Socket switch structure realizing ultra-thin pure flat inline control

Abstract

The utility model relates to a socket switch structure of realization ultra -thin pure flat in -line control, including integrated ultra -thin pure flat panel button subassembly and two three plug switch function subassembly, the upper end and the lower end of integrated ultra -thin pure flat panel button subassembly all are provided with dog, integrated ultra -thin pure flat panel button subassembly is fixed on two three plug switch function subassembly through dog and card table joint. The socket switch structure of realization ultra -thin pure flat in -line control that adopted the utility model, realize the pure flat of product, light and thin through the structure optimization, promote the appearance aesthetic value, weaken the visual existence sense of socket switch product on the wall, fit the pursuit of neat wall to modern simple decoration style. Through integrated copper piece design, realize the fire line in -line sharing of switch and socket, simplify the wiring process, eliminate the risk of multiple stranded wire loosening, improve assembly efficiency and electrical safety. To realize appearance ultra -thin, operation pure flat and function in -line three big core demand.

Description

Technical Field

[0001] This utility model relates to the field of hardware and electrical technology, and in particular to the field of switch and socket integration technology, specifically referring to a socket switch structure that realizes ultra-thin, flat, internal control. Background Technology

[0002] Existing five-hole socket and switch combination products generally suffer from two major problems: firstly, the product's overall thickness is excessive; secondly, the L-pole contact piece of the switch and the L-pole socket are mostly separate designs. During installation, electricians need to use jumpers to externally connect the switch's L-pole to the socket's L-pole, which is not only cumbersome and inefficient but also prone to loose wiring and exposed wires, increasing the risk of electric shock and potential malfunctions. Furthermore, the dispersed conductive components occupy more installation space, making them unsuitable for compact wiring environments.

[0003] Therefore, there is a need to optimize and improve the structure of socket-plus-switch products, such as five-hole sockets and switches. Summary of the Invention

[0004] The purpose of this invention is to overcome the shortcomings of the prior art and provide a socket switch structure that is simple in structure, stable in performance, and widely applicable to achieve ultra-thin, flat, internal control.

[0005] To achieve the above objectives, the socket switch structure of this utility model for realizing ultra-thin, flat, inline control is as follows: The main feature of this socket switch structure for achieving ultra-thin, flat, inline control is that the structure includes an integrated ultra-thin, flat panel button assembly and a two- or three-prong plug plus switch function assembly. The upper and lower ends of the integrated ultra-thin, flat panel button assembly are provided with claws, and the integrated ultra-thin, flat panel button assembly is fixed to the two- or three-prong plug plus switch function assembly by the claws and the locking platform. The two- or three-prong plug plus switch functional component includes a two- or three-prong plug plus switch panel, a switch button, a partition, a switch lever, a lower housing, and locking claws. The switch button is snapped and fixed to the two- or three-prong plug plus switch panel. The switch lever is mounted on the partition through a rotating shaft hole. The partition with the switch lever is snapped and fixed to the lower housing through locking claws and buckles on both sides.

[0006] Preferably, the two- or three-prong switch functional component further includes a lever spring, a left-side copper sleeve, an integrated copper sleeve, a grounding copper sleeve, an incoming conductive element, and a movable contact. The left-side copper sleeve, the integrated copper sleeve, the grounding copper sleeve, the incoming conductive element, the movable contact, and the spring are sequentially assembled in the lower housing. The spring is placed inside the switch lever sleeve and is connected to the movable contact boss.

[0007] Preferably, the switch button includes a central rotating circular hole, a left rotating circular hole, and a right rotating circular hole, and the central rotating circular hole and the pivot of the two- or three-prong switch panel are snapped and fixed to the two- or three-prong switch panel.

[0008] Preferably, the two- or three-prong plug plus switch panel includes a first push link and a second push link. The first push link includes a first right-turning shaft, a first central-turning shaft, and a first left-turning shaft. The second push link includes a second right-turning shaft, a second central-turning shaft, and a second left-turning shaft. The first push link is fixed to the two- or three-prong plug plus switch panel by engaging the first right-turning shaft and a first rotating hole in the two- or three-prong plug plus switch panel. The first central-turning shaft is fixed to the switch button by engaging the left rotating hole in the switch button. The second push link is fixed to the two- or three-prong plug plus switch panel by engaging the second right-turning shaft and a second rotating hole in the two- or three-prong plug plus switch panel. The second right-turning shaft is fixed to the switch button by engaging the right rotating hole in the switch button.

[0009] Preferably, the back of the lower housing is provided with a live wire connection hole, a neutral wire connection hole and a ground wire connection hole, and a wire clamping cavity is provided at the corresponding position of the live wire connection hole, into which the live wire is inserted.

[0010] Preferably, the integrated ultra-thin pure flat panel button assembly includes a two- or three-prong switch panel, a flat button, and an angle magnification mechanism, wherein the top surface of the two- or three-prong switch panel is flush with the top surface of the flat button. The angle magnification mechanism includes a button rotation point, a button drive point, a first push link, a second push link, a middle fixed fulcrum of the two- or three-prong plug plus switch panel, an upper fixed fulcrum of the two- or three-prong plug plus switch panel, and a lower fixed fulcrum of the two- or three-prong plug plus switch panel. The middle of the button is connected to the shaft hole of the middle fixed fulcrum of the two- or three-prong plug plus switch panel. The button drive points on both sides of the flat button are respectively connected to the shaft holes of the first push link and the second push link. The first push link and the second push link are respectively connected to the shaft holes of the upper fixed fulcrum and the lower fixed fulcrum of the two- or three-prong plug plus switch panel. The ends of the first push link furthest from the fulcrum and the ends of the second push link furthest from the fulcrum trigger the swing of the lever in the two- or three-prong plug plus switch functional component. The distance from the button drive point of the first push link to the fixed fulcrum of the first push link is less than the distance from the end of the first push link furthest from the fulcrum to the fixed fulcrum of the first push link. The distance from the button drive point of the second push link to the fixed fulcrum of the second push link is less than the distance from the end of the second push link furthest from the fulcrum to the fixed fulcrum of the second push link.

[0011] This utility model utilizes an ultra-thin, flat, internally controlled socket and switch structure. Through structural optimization, it achieves a flat and thin design, enhancing the product's aesthetic appeal and minimizing its visual presence on the wall, aligning with the modern minimalist style's pursuit of a clean wall surface. The integrated copper component design allows for shared live wires between the switch and socket, simplifying wiring, eliminating the risk of loose multi-strand wires, and improving assembly efficiency and electrical safety. Thus, it fulfills the three core requirements of ultra-thin appearance, flat operation, and integrated functionality. Attached Figure Description

[0012] Figure 1 This is an exploded view of the two- or three-prong plug plus switch structure of the socket switch that realizes ultra-thin, flat, internal control according to this utility model.

[0013] Figure 2 This is a schematic diagram of the cross-section of the socket with switch lever driving mechanism, which realizes an ultra-thin, flat, internally controlled socket switch structure according to this utility model.

[0014] Figure 3 This is a schematic diagram of the integrated ultra-thin flat panel button device for realizing an ultra-thin, flat, internally controlled socket switch structure according to this utility model.

[0015] Figure 4 This is a schematic diagram of the two- or three-prong plug with switch function component of the socket switch structure that realizes ultra-thin, flat, internal control according to this utility model.

[0016] Figure 5 This is a schematic diagram of the arrangement of copper components for the two- or three-prong plug with switch in the socket switch structure for achieving ultra-thin, flat, internal control according to this utility model.

[0017] Figure 6 This is a bottom schematic diagram of the two- or three-prong plug with switch copper component functional assembly of the socket switch structure for achieving ultra-thin, flat, inline control according to this utility model.

[0018] Figure 7a This is a schematic diagram of the left socket copper component of the socket switch structure that realizes ultra-thin, flat, inline control according to this utility model.

[0019] Figure 7b This is a schematic diagram of the integrated copper socket component of the socket switch structure that realizes ultra-thin, flat, inline control according to this utility model.

[0020] Figure 8 This is a schematic diagram of the button structure of the socket switch structure that realizes ultra-thin, flat, inline control according to this utility model.

[0021] Figure 9 This is a schematic diagram of the push linkage of the socket switch structure for achieving ultra-thin, flat, internal control according to this utility model.

[0022] Figure 10This is a schematic diagram of a two- or three-prong socket with a switch panel for realizing an ultra-thin, flat, internally controlled socket switch structure according to this utility model.

[0023] Figure label: 1. Two or three plugs plus switch panel 3 buttons 5 partitions 6. Switch lever 7. Lower housing 11 pry marks 12 claws 13 pivots 14 Screw mounting holes 15-link clearance through hole 16 First Rotating Hole 17 Second Rotating Hole 21 First push link 22 Second push link 30. Central rotating circular hole 31 Left-hand rotating circular hole 32. Right-hand rotating circular hole 41 Two-prong protective door assembly 42 Three-prong protective door assembly 61 Upper end face of lever 62 Triangular pivots 63 Lower end face of lever 69. Toggle spring 71 Cards 72 prying protrusions 81 Left insert copper fitting 82 Integrated socket copper fitting 83 Grounding copper fitting socket 91 Inlet conductive components 92 active contact pads 211 First right-hand pivot 212 First Central Axle 213 First left-hand turning axle 221 Second right-hand pivot 222 Second Central Shaft 223 Second left-hand pivot 711 Live wire connection hole 712 Grounding terminal 713 Neutral wire connection hole 811 First N-pole socket 812 Second N-pole socket 813 N-pole longitudinal main rod 821 First L-pole socket 822 Second L-pole socket 823 L Extreme Longitudinal Main Rod 824 switch L-pole contact 825 static contact Detailed Implementation

[0024] To more clearly describe the technical content of this utility model, the following description is provided in conjunction with specific embodiments.

[0025] The present invention relates to a socket switch structure for achieving ultra-thin, flat, internal control, including an integrated ultra-thin flat panel button assembly and a two- or three-prong plug plus switch function assembly. The integrated ultra-thin flat panel button assembly is provided with claws 12 at both the upper and lower ends. The integrated ultra-thin flat panel button assembly is fixed to the two- or three-prong plug plus switch function assembly by the claws 12 and the locking platform 71. The two- or three-prong plug plus switch functional component includes a two- or three-prong plug plus switch panel 1, a switch button, a partition 5, a switch lever 6, a lower housing 7, and claws 12. The switch button is snapped and fixed to the two- or three-prong plug plus switch panel 1. The switch lever 6 is mounted on the partition 5 through a rotating shaft hole. The partition 5 with the switch lever 6 is snapped and fixed to the lower housing 7 by the claws 12 on both sides and the buckles.

[0026] As a preferred embodiment of this utility model, the two- or three-prong switch functional component further includes a lever spring 69, a left plug copper part 81, an integrated plug copper part 82, a grounding copper part plug 83, an inlet conductive part 91, and a movable contact piece 92. The left plug copper part 81, the integrated plug copper part 82, the grounding copper part plug 83, the inlet conductive part 91, the movable contact piece 92, and the spring 69 are sequentially assembled in the lower housing 7. The spring 69 is placed inside the sleeve of the switch lever 6 and is connected to the boss of the movable contact piece 92.

[0027] In a preferred embodiment of the present invention, the switch button includes a central rotating circular hole 30, a left rotating circular hole 31, and a right rotating circular hole 32. The central rotating circular hole 30 and the rotating shaft 13 of the two- or three-prong plug-in switch panel 1 are snapped and fixed onto the two- or three-prong plug-in switch panel 1.

[0028] In a preferred embodiment of this utility model, the two- or three-prong plug plus switch panel 1 includes a first push link 21 and a second push link 22. The first push link 21 includes a first right-turning shaft 211, a first central-turning shaft 212, and a first left-turning shaft 213. The second push link 22 includes a second right-turning shaft 221, a second central-turning shaft 222, and a second left-turning shaft 223. The first push link 21 is fixed to the two- or three-prong plug plus switch panel 1 by engaging the first right-turning shaft 211 with the first rotating circular hole 16 of the two- or three-prong plug plus switch panel 1. The first central-turning shaft 212 is fixed to the switch button by engaging the left rotating circular hole 31 of the switch button. The second push link 22 is fixed to the two- or three-prong plug plus switch panel 1 by engaging the second right-turning shaft 221 with the second rotating circular hole 17 of the two- or three-prong plug plus switch panel 1. The second right-turning shaft 221 is fixed to the switch button by engaging the right rotating circular hole 32 of the switch button.

[0029] In a preferred embodiment of the present invention, the back of the lower housing 7 is provided with a live wire connection hole, a neutral wire connection hole and a ground wire connection hole, and a wire clamping cavity is provided at the corresponding position of the live wire connection hole, into which the live wire is inserted.

[0030] As a preferred embodiment of the present invention, the integrated ultra-thin pure flat panel button assembly includes a two- or three-prong switch panel, a flat button, and an angle magnification mechanism. The top surface of the two- or three-prong switch panel 1 is flush with the top surface of the flat button. The angle magnification mechanism includes a button rotation point, a button drive point, a first push link 21, a second push link 22, a middle fixed support point of the two-three plug plus switch panel, an upper fixed support point of the two-three plug plus switch panel, and a lower fixed support point of the two-three plug plus switch panel. The middle of the button is connected to the shaft hole of the middle fixed support point of the two-three plug plus switch panel 1. The button drive points on both sides of the flat button are respectively connected to the shaft holes of the first push link 21 and the second push link 22. The first push link 21 and the second push link 22 are respectively connected to the upper fixed support point of the two-three plug plus switch panel and the two-three plug plus switch panel. The shaft hole connection at the fixed fulcrum on the lower side of the panel is used to trigger the swing of the lever in the two-three plug-in switch function component. The distance from the button drive point of the first push link 21 to the fixed fulcrum of the first push link 21 is less than the distance from the end of the first push link 21 away from the fixed fulcrum to the fixed fulcrum of the first push link 21. The distance from the button drive point of the second push link 22 to the fixed fulcrum of the second push link 22 is less than the distance from the end of the second push link 22 away from the fixed fulcrum to the fixed fulcrum of the second push link 22.

[0031] This utility model relates to the field of hardware and electrical technology, and in particular to the field of switch and socket integration technology. Specifically, it relates to an ultra-thin, flat, internally controlled socket switch structure, which is suitable for home decoration, commercial decoration and other power use scenarios with high requirements for space size and ease of operation.

[0032] This utility model relates to a two- or three-prong plug with a switch. It features a flat design with a thickness of less than 6mm, a simple structure, stable performance, and is convenient and practical.

[0033] Figure 1 An exploded view of a two- or three-prong plug with a switch. Figure 1 It includes a two- or three-prong switch panel 1; a first push linkage 21 and a second push linkage 22, the materials of which can be plastic parts or die-cast parts; a button 3, which is used to be rotated by the user pressing it; a partition 5, a switch lever 6, a lower housing 7, a lever spring 69, a left plug copper part 81, an integrated plug copper part 82, a grounding copper plug 83, an inlet conductive part 91, and a movable contact piece 92.

[0034] The saddle-shaped terminal, left insert copper part 81, integrated insert copper part 82, grounding copper part insert 83, incoming conductive part 91, movable contact piece 92, and spring 69 are sequentially assembled into the lower housing 7, as follows: Figure 5 As shown. The switch lever 6 is assembled onto the partition plate 5 through the rotating shaft hole; then the partition plate 5, with the switch lever 6 assembled thereon, is fixed to the lower housing 7, with the conductive components assembled thereon, by means of the two side claws 12 and the snap fasteners. The spring 69 is placed inside the sleeve of the switch lever 6 and is connected to the boss of the movable contact piece 92, thus forming a two- or three-pronged switch functional component, as shown. Figure 4 As shown.

[0035] Next, the button is secured to the two- or three-prong switch panel 1 by snapping it into the central rotating hole 30 and the rotating shaft 13. The first push rod 21 and the second push rod 22 are secured to the two- or three-prong switch panel 1 by snapping them into the first rotating hole 16 and the second rotating hole 17 through the first right rotating shaft 211 and the second right rotating shaft 221. Finally, the button is secured to the button by snapping it into the left rotating hole 31 and the right rotating hole 32 through the first central rotating shaft 212 and the second central rotating shaft 222. This completes the integrated ultra-thin, flat panel button assembly. Figure 4 As shown.

[0036] The integrated ultra-thin flat panel button assembly and the two- or three-prong switch assembly are secured by the claw 12 and the mounting plate 71. Furthermore, the first left-turning shaft 213 and the second left-turning shaft 223 in the first push linkage 21 and the second push linkage 22 are in contact with the upper end face 61 and the lower end face 63 of the switch lever 6, forming a linkage mechanism. This assembles the ultra-thin flat two- or three-prong switch product.

[0037] The two- or three-prong plug with switch product is composed of an integrated ultra-thin flat board button assembly and a two- or three-prong plug with switch functional assembly.

[0038] Figure 3 It is an integrated ultra-thin flat panel button assembly, consisting of a two- or three-prong plug plus a switch panel 1; a first push link 21, a second push link 22; and a button 3.

[0039] Figure 4 The two- and three-prong plug-in switch function component consists of a lower housing 7, a partition 5, a two-prong plug-in protection door assembly 41, a three-prong plug-in protection door assembly 42, a switch lever 6, a lever spring 69, a left plug-in copper component 81, an integrated plug-in copper component 82, a grounding copper component plug-in 83, an incoming line conductive component 91, a movable contact piece 92, and a saddle-shaped terminal.

[0040] The integrated ultra-thin flat panel button assembly is fixed to the two- or three-prong plug with switch function assembly by the clip 12 and the clip 71; the integrated ultra-thin flat panel button assembly is completely removed from the two- or three-prong plug with switch function assembly by the prying port 1 and the prying boss 72; thus facilitating electrician installation, improving installation efficiency, and also facilitating electricians to debug the product in high-requirement installation environments.

[0041] Figure 4 The diagram shows a switch function component for two- and three-prong plugs, including a lower housing 7, a partition 5, a two-prong plug protection door assembly 41, a three-prong plug protection door assembly 42, a switch lever 6, a lever spring 69, a left plug copper part 81, an integrated plug copper part 82, a grounding copper part plug 83, an inlet conductive part 91, a movable contact piece 92, and a saddle-shaped terminal. Figure 5 Diagram showing the internal copper component layout of the two- or three-prong plug-in switch function assembly.

[0042] Figure 7a The left-side copper fitting 81 has a structure that includes a first N-pole fitting 811 and a second N-pole fitting 812, which are connected in the middle by an N-pole longitudinal main rod 813.

[0043] Figure 7b The integrated copper fitting 82 includes a first L-pole fitting 821 and a second L-pole fitting 822, which are connected by an L-pole longitudinal main rod 823. The middle part of the L-pole longitudinal main rod 823 extends laterally to form a switch L-pole contact piece 824 that cooperates with the moving contact of the rocker switch.

[0044] The first N-pole socket 811 and the first L-pole socket 821 constitute a two-pole socket.

[0045] The second N-pole socket 812, the second L-pole socket 822, and the grounding copper socket constitute a three-pole socket.

[0046] The L-pole contact 824, the stationary contact, and the moving contact 92 constitute the switch's live wire channel.

[0047] Figure 7b It is an integrated copper component, allowing the switch to share the same live wire channel with two sets of sockets (two-prong sockets and three-prong sockets).

[0048] Integrated copper component 82: Made of phosphor bronze through a single stamping process, the overall structure is T-shaped. The longitudinal main rod 823 of the L pole serves as the main current channel, with its two ends extending to form a first L pole socket 821 adapted to two-pole sockets and a second L pole socket 822 adapted to three-pole sockets, respectively. A transverse extension in the middle forms the switch L pole contact piece 824 that mates with the rocker switch's moving contact. This structure allows the switch and two sets of sockets to share the same live wire channel, shortening the current path, reducing resistance, lowering heat generation, and improving electrical safety and efficiency. Simultaneously, this structure integrates the socket and switch internally, eliminating the need for additional jumper connections, avoiding safety issues caused by incorrect jumper connections, and preventing loosening of multi-strand hard wire clamps, resulting in more stable conductivity. The integrated socket and switch wiring structure reduces the number of parts, lowers manufacturing costs, simplifies the product structure, and facilitates production and installation. This design allows the switch and two sets of sockets to share the same live wire channel, eliminating the need for additional jumper connections and resulting in more stable conductivity.

[0049] Integrated wiring structure: The back of the lower housing 7 has only one live wire connection hole, one neutral wire connection hole, and one ground wire connection hole. A clamping cavity is located at the corresponding position of the live wire connection hole. To wire, simply insert the live wire into the clamping cavity and tighten the screw. No additional jumper connections are required, avoiding the problem of loosening of multi-strand rigid wire clamps.

[0050] In the two- or three-element socket plus switch assembly, the first N-pole sleeve 811, the second N-pole sleeve 812 and the ground sleeve of the socket part are fixed in the lower housing 7, and form corresponding holes with the first L-pole sleeve 821 and the second L-pole sleeve 822 of the internally connected integrated copper component.

[0051] In the two- or three-socket combination with switch assembly, the switch part uses a J-shaped blade structure. Its stationary contact 825 is electrically connected to the L-pole contact piece of the switch in the integrated copper component of the internal common fire circuit, and its moving contact is connected to the J-shaped blade. The contact and separation of the moving and stationary contacts are achieved by the lever on the partition 5, thereby realizing the circuit switching.

[0052] Figure 3 The integrated ultra-thin flat panel button includes an ultra-thin two- or three-prong switch panel 1, a flat button, and an angle magnification mechanism. The top surface of the two- or three-prong switch panel 1 is flush with the top surface of the flat button, and the overall thickness of the component is controlled within 6mm.

[0053] Angle magnification mechanism: Composed of a button rotation point, a button drive point, a first push link 21, a second push link 22, a middle fixed fulcrum of the two-three plug plus switch panel, an upper fixed fulcrum of the two-three plug plus switch panel, and a lower fixed fulcrum of the two-three plug plus switch panel; The middle of the button is connected to the shaft hole of the middle fixed fulcrum of the two-three plug plus switch panel 1; The button drive points on both sides of the flat button are respectively connected to the shaft holes of the first push link 21 and the second push link 22; The first push link 21 and the second push link 22 are respectively connected to the shaft holes of the upper fixed fulcrum and the lower fixed fulcrum of the two-three plug plus switch panel; The ends of the first push link 21 and the second push link 22 away from the fulcrum can be used to trigger the swing of the lever in the two-three plug plus switch functional component. In this case, the distance from the button driving point of the first push link 21 and the second push link 22 to the fixed fulcrum of the link is less than the distance from the end of the first push link 21 and the second push link 22 away from the fulcrum to the fixed fulcrum of the link. By optimizing the length ratio of the two and the distance between the fulcrums, the small angle displacement generated by pressing the planar button is transmitted through the mechanism and transformed into a large angle swing of the first push link 21 and the second push link 22, thereby realizing the effective triggering of the switch.

[0054] Finally, the integrated ultra-thin flat panel button assembly has claws 12 at both the top and bottom, which can be snapped onto the two- or three-prong plug with switch function; the integrated panel button has a pry opening 11 at the bottom, which can be disassembled as a whole with tools, making it convenient for electricians to debug the product in high-requirement installation environments.

[0055] In a specific embodiment of this utility model, the integrated ultra-thin flat panel button assembly integrates a switch driving device onto the socket panel. The switch driving device is equipped with an angle amplification mechanism, which converts the minute button travel into a large-stroke displacement with a magnified angle via a first push rod 21 and a second push rod 22, thus effectively triggering the switch. The compact rod design eliminates the need for extra space, enabling a small-angle button pressing structure and effectively controlling the overall thickness of the device to meet the requirements of an ultra-thin and flat appearance. Furthermore, the integrated ultra-thin flat panel button assembly has claws 12 at both the top and bottom, allowing it to be securely mounted onto a two- or three-prong plug with a switch function. A disassembly port is located at the bottom of the integrated panel button, allowing for complete disassembly with tools, facilitating product debugging by electricians in demanding installation environments.

[0056] This utility model's integrated ultra-thin, flat-panel button assembly achieves a completely flat appearance and ultra-thin thickness. The buttons remain completely flat with the outer panel substrate, with no protruding structures. Furthermore, the angle amplification mechanism employs a compact push-link design, eliminating the need for additional redundant space and effectively controlling the overall thickness of the device to meet the requirements of an ultra-thin, flat appearance. It improves operational reliability by converting the minute button travel into sufficient trigger displacement through the angle amplification mechanism, solving the problem of button drive failure in ultra-thin components while retaining clear operational force feedback. It is easy to assemble and disassemble, facilitating installation and debugging by electricians.

[0057] This utility model's integrated copper component allows the switch and two sets of sockets to share the same live wire channel, shortening the current path, reducing resistance, lowering heat generation, and improving electrical safety and efficiency. This copper component enables internal connection between the socket and switch, eliminating the need for additional jumper wires, avoiding safety issues caused by incorrect jumper wires, and preventing loosening of multi-strand rigid wire clamps, thus improving product stability and reliability. Integrating the socket and switch terminals reduces the number of parts, lowers manufacturing costs, simplifies the product structure, and facilitates production and installation.

[0058] For the specific implementation scheme of this embodiment, please refer to the relevant descriptions in the above embodiments, which will not be repeated here.

[0059] It is understood that the same or similar parts in the above embodiments can be referred to each other, and the contents not described in detail in some embodiments can be referred to the same or similar contents in other embodiments.

[0060] It should be noted that in the description of this utility model, the terms "first," "second," etc., are used for descriptive purposes only and should not be construed as indicating or implying relative importance. Furthermore, in the description of this utility model, unless otherwise stated, "a plurality of" means at least two.

[0061] In the description of this specification, the references to terms such as "one embodiment," "some embodiments," "example," "specific example," or "some examples," etc., indicate that a specific feature, structure, material, or characteristic described in connection with that embodiment or example is included in at least one embodiment or example of the present invention. In this specification, the illustrative expressions of the above terms do not necessarily refer to the same embodiment or example. Furthermore, the specific features, structures, materials, or characteristics described may be combined in any suitable manner in one or more embodiments or examples.

[0062] This invention utilizes a socket and switch structure that achieves ultra-thin, flat, and interconnected control. Through structural optimization, the product achieves a flat and thin profile, enhancing its aesthetic appeal and minimizing its visual presence on the wall, aligning with the modern minimalist style's pursuit of clean walls. The integrated copper component design allows for shared live wires between the switch and socket, simplifying wiring, eliminating the risk of loose multi-strand wires, and improving assembly efficiency and electrical safety. Thus, it fulfills the three core requirements of ultra-thin appearance, flat operation, and interconnected functionality.

[0063] In this specification, the present invention has been described with reference to specific embodiments thereof. However, it will be apparent that various modifications and variations can be made without departing from the spirit and scope of the present invention. Therefore, the specification and drawings should be considered illustrative rather than restrictive.

Claims

1. A socket switch structure for achieving ultra-thin, flat, inline control, characterized in that, The structure includes an integrated ultra-thin flat panel button assembly and a two- or three-prong plug with switch function assembly. The upper and lower ends of the integrated ultra-thin flat panel button assembly are provided with claws. The integrated ultra-thin flat panel button assembly is fixed to the two- or three-prong plug with switch function assembly by the claws and the locking platform. The two- or three-prong plug plus switch functional component includes a two- or three-prong plug plus switch panel, a switch button, a partition, a switch lever, a lower housing, and locking claws. The switch button is snapped and fixed to the two- or three-prong plug plus switch panel. The switch lever is mounted on the partition through a rotating shaft hole. The partition with the switch lever is snapped and fixed to the lower housing through locking claws and buckles on both sides.

2. The socket switch structure for achieving ultra-thin, flat, internal control according to claim 1, characterized in that, The two- or three-prong switch functional component further includes a lever spring, a left-side copper sleeve, an integrated copper sleeve, a grounding copper sleeve, an incoming conductive element, and a movable contact. The left-side copper sleeve, the integrated copper sleeve, the grounding copper sleeve, the incoming conductive element, the movable contact, and the spring are sequentially assembled in the lower housing. The spring is placed inside the switch lever sleeve and is connected to the movable contact boss.

3. The socket switch structure for achieving ultra-thin, flat, internal control according to claim 1, characterized in that, The switch button includes a central rotating circular hole, a left rotating circular hole, and a right rotating circular hole. The central rotating circular hole and the rotating shaft of the two- or three-prong switch panel are snapped and fixed onto the two- or three-prong switch panel.

4. The socket switch structure for achieving ultra-thin, flat, internal control according to claim 1, characterized in that, The two- or three-prong plug plus switch panel includes a first push link and a second push link. The first push link includes a first right-turning shaft, a first central-turning shaft, and a first left-turning shaft. The second push link includes a second right-turning shaft, a second central-turning shaft, and a second left-turning shaft. The first push link is fixed to the two- or three-prong plug plus switch panel by engaging the first right-turning shaft and a first rotating hole in the panel. The first central-turning shaft is fixed to the switch button by engaging the left rotating hole in the button. The second push link is fixed to the two- or three-prong plug plus switch panel by engaging the second right-turning shaft and a second rotating hole in the panel. The second right-turning shaft is fixed to the switch button by engaging the right rotating hole in the button.

5. The socket switch structure for achieving ultra-thin, flat, internal control according to claim 1, characterized in that, The back of the lower housing is provided with a live wire connection hole, a neutral wire connection hole and a ground wire connection hole. A wire clamping cavity is provided at the corresponding position of the live wire connection hole, and the live wire is inserted into the wire clamping cavity.

6. The socket switch structure for achieving ultra-thin, flat, inline control according to claim 1, characterized in that, The integrated ultra-thin flat panel button assembly includes a two- or three-prong switch panel, a flat button, and an angle magnification mechanism. The top surface of the two- or three-prong switch panel is flush with the top surface of the flat button. The angle magnification mechanism includes a button rotation point, a button drive point, a first push link, a second push link, a middle fixed fulcrum of the two- or three-prong plug plus switch panel, an upper fixed fulcrum of the two- or three-prong plug plus switch panel, and a lower fixed fulcrum of the two- or three-prong plug plus switch panel. The middle of the button is connected to the shaft hole of the middle fixed fulcrum of the two- or three-prong plug plus switch panel. The button drive points on both sides of the flat button are respectively connected to the shaft holes of the first push link and the second push link. The first push link and the second push link are respectively connected to the shaft holes of the upper fixed fulcrum and the lower fixed fulcrum of the two- or three-prong plug plus switch panel. The ends of the first push link furthest from the fulcrum and the ends of the second push link furthest from the fulcrum trigger the swing of the lever in the two- or three-prong plug plus switch functional component. The distance from the button drive point of the first push link to the fixed fulcrum of the first push link is less than the distance from the end of the first push link furthest from the fulcrum to the fixed fulcrum of the first push link. The distance from the button drive point of the second push link to the fixed fulcrum of the second push link is less than the distance from the end of the second push link furthest from the fulcrum to the fixed fulcrum of the second push link.

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