structure for electromechanical equipment, comprising a track and an adapter that slides with the track. The track has an adapter groove on one side adjacent to the adapter. A live wire copper strip, a neutral wire copper strip, and a ground wire are installed inside the track. The adapter has a live wire copper post, a ground wire post, and a neutral wire copper post installed inside. The adapter includes a base. A plug block that engages with the adapter groove is installed on one side of the base. Scrapers for cleaning dust from the adapter groove are installed on both sides of the plug block. A grounding plate is installed inside the other side of the base. A panel is snapped onto the side of the base. A movable ring is slidably installed on the outer side of the base. The system internally houses a live wire shaft seat and a neutral wire shaft seat. The live wire shaft seat is rotatably mounted on the live wire copper post, and the neutral wire shaft seat is rotatably mounted on the neutral wire copper post. A live wire contact plate is mounted at the bottom of the live wire shaft seat, and a neutral wire contact plate is mounted at the bottom of the neutral wire shaft seat. A ground wire post is mounted at the center of the base, and a central bushing is coaxially mounted on the ground wire post. A control rod is inserted into the base and engages with the central bushing. A connecting post is connected to the bottom of the central bushing, and the connecting post slides in contact with the ground wire. A fork is installed inside the movable ring to control the connection status of the live wire contact plate, the neutral wire contact plate, and the live wire and neutral wire copper strips. Under normal conditions, the live wire terminal block and the neutral wire terminal block move closer to the plug and are in clearance fit with the live wire copper strip and the neutral wire copper strip; After the movable ring is rotated, the shift fork drives the live wire shaft seat and the neutral wire shaft seat to move. The live wire terminal block and the neutral wire terminal block rotate outward and come into contact with the live wire copper strip and the neutral wire copper strip respectively to conduct electricity.
[0007] As an optional solution for a track socket with a clean structure for electromechanical equipment according to the present invention, wherein: a live wire toggle and a neutral wire toggle are rotatably mounted in the base; a live wire locking spring is engaged between the live wire toggle and the live wire shaft seat; a live wire pin is eccentrically mounted on the live wire toggle; a neutral wire locking spring is engaged between the neutral wire toggle and the neutral wire shaft seat; a neutral wire pin is eccentrically mounted on the neutral wire toggle; and two toggle forks are provided, arranged in a circumferential array, and the two toggle forks are engaged with the live wire pin and the neutral wire pin, respectively.
[0008] As an optional solution for a track socket with a clean structure for electromechanical equipment according to the present invention, wherein: a grounding protrusion is integrally provided on the side of the central bushing, a torsion spring is installed on the central bushing, the other end of the torsion spring is engaged with the base, the end of the control rod is in contact with the grounding protrusion, the connecting post is eccentrically installed with the central bushing, and a limiting groove for guiding the movement of the adapter is provided on the grounding line, and the connecting post is slidably engaged with the limiting groove.
[0009] As an alternative solution for a track socket with a clean structure for electromechanical equipment according to the present invention, wherein: the limiting slot includes a flat movable slot, and a plurality of limiting arc slots are equidistantly arranged on the movable slot, and the limiting arc slots are connected to the movable slot; Under normal conditions, the torsion spring is released, and the end of the control lever naturally fits against the grounding protrusion. At this time, the connecting post is located in the limiting arc groove, and the adapter cannot move. When the control lever is pressed, the central bushing rotates, the connecting post moves to the movable slot, and the adapter adjusts its position while the control lever is pressed.
[0010] As an alternative solution for a track socket with a cleaning structure for electromechanical equipment according to the present invention, wherein: a traveling wheel is rotatably mounted on the bottom of the plug block, a toothed shovel plate is movably mounted inside the plug block, a transmission gear that is rotatably connected to the traveling wheel is rotatably mounted inside the plug block, the toothed shovel plate is configured as an arc-shaped plate with a rack on one side adjacent to the transmission gear, a reset spring for resetting is mounted at the end of the toothed shovel plate, the other end of the reset spring is connected to the inner wall of the plug block, and a moving wheel is mounted on the side of the toothed shovel plate, the moving wheel slidingly engaging with the plug block; Normally, the toothed shovel is hidden in the insert block, and there is a gap between the toothed shovel and the transmission gear.
[0011] As an alternative solution for a track socket with a cleaning structure for electromechanical equipment according to the present invention, wherein: a transmission plate is installed on the side of the control lever, a passive pressure plate is installed on the side of the toothed shovel away from the transmission gear, a buffer spring is installed on the side of the passive pressure plate, and an active pressure plate is connected between the buffer spring and the transmission plate; When the control lever is pressed, the active pressure plate presses the buffer spring, the toothed shovel moves down and meshes with the transmission gear. At this time, the adapter moves, the travel wheel rotates and drives the toothed shovel to extend, thereby cleaning the scraper.
[0012] As an optional solution for a track socket with a cleaning structure for electromechanical equipment according to the present invention, wherein: a plurality of sponge airbags are continuously arranged inside the track device; an adhesive strip is installed on the side wall of the track device, the adhesive strip is attached to the side of the sponge airbag; the sponge airbag is connected to an air suction pipe, the air suction pipe is configured as a pipe with a one-way valve at the pipe opening; a plurality of air blowing ports are opened at the upper oblique angle of the adapter slide, the plurality of air blowing ports correspond to and communicate with the plurality of sponge airbags; a compression block is installed on the base; after the adapter is assembled with the track device, the compression block and the adhesive strip are press-fitted together.
[0013] As an alternative solution for a track socket with a cleaning structure for electromechanical equipment according to the present invention, the extrusion block is configured as a movable block with a sharp corner on its outer end face, and a pressure roller is rotatably installed at the sharp corner of the extrusion block, and the pressure roller rolls and adheres to the rubber strip.
[0014] As an alternative solution for a track socket with a clean structure for electromechanical equipment according to the present invention, wherein: a connecting rod is installed on the side of the control rod, the pressing block is slidably installed with the base, an inclined block is installed on the side of the pressing block, the connecting rod is slidably attached to the inclined block, and a reset spring for resetting is installed between the pressing block and the base; When the control lever is pressed, the compression block moves outward, increasing the compression of the sponge airbags along its path.
[0015] As an alternative solution for a track socket with a clean structure for electromechanical equipment according to the present invention, wherein: the panel is provided with a socket for connecting to a plug, and the socket is connected to the power supply plate.
[0016] The present invention has the following beneficial effects: 1. This electromechanical equipment uses a track socket with a clean structure. Through the cooperation of the movable ring, the shift fork, and the live wire and neutral wire shift posts, under normal conditions, the live wire and neutral wire locking springs are in an outward bent state. At this time, although the adapter is assembled with the track device, it is not connected to electricity. However, when the movable ring rotates, the live wire and neutral wire connecting plates unfold, so that the live wire connecting plate and the neutral wire connecting plate contact the live wire copper strip and the neutral wire copper strip respectively, realizing the connection between the adapter and the track device. Furthermore, through the cooperation of the control lever and the grounding protrusion, the torsion spring is relaxed under normal conditions, and the connecting post is located in the limiting arc groove, preventing the adapter from moving and thus fixing the adapter's position for easy use. When the adapter's position needs to be adjusted, press the control lever to change the position of the connecting post, causing the connecting post to rotate into the moving slot, allowing the adapter to slide. After moving to the target location, release the control lever, causing the connecting post to slide back into the nearest limiting arc groove, thus locking the position. Unlike existing technologies, in this invention, scrapers are installed on both sides of the plug block. These scrapers can clean the neutral wire copper strip in advance when the adapter slides, thereby reducing the possibility of poor contact and improving the stability and reliability of the track socket.
[0017] 2. This electromechanical equipment uses a track socket with a cleaning structure. Through the setting of the travel wheels, the transmission gear rotates when the adapter moves. Through the setting of the toothed scraper, the toothed scraper can be engaged with the transmission gear by pressing the control lever, thereby controlling whether the toothed scraper extends. That is, pressing the control lever allows the adapter to move, and through the transmission of the active pressure plate, buffer spring, and passive pressure plate, the toothed scraper engages with the transmission gear, extending outward to scrape dust from the scraper surface, keeping the scraper surface clean and thus improving the cleaning effect of the scraper.
[0018] 3. The electromechanical equipment uses a track socket with a cleaning structure. By setting a sponge airbag and an air blowing port in the track and setting a squeezing block on the side of the base, the adapter moves and squeezes the nearby sponge airbag, thereby squeezing the gas in the sponge airbag out of the air blowing port, realizing the blowing effect of the air blowing port. This blows out the dust in the adapter slide, especially the dirt scooped up by the scraper and toothed shovel, further improving the cleaning effect of the device. Furthermore, the linkage and inclined block design allows the squeezing block to move outward when the control lever is pressed, thereby increasing the squeezing force on the sponge airbag. This results in more gas being squeezed out of the sponge airbag, which in turn increases the air volume from the air outlet, further improving the cleaning effect of the device and enhancing the stability and reliability of the track socket. Attached Figure Description
[0019] Figure 1 This is a three-dimensional structural diagram of the present invention.
[0020] Figure 2 This is a three-dimensional structural diagram of the adapter of the present invention.
[0021] Figure 3 This is a three-dimensional structural schematic diagram of part of the present invention.
[0022] Figure 4 This is a cross-sectional three-dimensional structural schematic diagram of the adapter of the present invention.
[0023] Figure 5 This is a schematic diagram of the shovel drive structure of the present invention.
[0024] Figure 6 This is a schematic diagram of the overall cross-sectional structure of the present invention.
[0025] Figure 7 This is a schematic diagram of the cross-sectional structure of the adapter of the present invention.
[0026] Figure 8 This is a cross-sectional view of the adapter structure of the present invention.
[0027] Figure 9 For the present invention Figure 8 A schematic diagram of the structure after unfolding at point A.
[0028] Figure 10 This is a schematic diagram of the cross-sectional structure of the orbiter of the present invention.
[0029] Figure 11 This is a schematic diagram of the card slot structure of the present invention.
[0030] In the diagram: 10. Track assembly; 11. Live wire copper strip; 12. Neutral wire copper strip; 13. Ground wire; 110. Adaptor groove; 120. Sponge airbag; 130. Adhesive strip; 140. Suction pipe; 150. Air outlet; 160. Restriction slot; 161. Movement slot; 162. Restriction arc groove; 20. Adapter; 210. Base; 220. Panel; 221. Socket; 230. Movable ring; 231. Shift fork; 240. Insert block; 250. Connector board; 310. Live wire copper post; 320. Ground wire post; 330. Neutral wire copper post; 340. Central bushing; 341. Ground wire protrusion; 342. Torsion spring; 350. Connecting post; 360. 370. Live wire shaft seat; 380. Neutral wire shaft seat; 381. Live wire lever; 382. Live wire lever; 390. Neutral wire lever; 391. Neutral wire lever; 392. Neutral wire lever; 410. Control lever; 510. Pressing block; 520. Pressure roller; 530. Connecting rod; 540. Inclined block; 550. Return spring; 610. Live wire connector; 620. Neutral wire connector; 710. Scraper; 720. Toothed shovel; 730. Traveling wheel; 731. Transmission gear; 740. Transmission plate; 750. Active pressure plate; 760. Buffer spring; 770. Passive pressure plate; 780. Moving wheel; 790. Return spring. Detailed Implementation
[0031] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.
[0032] Example 1: This example aims to address the issue that because track sockets require a sliding fit between the socket and the track, the track's central groove remains open, allowing dust and oil from the air to enter. This accumulation of dust and oil can affect the normal use of the track socket, making sliding difficult, potentially causing jamming, or affecting the socket's conductivity, leading to poor contact or short circuits. Please refer to [link to relevant documentation]. Figures 1-11 A track socket with a cleaning structure for electromechanical equipment includes a tracker 10 and an adapter 20 that slides with the tracker 10. The tracker 10 has an adapter groove 110 on one side adjacent to the adapter 20. A live wire copper strip 11, a neutral wire copper strip 12, and a ground wire 13 are installed inside the tracker 10. A live wire copper post 310, a ground wire post 320, and a neutral wire copper post 330 are installed inside the adapter 20. The adapter 20 includes a base 210. A plug block 240 that plugs into the adapter groove 110 is installed on one side of the base 210. Scrapers 710 for cleaning dust in the adapter groove 110 are installed on both sides of the plug block 240. A power supply plate 250 is installed inside the other side of the base 210. A panel 220 is snapped onto the side of the base 210. A socket hole 221 for connecting to a plug is opened on the panel 220. The socket hole 221 connects to the power supply plate 250.
[0033] A movable ring 230 is slidably installed on the outer side of the base 210. A live wire shaft seat 360 and a neutral wire shaft seat 370 are rotatably installed inside the base 210. The live wire shaft seat 360 is rotatably installed on the live wire copper post 310, and the neutral wire shaft seat 370 is rotatably installed on the neutral wire copper post 330. A live wire terminal block 610 is installed at the bottom of the live wire shaft seat 360, and a neutral wire terminal block 620 is installed at the bottom of the neutral wire shaft seat 370. The ground wire post 320 is installed at the center of the base 210. A central bushing 340 is coaxially installed on the ground wire post 320. A connecting post 350 is connected to the bottom of the central bushing 340. The connecting post 350 slides in contact with the ground wire 13. A shift fork 231 for controlling the connection status of the live wire terminal block 610, the neutral wire terminal block 620, the live wire copper strip 11, and the neutral wire copper strip 12 is installed inside the movable ring 230.
[0034] Under normal conditions, the live wire terminal block 610 and the neutral wire terminal block 620 move closer to the plug block 240 and are in clearance fit with the live wire copper strip 11 and the neutral wire copper strip 12. After rotating the movable ring 230, the shift fork 231 drives the live wire shaft seat 360 and the neutral wire shaft seat 370 to move, and the live wire terminal block 610 and the neutral wire terminal block 620 rotate outward and come into contact with the live wire copper strip 11 and the neutral wire copper strip 12 respectively to conduct electricity.
[0035] A live wire switch 380 and a neutral wire switch 390 are rotatably mounted in the base 210. A live wire locking spring 382 is engaged between the live wire switch 380 and the live wire shaft seat 360. A live wire pin 381 is eccentrically mounted on the live wire switch 380. A neutral wire locking spring 392 is engaged between the neutral wire switch 390 and the neutral wire shaft seat 370. A neutral wire pin 391 is eccentrically mounted on the neutral wire switch 390. Two forks 231 are provided, arranged in a circumferential array, and the two forks 231 are engaged with the live wire pin 381 and the neutral wire pin 391 respectively.
[0036] A control lever 410 is inserted into the base 210, and the control lever 410 cooperates with the central bushing 340. A ground wire protrusion 341 is integrally provided on the side of the central bushing 340, and a torsion spring 342 is installed on the central bushing 340. The other end of the torsion spring 342 is engaged with the base 210. The end of the control lever 410 is in contact with the ground wire protrusion 341. The connecting post 350 is eccentrically installed with the central bushing 340. A limiting slot 160 for guiding the movement of the adapter 20 is provided on the ground wire 13. The connecting post 350 is slidably engaged with the limiting slot 160.
[0037] See Figure 11 The limiting slot 160 includes a flat movable slot 161, and a plurality of limiting arc grooves 162 are equidistantly arranged on the movable slot 161, and the limiting arc grooves 162 are connected to the movable slot 161.
[0038] See Figure 8 and Figure 9 In normal conditions, the torsion spring 342 is released, and the end of the control lever 410 naturally fits against the grounding protrusion 341. At this time, the connecting post 350 is located in the limiting arc groove 162, and the adapter 20 cannot move. When the control lever 410 is pressed, the central bushing 340 rotates, the connecting column 350 moves to the moving slot 161, and the control lever 410 is pressed while the adapter 20 adjusts its position.
[0039] Since the live wire copper strip 11 is on top in this embodiment, the scraper 710 cleans the surface of the neutral wire copper strip 12 below.
[0040] In this embodiment: through the cooperation of the movable ring 230, the fork 231 and the live wire pin 381 and the neutral wire pin 391, under normal conditions, the live wire locking spring 382 and the neutral wire locking spring 392 are in an outward bent state. At this time, the live wire connecting plate 610 and the neutral wire connecting plate 620 used for connecting electricity move closer to the plug block 240, so as not to contact the live wire copper strip 11 and the neutral wire copper strip 12. At this time, although the adapter 20 is assembled with the tracker 10, it is not connected to electricity.
[0041] When the movable ring 230 rotates, the shift fork 231 drives the live wire shift post 381 and the neutral wire shift post 391 to rotate, causing the live wire locking spring 382 and the neutral wire locking spring 392 to bend inward under force, causing the live wire shaft seat 360 and the neutral wire shaft seat 370 to rotate simultaneously, thereby unfolding the live wire connection plate 610 and the neutral wire connection plate 620, so that the live wire connection plate 610 and the neutral wire connection plate 620 contact the live wire copper strip 11 and the neutral wire copper strip 12 respectively, realizing the connection between the adapter 20 and the tracker 10.
[0042] Furthermore, through the cooperation of the control lever 410 and the grounding protrusion 341, the torsion spring 342 is relaxed under normal conditions, and the connecting post 350 is located in the limiting arc groove 162, preventing the adapter 20 from moving and thus fixing the position of the adapter 20 for easy use. When the position of the adapter 20 needs to be adjusted, the control lever 410 is pressed, and the control lever 410 abuts against the grounding protrusion 341, causing the central bushing 340 to rotate, thereby changing the position of the connecting post 350. The connecting post 350 rotates into the moving slot 161, allowing the adapter 20 to slide. After moving to the target location, the control lever 410 is released, allowing the connecting post 350 to slide back into the nearest limiting arc groove 162, thus locking the position. Unlike existing technologies, in this invention, scrapers 710 are installed on both sides of the plug 240. When the adapter 20 slides, the neutral wire copper strip 12 can be cleaned in advance, thereby reducing the possibility of poor contact and improving the stability and reliability of the track socket.
[0043] Example 2 aims to improve the cleaning effect of scraper 710 and address the need for further enhancement. This example is an improvement upon Example 1. For details, please refer to Example 2. Figures 1-11 A travel wheel 730 is rotatably mounted on the bottom of the insert block 240. A toothed shovel plate 720 is movably mounted inside the insert block 240. A transmission gear 731, which is rotatably connected to the travel wheel 730, is rotatably mounted inside the insert block 240. The toothed shovel plate 720 is an arc-shaped plate with a rack on one side adjacent to the transmission gear 731. A reset spring 790 for resetting is mounted at the end of the toothed shovel plate 720. The other end of the reset spring 790 is connected to the inner wall of the insert block 240. A moving wheel 780 is mounted on the side of the toothed shovel plate 720. The moving wheel 780 slides in cooperation with the insert block 240.
[0044] See Figure 5 The transmission gear 731 and the travel wheel 730 are driven by a belt. The rack of the toothed shovel 720 is missing a tooth on the side near the return spring 790. After the adapter 20 moves a certain distance, the part of the toothed shovel 720 without a rack engages with the transmission gear 731. At this time, the transmission gear 731 rotates freely, while the toothed shovel 720 remains in the extended state.
[0045] Normally, the toothed shovel 720 is hidden in the insert block 240, and there is a gap between the toothed shovel 720 and the transmission gear 731.
[0046] A transmission plate 740 is installed on the side of the control lever 410. A passive pressure plate 770 is installed on the side of the toothed shovel plate 720 away from the transmission gear 731. A buffer spring 760 is installed on the side of the passive pressure plate 770. An active pressure plate 750 is connected between the buffer spring 760 and the transmission plate 740.
[0047] When the control lever 410 is pressed, the active pressure plate 750 presses the buffer spring 760, and the toothed scraper 720 moves down and meshes with the transmission gear 731. At this time, the adapter 20 moves, the travel wheel 730 rotates and drives the toothed scraper 720 to extend, thereby cleaning the scraper 710.
[0048] In this embodiment: With the setting of the travel wheel 730, the transmission gear 731 will rotate when the adapter 20 moves. With the setting of the toothed scraper 720, when the adapter 20 moves, the toothed scraper 720 can be engaged with the transmission gear 731 by pressing the control lever 410, thereby controlling whether the toothed scraper 720 extends. That is, when the adapter 20 can be moved by pressing the control lever 410, the toothed scraper 720 is engaged with the transmission gear 731 by the transmission of the active pressure plate 750, the buffer spring 760 and the passive pressure plate 770, thereby extending outward and scraping the dust on the surface of the scraper 710, keeping the surface of the scraper 710 clean, thereby improving the cleaning effect of the scraper 710.
[0049] Example 3 aims to address the issue that dust remains in the adapter groove 110 after the toothed scraper 720 removes the dust. This example is an improvement upon Example 2. For details, please refer to [link / reference]. Figures 1-11 The tracker 10 has several sponge airbags 120 continuously arranged inside. The tracker 10 has adhesive strips 130 installed on its side wall. The adhesive strips 130 are attached to the side of the sponge airbags 120. The sponge airbags 120 are connected to suction pipes 140. The suction pipes 140 are pipes with one-way valves at the pipe openings. The upper angle of the adapter slide 110 has several air blowing ports 150. The air blowing ports 150 correspond to and are connected to the sponge airbags 120. The base 210 is equipped with a compression block 510. After the adapter 20 is assembled with the tracker 10, the compression block 510 and the adhesive strips 130 are press-fitted together.
[0050] In the specific configuration, the extrusion block 510 is a movable block with a sharp outer end face. A pressure roller 520 is rotatably mounted on the sharp corner of the extrusion block 510. The pressure roller 520 rolls and adheres to the rubber strip 130 to reduce frictional resistance. The sponge airbag 120 is an independent airbag with porous sponge inside. Several sponge airbags 120 are arranged continuously. When squeezed, the gas is discharged from the air outlet 150. After being offset from the extrusion block 510, the gas returns to its original position through the air suction pipe 140.
[0051] A connecting rod 530 is installed on the side of the control lever 410. The pressing block 510 is slidably installed on the base 210. An inclined block 540 is installed on the side of the pressing block 510. The connecting rod 530 and the inclined block 540 are slidably attached. A reset spring 550 for resetting is installed between the pressing block 510 and the base 210.
[0052] When the control lever 410 is pressed, the compression block 510 moves outward, increasing the compression of the sponge airbag 120 in the area it passes through.
[0053] In this embodiment: by setting a sponge airbag 120 and an air outlet 150 in the tracker 10, and setting a squeezing block 510 on the side of the base 210, the adapter 20 squeezes the nearby sponge airbag 120 when it moves, thereby squeezing the gas in the sponge airbag 120 out of the air outlet 150, achieving the blowing effect of the air outlet 150, thereby blowing out the dust in the adapter groove 110, especially the dirt scooped up by the scraper 710 and the toothed shovel 720, further improving the cleaning effect of this device.
[0054] Furthermore, the linkage 530 and the inclined block 540, when the control lever 410 is pressed, cause the squeezing block 510 to move outward, thereby increasing the squeezing force on the sponge airbag 120. This results in more gas being squeezed out of the sponge airbag 120, which in turn increases the air volume of the air outlet 150, further improving the cleaning effect of the device and enhancing the stability and reliability of the track socket.
[0055] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.
[0056] The above description is only a preferred embodiment of the present invention. It should be noted that for those skilled in the art, several improvements and modifications can be made without departing from the technical principles of the present invention, and these improvements and modifications should also be considered within the scope of protection of the present invention.
Claims
1. A track socket with a clean structure for electromechanical equipment, comprising a tracker (10) and an adapter (20) slidably engaged with the tracker (10), wherein the tracker (10) has an adapter groove (110) on one side adjacent to the adapter (20), a live wire copper strip (11), a neutral wire copper strip (12), and a ground wire (13) are installed inside the tracker (10), and a live wire copper post (310), a ground wire post (320), and a neutral wire copper post (330) are installed inside the adapter (20), characterized in that: The adapter (20) includes a base (210), on one side of which is a plug (240) that engages with the adapter groove (110). Scrapers (710) for cleaning dust from the adapter groove (110) are installed on both sides of the plug (240). A junction box (250) is installed inside the other side of the base (210). A panel (220) is snapped onto the side of the base (210). A movable ring (230) is slidably installed on the outer side of the base (210). A live wire shaft seat (360) and a neutral wire shaft seat (370) are rotatably mounted inside the base (210). The live wire shaft seat (360) is rotatably mounted on the live wire copper post (310), and the neutral wire shaft seat (370) is rotatably mounted on the neutral wire copper post (330). 360) A live wire connection plate (610) is installed at the bottom, and a neutral wire connection plate (620) is installed at the bottom of the neutral wire shaft seat (370). The ground wire post (320) is installed at the center of the base (210). A central bushing (340) is coaxially installed on the ground wire post (320). A control rod (410) is inserted into the base (210). The control rod (410) cooperates with the central bushing (340). A connecting post (350) is connected to the bottom of the central bushing (340). The connecting post (350) slides in contact with the ground wire (13). A fork (231) for controlling the connection status of the live wire connection plate (610), the neutral wire connection plate (620), the live wire copper strip (11), and the neutral wire copper strip (12) is installed inside the movable ring (230). Under normal conditions, the live wire terminal block (610) and the neutral wire terminal block (620) move closer to the plug block (240) and are in clearance fit with the live wire copper strip (11) and the neutral wire copper strip (12); After the movable ring (230) is rotated, the shift fork (231) drives the live wire shaft seat (360) and the neutral wire shaft seat (370) to move. The live wire terminal plate (610) and the neutral wire terminal plate (620) rotate outward and come into contact with the live wire copper strip (11) and the neutral wire copper strip (12) respectively to conduct electricity.
2. A track socket with a clean structure for electromechanical equipment according to claim 1, characterized in that: The base (210) is rotatably mounted with a live wire toggle (380) and a neutral wire toggle (390). A live wire positioning spring (382) is engaged between the live wire toggle (380) and the live wire shaft seat (360). A live wire pin (381) is eccentrically mounted on the live wire toggle (380). A neutral wire positioning spring (392) is engaged between the neutral wire toggle (390) and the neutral wire shaft seat (370). A neutral wire pin (391) is eccentrically mounted on the neutral wire toggle (390). There are two toggle forks (231), which are arranged in a circumferential array. The two toggle forks (231) are engaged with the live wire pin (381) and the neutral wire pin (391) respectively.
3. A track socket with a clean structure for electromechanical equipment according to claim 1, characterized in that: The central bushing (340) has an integrally formed ground wire protrusion (341) on its side. A torsion spring (342) is installed on the central bushing (340). The other end of the torsion spring (342) is engaged with the base (210). The end of the control rod (410) is in contact with the ground wire protrusion (341). The connecting post (350) is eccentrically installed with the central bushing (340). A limiting slot (160) for guiding the movement of the adapter (20) is provided on the ground wire (13). The connecting post (350) is slidably engaged with the limiting slot (160).
4. A track socket with a clean structure for electromechanical equipment according to claim 3, characterized in that: The limiting slot (160) includes a flat movable slot (161), and a plurality of limiting arc grooves (162) are equidistantly arranged on the movable slot (161), and the limiting arc grooves (162) are connected to the movable slot (161). In normal conditions, the torsion spring (342) is released, and the end of the control lever (410) naturally fits against the grounding protrusion (341). At this time, the connecting post (350) is located in the limiting arc groove (162), and the adapter (20) cannot move. When the control lever (410) is pressed, the central bushing (340) rotates, the connecting post (350) moves to the moving slot (161), and the control lever (410) is pressed while the adapter (20) adjusts its position.
5. A track socket with a clean structure for electromechanical equipment according to claim 1, characterized in that: The bottom of the insert (240) is rotatably mounted with a travel wheel (730), and a toothed shovel plate (720) is movably mounted inside the insert (240). A transmission gear (731) that is rotatably connected to the travel wheel (730) is also rotatably mounted inside the insert (240). The toothed shovel plate (720) is configured as an arc-shaped plate with a rack on one side adjacent to the transmission gear (731). A reset spring (790) for resetting is mounted at the end of the toothed shovel plate (720). The other end of the reset spring (790) is connected to the inner wall of the insert (240). A moving wheel (780) is mounted on the side of the toothed shovel plate (720). The moving wheel (780) slides in cooperation with the insert (240). Normally, the toothed shovel (720) is hidden in the insert (240), and there is a gap between the toothed shovel (720) and the transmission gear (731).
6. A track socket with a clean structure for electromechanical equipment according to claim 5, characterized in that: A transmission plate (740) is installed on the side of the control lever (410), a passive pressure plate (770) is installed on the side of the toothed shovel plate (720) away from the transmission gear (731), a buffer spring (760) is installed on the side of the passive pressure plate (770), and an active pressure plate (750) is connected between the buffer spring (760) and the transmission plate (740). When the control lever (410) is pressed, the active pressure plate (750) presses the buffer spring (760), the toothed shovel (720) moves down and meshes with the transmission gear (731), at which time the adapter (20) moves, the travel wheel (730) rotates and drives the toothed shovel (720) to extend, thereby cleaning the scraper (710).
7. A track socket with a clean structure for electromechanical equipment according to claim 1, characterized in that: The tracker (10) has a number of sponge airbags (120) continuously arranged inside. The tracker (10) has a rubber strip (130) installed on its side wall. The rubber strip (130) is attached to the side of the sponge airbag (120). The sponge airbag (120) is connected to a suction pipe (140). The suction pipe (140) is configured as a pipe with a one-way valve at the pipe opening. The upper oblique angle of the adapter slide (110) is provided with a number of air blowing ports (150). The number of air blowing ports (150) corresponds to and is connected to the number of sponge airbags (120). The base (210) is equipped with a compression block (510). After the adapter (20) is assembled with the tracker (10), the compression block (510) and the rubber strip (130) are press-fitted together.
8. A track socket with a clean structure for electromechanical equipment according to claim 7, characterized in that: The extrusion block (510) is configured as a movable block with a sharp corner on the outer end face. A pressure roller (520) is rotatably installed at the sharp corner of the extrusion block (510), and the pressure roller (520) rolls and adheres to the adhesive strip (130).
9. A track socket with a clean structure for electromechanical equipment according to claim 7, characterized in that: A connecting rod (530) is installed on the side of the control lever (410), the pressing block (510) is slidably installed with the base (210), an inclined block (540) is installed on the side of the pressing block (510), the connecting rod (530) is slidably attached to the inclined block (540), and a reset spring (550) for resetting is installed between the pressing block (510) and the base (210). When the control lever (410) is pressed, the compression block (510) moves outward, increasing the compression of the sponge airbag (120) in the area it passes through.
10. A track socket with a clean structure for electromechanical equipment according to claim 1, characterized in that: The panel (220) has a socket (221) for connecting to a plug, and the socket (221) is connected to the power supply board (250).