Double-control switch socket

Abstract

The utility model relates to the technical field of electric appliance sockets, and provides a double-control switch socket, which is characterized in that a socket body is provided with a power connection part and a power receiving part which are separated from each other, and a rotating switch module is utilized to drive a conduction element to rotate, so as to complete loop conduction of the power receiving part, the conduction element, the power connection part and an external power supply; on-off control and socket functions are organically integrated in the same module space, compared with a traditional switch socket with separated on-off control and socket functions, the switch socket is lower in cost, small and compact in shape, wider in application scene and higher in product extension expansibility, and the use experience of a user is further optimized. Meanwhile, the switch module is rotated to control the connection and disconnection of circuits between the power connection pieces and the power receiving pieces of the L pole and the N pole at the same time, the bilateral control function of the switch socket is achieved, the zero line and the live line are connected or disconnected at the same time, and the safety is higher.

Description

Technical Field

[0001] The utility model relates to the technical field of electrical sockets, in particular to a double-control switch socket. Background Art

[0002] Socket, also known as power socket, switch socket. Socket refers to a seat that can be inserted with one or more circuit wiring. Various wiring can be inserted through it, which is convenient for connecting with other circuits. Through the connection and disconnection between the line and the copper parts, the connection and disconnection of this part of the circuit can be achieved.

[0003] A switch socket is a socket that can conveniently control the connection and disconnection of a power circuit. At present, the switch control of the socket module is basically separated, that is, the switch and the socket are separated, and the switch controls the socket through internal wiring. The switch structure includes a button and a socket body, and the button is exposed on the outside of the switch structure for user operation and control. However, this type of switch socket has the following defects:

[0004] (1) The switch needs to be installed next to the socket, which makes the socket larger and increases the manufacturing cost;

[0005] (2) Traditional switch sockets are separated single live wire controlled. The switch in the single-break switch socket is usually only connected to the live wire input from the power supply, controlling only one line. The line is spot welded, which poses a safety hazard of loose welding and poor safety. Utility Model Content

[0006] The utility model provides a double-control switch socket, which solves the technical problems of the traditional switch socket in which the switch and the socket are separated, the circuit is connected by spot welding, and the cost is high, the volume is large, and the safety is poor.

[0007] In order to solve the above technical problems, the utility model provides a double-control switch socket, comprising:

[0008] Socket body;

[0009] A rotary switch module rotatably mounted on the upper portion of the socket body;

[0010] A socket assembly fixedly mounted in the socket body, the socket assembly comprising a power receiving part and a power receiving part; the power receiving part is fixedly mounted in the socket body, and the lower part is connected to an external power source; the power receiving part is fixedly mounted on a side away from the power receiving part;

[0011] A conducting element, wherein a connecting end of the conducting element is movably abutted against one end of the power receiving element / the power receiving element, and a conducting end is embedded and installed inside the rotary switch module;

[0012] The rotary switch module is rotated clockwise / counterclockwise to drive the conductive element to swing with the connection end as the center, so that the conductive end of the conductive element is away from or close to the power receiving part / the power receiving part; when the conductive end of the conductive element is in close contact with the power receiving part / the power receiving part, the power receiving part is connected to the external power supply through the conductive element and the power connecting part in turn; when the conductive end of the conductive element is away from the power receiving part / the power receiving part, the power receiving part is not connected to the power supply.

[0013] This basic solution sets separate power receiving parts and power receiving parts on the socket body, and uses the rotating switch module to drive the conducting element to rotate, so as to complete the circuit conduction of the power receiving part, conducting element, power receiving part, and external power supply; the switch control and socket functions are organically integrated in the same module space. Compared with the traditional switch control and socket functions separated, it has lower cost, small and compact shape, wider application scenarios, stronger product extension and expansion, and further optimizes the user experience. At the same time, by rotating the switch module to simultaneously control the conduction and disconnection of the circuit between the L-pole and N-pole power receiving parts and the power receiving parts, the bilateral control function of the switch socket is realized, and the neutral line and the live line are connected or disconnected at the same time, which is safer.

[0014] The rotary switch module comprises a switch ring and an elastic element mounted on the inner side of the switch ring; the switch ring is a circular ring structure, the top of which extends toward the middle to form a ring-mounted table, and the lower inner side wall is provided with a mounting piece for mounting the conductive end of the conductive element;

[0015] One end of the elastic element is fixedly mounted on the socket body, and the other end is sleeved with the connecting end of the conductive element;

[0016] By rotating the switch ring, the conductive end of the conductive element is displaced under the push of the mounting member, away from or close to the power receiving member / the power receiving member; the connecting end of the conductive element continuously presses against the power receiving member / the power connecting member under the action of the elastic potential energy of the elastic element, and the conductive element swings with the connecting end as the center.

[0017] This solution sets a rotatably mounted switch ring, uses a mounting part to connect to a conducting element, receives a rotating motion from a user, and converts it into a swing control of the conducting element, and then, under the push of the mounting part, the conductive end of the conducting element is displaced, away from or close to the power receiving part / power receiving part, and the power circuit of the socket is turned on or off, and the power supply can be cut off without separating the plug from the socket, which not only saves electricity but also improves electricity safety. Among them, an elastic element in a potential accumulation state is set, one end of which is fixed to a fixed socket body, and the other end is nested in the connection end of the conducting element. Under the pressure of the elastic element, the connection end of the conducting element is always in close contact with the power receiving part / power connecting part, ensuring the stable connection of the circuit.

[0018] In a further embodiment, the mounting member is a U-shaped member installed downward, the middle of the lower part of which is opened upward to form an embedding opening, and the embedding opening is movably engaged with the connecting end of the conducting element;

[0019] The elastic element is a pendulum spring, one end of which is embedded in the socket body, and the other end of which is embedded in the conductive element.

[0020] In this solution, a simple U-shaped part is set downward, and the conductive element is clamped by an embedded opening formed by the upward opening in the middle thereof to complete the linkage of the rotation action. The gap between the U-shaped part and the conductive element ensures the swing freedom of the conductive element and ensures smooth rotation.

[0021] In a further embodiment, the connecting end of the conducting element is a vertical plate structure, the upper part of which is connected to the conducting end, and the rear side of the lower part is provided with a limit block extending backward, and the two sides of the front end thereof contract toward the middle to form an inclined surface abutting against the power receiving component;

[0022] The elastic element is sleeved on the limit block;

[0023] The conductive end of the conducting element is an L-shaped plate structure, the vertical portion of which extends upward and is movably embedded in the mounting member, and the horizontal portion is provided with a riveted silver point for connecting the power connection member and / or the power receiving member.

[0024] In a further embodiment, the electrical connection piece comprises an L-pole static contact piece and an N-pole static contact piece, the lower portion of the L-pole static contact piece is mounted on the socket body, and the upper side wall is provided with a silver riveting point for connecting the conductive element; the L-pole static contact piece has the same structure as the N-pole static contact piece;

[0025] The power receiving component includes a socket E-pole socket in the middle, and a socket L-pole socket and a socket N-pole socket arranged on both sides of the socket E-pole socket. The middle part of the side surface of the socket L-pole socket is recessed inward to form a "X"-shaped slide groove, and the connecting end of the conducting element is abutted in the slide groove; the socket L-pole socket and the socket N-pole socket have the same structure.

[0026] This solution is based on an axially rotating rotary switch module, and is provided with mutually cooperating power receiving parts, power receiving parts and conducting elements. The power receiving part is used as the base point, and the conducting element is controlled to use the power receiving part as a fixed connection circuit. The power receiving part (L-pole static contact piece, N-pole static contact piece) is set on the rotating track of the conducting element. By swinging the conducting element to connect or not connect the power receiving part (L-pole static contact piece, N-pole static contact piece), direct on-off control of the power supply and socket circuit is achieved, with a high degree of integration, more complete power off, and higher safety. The front ends of the connecting end of the conducting element are contracted toward the middle to form an inclined surface that abuts against the power receiving part. The inclined surface can better adapt to the swinging action with the connecting end as the center, thereby optimizing the switch rotation experience.

[0027] In a further embodiment, the conductive element is a mountain-shaped plate structure, the lower part of which is used as a connection end to abut against the power connection piece, and the upper part is provided with a conductive end, a limit block and a guide column in sequence from front to back;

[0028] The two sides of the bottom of the connection end shrink toward the middle to form an inclined surface that abuts against the power connection piece;

[0029] The conductive end extends upward, and a silver riveting point for connecting to the power receiving component is installed on its side wall;

[0030] The limit block protrudes upward and is sleeved with the elastic element;

[0031] The guide post extends upward and is embedded and movably embedded in the mounting member.

[0032] In a further embodiment, the electrical connection member comprises an L-pole static contact piece, the lower portion of which is mounted on the socket body, and the upper portion is bent to form a platform to abut against the connection end of the conductive element;

[0033] The power receiving part includes a socket E-pole socket in the middle, and a socket L-pole socket and a socket N-pole socket arranged on both sides of the socket E-pole socket; the socket L-pole socket is led forward on a side close to the power receiving part and is provided with a silver riveting point connected to the conducting element.

[0034] This solution uses a mountain-shaped plate structure to design the conducting element, with a static contact (L-pole static contact) as a fixed-point connection, and a top installation is achieved through a guide column at the rear end of the transmission to limit the swing of the conducting element, thereby controlling the front conductive end of the conducting element to be away from or in contact with the power receiving part (the L-pole socket), thereby achieving disconnection or connection control of the socket power circuit. The switch control and socket functions are efficiently and cleverly integrated into a single overall product, reducing the waste of resources caused by the separate type.

[0035] In a further embodiment, the electrical connection member comprises an L-pole static contact piece, the lower portion of which is mounted on the socket body, and the upper side wall of which is vertically mounted to abut against the connection end of the conductive element;

[0036] The power receiving component includes a socket E-pole socket sleeve in the middle, and a socket L-pole socket sleeve and a socket N-pole socket sleeve arranged on both sides of the socket E-pole socket sleeve. The socket L-pole socket sleeve is bent upward and led out on one side close to the conductive end, and is provided with a silver riveting point connected to the conductive end.

[0037] This solution is based on an axially rotating conductive element. Further, the socket L-pole socket sleeve / socket N-pole socket sleeve is arranged to be bent upward and led out from the outside, so that the conductive end of the power connection part (L-pole static contact piece) is away from the socket connection at the center, thereby further improving the safety of power-on control while ensuring the compactness of the structure. The switch control and the socket circuit conduction are integrated into one, the structure is ingenious and compact, and it is conducive to the miniaturization of the product.

[0038] In a further embodiment, the socket assembly further comprises a copper inner bracket, on which the power receiving part and the power receiving part are mounted, and an inner side of the outer wall of the copper inner bracket is provided with a first positioning column protruding inward, on which the elastic element is nested.

[0039] In this solution, in conjunction with the laterally installed elastic element, a first positioning column protruding inwardly is provided in the inner side wall of the copper inner bracket to nest the elastic element and provide stable support for the connection between the conducting element and the power receiving component / power connecting component.

[0040] In a further implementation scheme, the socket body includes a protection door module, which includes a two-flat protection door, a three-flat protection door, a protection door spring and a protection door bracket; the two-flat protection door and the three-flat protection door are movably installed on both sides of the top surface of the protection door bracket; the side surfaces of the two-flat protection door and the three-flat protection door are relatively provided with outwardly protruding second positioning columns, and the two ends of the protection door spring are respectively nested on the second positioning columns of the two-flat protection door and the second positioning columns of the three-flat protection door.

[0041] This solution sets a protective door module on the socket body, which can effectively prevent children from accidentally touching the socket and ensure the safety of household electricity use.

[0042] In a further embodiment, a third positioning column protruding downward is provided on the back side of the protective door bracket, and the elastic element is nested on the third positioning column.

[0043] In this solution, a first positioning column protruding inwardly is provided in the inner side wall of the copper inner bracket in conjunction with a vertically installed elastic element to nestly install the elastic element, thereby providing stable support for the connection between the conducting element and the power receiving component / power connecting component.

[0044] In a further embodiment, the utility model also includes a display component, which includes an LED light board and a light guide; the LED light board is electrically connected to the power receiving component and contains a plurality of LED lamp beads; the LED light board is recessed inward on both sides and is engaged with the light guide, and is opened in the middle to avoid the socket component; the light guide is a ring-shaped structure, with upwardly protruding positioning blocks on both sides, and the positioning blocks are engaged with the LED light board.

[0045] This solution integrates a display component on the socket and uses the light source indication of the LED light board to achieve an intuitive display of the socket on and off, thereby improving the user experience.

[0046] In a further embodiment, the socket body includes a panel and a back seat, the panel is buckled with the protective door bracket, and the protective door bracket covers the back seat up and down; the two ends of the back of the panel are provided with downwardly protruding upper buckles, and the two sides are provided with downwardly protruding upper buckles, and the upper buckle positions are U-shaped card slots;

[0047] The two ends of the upper part of the protection door bracket are provided with lower buckles protruding outward, and the two sides are provided with lower buckle grooves recessed inward; the lower buckle is buckled with the upper buckle position, and the lower buckle groove is buckled with the upper buckle.

[0048] In a further embodiment, the socket assembly further includes a wiring terminal and a crimping screw, and the L-pole static contact piece and the N-pole static contact piece are fixed to the wiring terminal by the crimping screw.

[0049] This solution provides a variety of implementation methods for switches and sockets based on different wiring methods, including terminal wiring and welding wires, to meet different application requirements. BRIEF DESCRIPTION OF THE DRAWINGS

[0050] Figure 1 This is an exploded view of a double-control switch socket provided in Example 1 of the utility model;

[0051] Figure 2 The utility model embodiment 1 provides Figure 1 The front and back stereograms of

[0052] Figure 3 It is a rotational schematic diagram of the socket assembly provided in Embodiment 1 of the utility model;

[0053] Figure 4 It is a top view rotation schematic diagram provided by Embodiment 1 of the present utility model;

[0054] Figure 5 It is a comparative schematic diagram of partial structural assembly provided by Example 1 of the utility model;

[0055] Figure 6 is a three-dimensional diagram of a conducting element provided in Example 1 of the utility model;

[0056] Figure 7 It is a three-dimensional structural diagram of the slide groove a3 provided in Example 1 of the utility model.

[0057] Figure 8 This is a schematic diagram of the partial structural assembly provided by Example 1 of the utility model;

[0058] Fig. 9 It is a three-dimensional diagram of the panel 7 and the protective door bracket E4 provided in Embodiment 1 of the utility model;

[0059] Fig.10 This is a partial structural diagram of a single-side controlled switch socket provided in Example 2 of the utility model;

[0060] Fig.11 This is a partial structural back view of the single-side controlled switch socket provided in Example 2 of the utility model;

[0061] Fig.12 It is an enlarged view of a part of the structure provided in Example 3 of the utility model;

[0062] Fig.13 This is a partial structural diagram of a single-side controlled switch socket provided in Example 3 of the utility model.

[0063] Fig.14 This is a partial structural diagram of a single-side controlled switch socket provided in Embodiment 3 of the present utility model;

[0064] Fig.15 It is a rotational schematic diagram of the socket assembly provided in Embodiment 4 of the present utility model;

[0065] Fig.16 This is a schematic diagram of the installation of the LED light board provided in Example 4 of the utility model.

[0066] Fig.17 It is an exploded view of a double-control switch socket provided in Example 4 of the utility model.

[0067] Fig.18 It is a schematic diagram of the partial structural assembly provided by Example 7 of the utility model;

[0068] Among them: socket body A; rotary switch module B; socket assembly C; riveted silver point D; protection door module E; two-flat protection door E1, three-flat protection door E2, protection door spring E3, protection door bracket E4; display assembly F, LED light board F1, light guide F2, positioning block F21;

[0069] The power connection part 1 includes an L-pole static contact piece 11 and an N-pole static contact piece 12; the power receiving part 2 includes a socket E-pole socket sleeve 21, a socket L-pole socket sleeve 22, and a socket N-pole socket sleeve 23; the conducting element 3 includes a connecting end 31, a conductive end 32, a stopper 33, and an inclined plane 34; a switch swivel 4, and a mounting part 41; an elastic element 5; a copper inner bracket 6; a panel 7, an upper buckle position 71, and an upper buckle 72; and a rear seat 8;

[0070] Vertical part a1, horizontal part a2, slide groove a3; guide column b1, platform b2; first positioning column c1; wiring terminal d1, wire pressing screw d2; L-pole switch pendulum e1, N-pole switch pendulum e2; lower buckle E41, lower groove E42; conductive protrusion f1, conductive spring f2. DETAILED DESCRIPTION

[0071] The following is a detailed explanation of the implementation mode of the present invention in conjunction with the accompanying drawings. The embodiments are provided for illustrative purposes only and cannot be understood as limitations on the present invention. The accompanying drawings are provided for reference and illustration only and do not constitute limitations on the scope of patent protection of the present invention, because many changes can be made to the present invention without departing from the spirit and scope of the present invention.

[0072] Example 1

[0073] The utility model provides a dual-control switch socket, such as Figure 1 to Figure 9 As shown, in this embodiment, it includes:

[0074] Socket body A;

[0075] A rotary switch module B rotatably mounted on the upper portion of the socket body A;

[0076] A socket assembly C is fixedly installed in the socket body A, and the socket assembly C includes a power receiving part 1 and a power receiving part 2; the power receiving part 1 is fixedly installed in the socket body A, and the lower part is connected to an external power source; the power receiving part 2 is fixedly installed on a side away from the power receiving part 1;

[0077] A conducting element 3, wherein a connecting end 31 of the conducting element 3 is movably abutted against one end of the power receiving member 2, and a conducting end 32 is embedded and installed inside the rotary switch module B;

[0078] The rotary switch module B is rotated clockwise / counterclockwise to drive the conducting element 3 to swing with the connecting end 31 as the center, so that the conductive end 32 of the conducting element 3 is away from or close to the power receiving part 1; when the conductive end 32 of the conducting element 3 is in close contact with the power receiving part 1, the power receiving part 2 is connected to the external power supply through the conducting element 3 and the power receiving part 1 in sequence; when the conductive end 32 of the conducting element 3 is away from the power receiving part 1, the power receiving part 2 is not connected to the power supply.

[0079] See also Figure 2 This embodiment adopts the connection method of welding wire, wherein Figure I is the front view and Figure II is the back connection view.

[0080] The rotary switch module B comprises a switch ring 4 and an elastic element 5 installed inside the switch ring 4; the switch ring 4 is a circular ring structure, the top of which extends toward the middle to form a ring-mounted table, and the lower inner wall is provided with a mounting member 41 for mounting the conductive end 32 of the conductive element 3;

[0081] One end of the elastic element 5 is fixedly mounted on the socket body A, and the other end is sleeved with the connecting end 31 of the conducting element 3;

[0082] See also Figure 3 As shown in Figures I and II, the switch ring 4 is rotated, and the conductive end 32 of the conductive element 3 is displaced under the push of the mounting member 41, away from or close to the power receiving member 1; the connecting end 31 of the conductive element 3 is continuously pressed against the power receiving member 2 under the elastic potential energy of the elastic element 5, and the conductive element 3 swings with the connecting end 31 as the center. Figure 4 , Figure 5 Figure I is a schematic diagram of circuit connection during clockwise rotation; Figure II is a schematic diagram of circuit disconnection during counterclockwise rotation with the elastic element 5 omitted.

[0083] This embodiment is provided with a rotatably mounted switch ring 4, which is connected to the conducting element 3 by means of a mounting member 41, receives the rotating action from the user, and converts it into swing control of the conducting element 3, and then, under the push of the mounting member 41, the conductive end 32 of the conducting element 3 is displaced, away from or close to the power receiving member 1, and the power circuit of the socket is turned on or off, and the power supply can be cut off without separating the plug from the socket, which not only saves electricity but also improves the safety of electricity use. Among them, an elastic element 5 in a potential accumulation state is provided, one end of which is fixed on the fixed socket body A, and the other end is embedded in the connecting end 31 of the conducting element 3. Under the pressure of the elastic element 5, the connecting end 31 of the conducting element is always in close contact with the power receiving member 2, ensuring the stable connection of the circuit.

[0084] In this embodiment, the mounting member 41 is a U-shaped member installed downward, and the middle of the lower part thereof is opened upward to form an embedding opening, and the embedding opening is movably engaged with the connecting end 31 of the conducting element 3;

[0085] The elastic element 5 is a swing leaf spring, one end of which is embedded in the socket body A, and the other end is embedded in the conductive element 3. The swing leaf spring is set to a compressed state to provide a pressing force to support the conductive element 3 to abut against the power receiving part 2 stably.

[0086] In this embodiment, a simple U-shaped part is set downward, and the conductive element 3 is clamped by an embedded opening formed by the upward opening in the middle thereof to complete the linkage of the rotation action. The gap between the U-shaped part and the conductive element 3 ensures the swing freedom of the conductive element 3 and ensures smooth rotation.

[0087] In this embodiment, see Figure 6 The connecting end 31 of the conducting element 3 is a vertical plate structure, the upper part of which is connected to the conducting end 32, and the lower rear side is provided with a limit block 33 extending backwards, and the two sides of the front end thereof shrink toward the middle to form an inclined surface 34 abutting against the power receiving component 2;

[0088] The elastic element 5 is sleeved on the limiting block 33;

[0089] The conductive end 32 of the conductive element 3 is an L-shaped plate structure, the vertical portion a1 of which extends upward and is movably embedded in the mounting member 41 , and a silver riveting point D for connecting to the electrical connection member 1 is installed in the middle of the horizontal portion a2 .

[0090] The conductive element 3 is at least one of an L-pole switch pendulum e1 and an N-pole switch pendulum e2; the L-pole switch pendulum e1 and the N-pole switch pendulum e2 have the same structure.

[0091] The conducting element 3 is preferably a metal sheet with a conductive function, that is, a switch pendulum.

[0092] In this embodiment, the electrical connection member 1 comprises an L-pole static contact piece 11 and an N-pole static contact piece 12. The lower portion of the L-pole static contact piece 11 is mounted on the socket body A, and the upper side wall is provided with a silver riveting point D for connecting the conducting element 3. The L-pole static contact piece 11 and the N-pole static contact piece 12 have the same structure.

[0093] The power receiving component 2 includes a socket E-pole socket 21 in the middle, and a socket L-pole socket 22 and a socket N-pole socket 23 arranged on both sides of the socket E-pole socket 21. The middle part of the side of the socket L-pole socket 22 is recessed inward to form a "X"-shaped slide groove a3, and the connecting end 31 of the conducting element 3 is abutted in the slide groove a3; the socket L-pole socket 22 has the same structure as the socket N-pole socket 23.

[0094] Among them, see Figure 7 The bottom of the slide groove a3 is provided with a concave-convex staggered trapezoidal structure, which is used to reduce the sliding wear of the conductive component 3, while increasing heat dissipation and reducing temperature rise.

[0095] This embodiment is based on the axially rotating rotary switch module B, and is provided with mutually cooperating power receiving part 1, power receiving part 2 and conducting element 3, wherein the power receiving part 2 is taken as the base point, the conducting element 3 is controlled to use the power receiving part 2 as a fixed connection circuit, the power receiving part 1 (L-pole static contact piece 11, N-pole static contact piece 12) is set on the rotating track of the conducting element 3, and the conducting element 3 is swung to connect or not connect with the power receiving part 1 (L-pole static contact piece 11, N-pole static contact piece 12), so as to realize direct on-off control of the power supply and the socket circuit, with a high degree of integration, more complete power off and higher safety. The front ends of the connecting end 31 of the conducting element 3 are contracted to the middle to form an inclined surface 34 abutting against the power receiving part 2, and the inclined surface 34 can better adapt to the swinging action with the connecting end 31 as the center, thereby optimizing the switch rotation experience.

[0096] In this embodiment, the socket assembly C further comprises a copper inner bracket 6, on which the power receiving part 1 and the power receiving part 2 are mounted, and a first positioning column c1 protruding inward is provided on the inner side of the outer wall thereof, on which the elastic element 5 is embedded. Figure 8 After the socket assembly C, the copper inner bracket 6 and the rear seat 8 are assembled, they are installed with the protective door module E, the display assembly F, the rotary switch module B and other modules.

[0097] Among them, since the first positioning column c1 is located on the swing center line of the conductive element 3, when the conductive element 3 swings left / right, the swing leaf spring is instantly released, and the conductive element is driven to quickly reach the position through deformation and elongation, thereby achieving rapid switching and effectively avoiding arcing faults.

[0098] In this embodiment, in conjunction with the laterally installed elastic element 5 , a first positioning column c1 protruding inwardly is provided in the inner wall of the copper inner bracket 6 to nest the elastic element 5 and provide stable support for the connection between the conducting element 3 and the current receiving element 2 .

[0099] In this embodiment, the socket body A includes a protective door module E, and the protective door module E includes a two-flat protective door E1, a three-flat protective door E2, a protective door spring E3 and a protective door bracket E4. The two-flat protective doors E1 and the three-flat protective doors E2 are movably installed on both sides of the top surface of the protective door bracket E4; the side surfaces of the two-flat protective door E1 and the three-flat protective door E2 are relatively provided with protruding second positioning columns, and the two ends of the protective door spring E3 are respectively nested on the second positioning columns of the two-flat protective door E1 and the second positioning columns of the three-flat protective door E2.

[0100] In this embodiment, a protective door module E is provided on the socket body A, which can effectively prevent children from accidentally touching the socket and ensure the safety of household electricity use.

[0101] In this embodiment, the utility model also includes a display component F, which includes an LED light board F1 and a light guide F2; the LED light board F1 is electrically connected to the power receiving component 2, and includes a plurality of LED lamp beads; the LED light board F1 is recessed inward on both sides and is engaged with the light guide F2, and is opened in the middle to avoid the socket component C; the light guide F2 is an annular structure, and upwardly protruding positioning blocks F21 are provided on both sides, and the positioning blocks F21 are engaged with the LED light board F1.

[0102] In this embodiment, see Fig. 9 The socket body A includes a panel 7 and a rear seat 8, the panel 7 is buckled with the protective door bracket E4, and the protective door bracket E4 and the rear seat 8 are covered up and down; the two ends of the back of the panel 7 are provided with downwardly protruding upper buckles 71, and the two sides are provided with downwardly protruding upper buckles 72, and the upper buckle position 71 is a U-shaped card slot;

[0103] The two ends of the upper part of the protection door bracket E4 are provided with outwardly protruding lower buckles E41, and the two sides are provided with inwardly recessed lower buckle grooves E42; the lower buckle E41 is buckled with the upper buckle position 71, and the lower buckle groove E42 is buckled with the upper buckle 72.

[0104] In this embodiment, taking clockwise rotation to turn on and counterclockwise rotation to turn off as an example, the control principle of the switch socket is as follows:

[0105] (1) Rotate the switch ring 4 clockwise, the switch ring 4 moves the conductive element 3 (switch swing piece), the conductive element 3 deflects a certain angle, the swing piece spring deforms and stretches, the spring force makes the L-pole switch swing piece e1 (riveted silver point D) and the L-pole static contact piece 11 (riveted silver point D) in close contact, and at the same time makes the L-pole switch swing piece e1 and the socket L-pole copper sleeve in close contact. At this time, when the external power line supplies power to the L-pole static contact piece 11, the external power supply makes the socket L-pole copper sleeve conductive and energized through the L-pole static contact piece 11 and the L switch swing piece; in the same principle, rotate the switch ring 4 clockwise, under the action of the spring deformation force, the N-pole swing piece and the N-pole static contact piece 12 and the N-pole copper sleeve are conductive and energized, completing the socket circuit of the switch socket; at this time, the load plug pin is inserted to realize the load power supply function.

[0106] At the same time, the LED light board F1 is powered, and the light emitted by the LED lamp beads is scattered through the light guide F2 to indicate that the power is on.

[0107] (2) Rotate the switch ring 4 counterclockwise, the switch ring 4 moves the conductive element 3 (switch swing piece), the conductive element 3 (switch swing piece) deflects a certain angle, the swing piece spring deforms and stretches, and the spring force separates the L-pole switch swing piece e1 (rivet silver point D) and the L-pole static contact piece 11 (rivet silver point D). At this time, even if the external power line supplies power to the L-pole static contact piece 11, the L-pole copper sleeve of the socket is disconnected because the L-pole switch swing piece e1 and the L-pole static contact piece 11 are separated and disconnected; the same principle, rotate the switch ring 4 counterclockwise, under the action of the spring deformation force, the N-pole switch swing piece e2 and the N-pole static contact piece 12 are separated, and the socket N-pole copper sleeve circuit conduction loop is disconnected. In this way, the L-pole and N-pole double disconnection of the socket is achieved, making the load power off safer.

[0108] At this time, the LED light board F1 loses power, the LED lamp beads do not work, and the switch socket has no light indication.

[0109] In this embodiment, the unilateral control scheme derived from the elimination of the unilateral switch swing piece, the static contact piece, and the switch spring of the utility model is covered by this application. Among them, the socket panel hole type includes but is not limited to the types shown in the drawings of the utility model.

[0110] The embodiment of the utility model sets a separate power connection part 1 and power receiving part 2 on the socket body A, and uses the rotating switch module B to drive the conducting element 3 to rotate, so as to complete the circuit conduction of the power receiving part 2, the conducting element 3, the power connection part 1, and the external power supply; the switch control and the socket function are organically integrated in the same module space. Compared with the traditional switch and socket with separate switch control and socket functions, it has lower cost, small and compact shape, wider application scenarios, stronger product extension and expansion, and further optimizes the user experience. At the same time, by rotating the switch module B to simultaneously control the conduction and disconnection of the circuit between the power connection part 1 and the power receiving part 2 of the L pole and the N pole, the bilateral control function of the switch socket is realized, and the neutral line and the live line are connected or disconnected at the same time, which is safer.

[0111] Example 2

[0112] The utility model provides a dual-control switch socket, such as Fig.10 , Fig.11 As shown, the difference between this embodiment and embodiment 1 lies in the conducting element 3, the power receiving part 1, the power receiving part 2 and the protective door bracket E4. In this embodiment, it includes:

[0113] Socket body A;

[0114] A rotary switch module B rotatably mounted on the upper portion of the socket body A;

[0115] A socket assembly C is fixedly installed in the socket body A, and the socket assembly C includes a power receiving part 1 and a power receiving part 2; the power receiving part 1 is fixedly installed in the socket body A, and the lower part is connected to an external power source; the power receiving part 2 is fixedly installed on a side away from the power receiving part 1;

[0116] A conducting element 3, wherein a connecting end 31 of the conducting element 3 is movably abutted against one end of the power connection member 1, and a conducting end 32 is embedded and installed inside the rotary switch module B;

[0117] See also Fig.10 , rotate the rotary switch module B clockwise / counterclockwise to drive the conductive element 3 to swing with the connecting end 31 as the center, so that the conductive end 32 of the conductive element 3 is away from or close to the powered component 2; when the conductive end 32 of the conductive element 3 is in close contact with the powered component 2, the powered component 2 is connected to the external power supply through the conductive element 3 and the power connection component 1 in sequence; when the conductive end 32 of the conductive element 3 is away from the powered component 2, the powered component 2 is not connected to the power supply.

[0118] The rotary switch module B comprises a switch ring 4 and an elastic element 5 installed inside the switch ring 4; the switch ring 4 is a circular ring structure, the top of which extends toward the middle to form a ring-mounted table, and the lower inner wall is provided with a mounting member 41 for mounting the conductive end 32 of the conductive element 3;

[0119] One end of the elastic element 5 is fixedly mounted on the socket body A, and the other end is sleeved with the connecting end 31 of the conducting element 3;

[0120] See also Fig.10 As shown in Figures I and II, the switch ring 4 is rotated, and the conductive end 32 of the conductive element 3 is displaced under the push of the mounting member 41, away from or close to the power receiving member 2; the connecting end 31 of the conductive element 3 is continuously pressed against the power receiving member 1 under the elastic potential energy of the elastic element 5, and the conductive element 3 swings with the connecting end 31 as the center. Fig.10 , Fig.11 Figure I is a schematic diagram of circuit connection during clockwise rotation; Figure II is a schematic diagram of circuit disconnection during counterclockwise rotation with the elastic element 5 omitted.

[0121] This embodiment is provided with a rotatably mounted switch ring 4, which is connected to the conducting element 3 by means of a mounting member 41, receives the rotating action from the user, and converts it into swing control of the conducting element 3, and then, under the push of the mounting member 41, the conductive end 32 of the conducting element 3 is displaced, away from or close to the power receiving member 2, and the power circuit of the socket is turned on or off, and the power supply can be cut off without separating the plug from the socket, which not only saves electricity but also improves the safety of electricity use. Among them, an elastic element 5 in a potential accumulation state is provided, one end of which is fixed on the fixed socket body A (i.e., the protective door bracket E4), and the other end is nested on the connecting end 31 of the conducting element 3. Under the pressure of the elastic element 5, the connecting end 31 of the conducting element is always in close contact with the power receiving member 1, ensuring the stable connection of the circuit.

[0122] In this embodiment, the mounting member 41 is a U-shaped member installed downward, and the middle of the lower part thereof is opened upward to form an embedding opening 42, and the embedding opening 42 is movably engaged with the connection end 31 of the conducting element 3;

[0123] The elastic element 5 is a pendulum spring, one end of which is embedded in the socket body A, and the other end is embedded in the conductive element 3. The pendulum spring is set to a compressed state to provide a pressing force to support the conductive element 3 to abut against the electrical connection piece 1 stably.

[0124] The conductive element 3 is a plate structure in the shape of a mountain, the lower part of which is used as a connecting end 31 to abut against the power connection member 1, and the upper part is provided with a conductive end 32, a limit block 33 and a guide column b1 in sequence from front to back;

[0125] The two sides of the bottom of the connecting end 31 shrink toward the middle to form an inclined surface 34 that abuts against the power connection member 1;

[0126] The conductive end 32 extends upward, and a silver riveting point D for connecting to the power receiving component 2 is installed on its side wall;

[0127] The limit block 33 protrudes upward and is sleeved with the elastic element 5;

[0128] The guide post b1 extends upward and is movably embedded in the mounting member 41 .

[0129] In this embodiment, the electrical connection member 1 comprises an L-pole static contact piece 11, the lower portion of which is mounted on the socket body A, and the upper portion is bent to form a platform b2 that abuts against the connection end 31 of the conducting element 3;

[0130] The front side of the platform b2 of the L-pole static contact piece 11 is provided with a concave-convex staggered trapezoidal structure, which is used to reduce the sliding wear of the conductive component 3, while increasing heat dissipation and reducing temperature rise.

[0131] The power receiving part 2 includes a socket E-pole socket 21 in the middle, and a socket L-pole socket 22 and a socket N-pole socket 23 arranged on both sides of the socket E-pole socket 21; the socket L-pole socket 22 is led forward on a side close to the power receiving part 1 and is provided with a silver riveting point D connected to the conducting element 3.

[0132] In this embodiment, the conducting element 3 is designed with a mountain-shaped plate structure, and a static contact piece (L-pole static contact piece 11) is used as a fixed point connection. The top installation is achieved through the rear end guide column b1 to limit the swing of the conducting element 3, thereby controlling the front end conductive end 32 of the conducting element 3 to be away from or contact the power receiving part 2 (the socket L-pole socket 22), thereby realizing the disconnection or connection control of the socket power circuit. The switch control and the socket function are efficiently and cleverly integrated into a single integral product, reducing the waste of resources caused by the separate type.

[0133] In this embodiment, the back of the protection door bracket E4 is provided with a third positioning column (not shown) protruding downward, and the elastic element 5 is embedded on the third positioning column. The setting of the third positioning column can be easily obtained, so it is not described in detail in this embodiment.

[0134] In this embodiment, in conjunction with the vertically installed elastic element 5 , a first positioning column c1 protruding inwardly is provided in the inner wall of the copper inner bracket 6 to nest the elastic element 5 and provide stable support for the connection between the conducting element 3 and the electrical connection piece 1 .

[0135] In this embodiment, taking clockwise rotation to turn on, counterclockwise rotation to turn off, and unilateral control as an example, the control principle of the switch socket is as follows:

[0136] (1) See Fig.10 , Fig.11 In Figure I, the switch ring 4 is rotated clockwise, and the switch ring 4 moves the L-pole switch pendulum e1 (the riveted silver point D on the conductive element 3), and the conductive element 3 is deflected by a certain angle, and the pendulum spring is deformed and elongated. The spring force makes the L-pole switch pendulum e1 (riveted silver point D) and the L-pole copper sleeve of the socket (riveted silver point D) in close contact, and at the same time makes the L-pole switch pendulum e1 (riveted silver point D) and the L-pole static contact 11 in close contact. At this time, when the external power line supplies power to the L-pole static contact 11, the external power supply makes the L-pole sleeve of the socket conductive and energized through the L-pole static contact 11 and the L switch pendulum; at this time, the load plug pin is inserted to realize the load power supply function.

[0137] At the same time, the LED light board F1 is powered, and the light emitted by the LED lamp beads is scattered through the light guide F2 to indicate that the power is on.

[0138] (2) See Fig.10 , Fig.11In Figure II, the switch ring 4 is rotated counterclockwise, and the switch ring 4 moves the L-pole switch pendulum e1 (the riveted silver point D on the conductive element 3). The conductive element 3 deflects a certain angle, and the pendulum spring deforms and stretches. The spring force separates the L-pole switch pendulum e1 (riveted silver point D) and the L-pole socket copper sleeve (riveted silver point D). At this time, even if the external power cord supplies power to the L-pole static contact piece 11, the L-pole switch pendulum e1 and the socket L-pole copper sleeve (riveted silver point D) are separated and disconnected, thereby cutting off the power to the load.

[0139] At this time, the LED light board F1 loses power, the LED lamp beads do not work, and the switch socket has no light indication.

[0140] In this embodiment, a unilateral control solution is adopted, so the N-pole static contact piece 12 and the N-pole socket sleeve 23 both adopt conventional structures.

[0141] In other embodiments, if a bilateral control solution is adopted, the L-pole static contact piece 11 and the N-pole static contact piece 12 have the same structure.

[0142] This embodiment only depicts a unilateral control scheme, but the corresponding derived bilateral control is executed in the same manner, so both unilateral control and bilateral control schemes are within the scope of coverage of the present utility model.

[0143] Example 3

[0144] The utility model provides a dual-control switch socket, such as Figure 12~Figure 14 As shown, the difference between this embodiment and embodiment 1 lies in the conducting element 3, the power receiving part 1 and the power receiving part 2. In this embodiment:

[0145] In this embodiment, see Fig.12 The connecting end 31 of the conducting element 3 is a vertical plate structure, the upper part of which is connected to the conducting end 32, and the lower rear side is provided with a limit block 33 extending backwards, and the two sides of the front end thereof shrink toward the middle to form an inclined surface 34 abutting against the power receiving component 2;

[0146] The elastic element 5 is sleeved on the limiting block 33;

[0147] The conductive end 32 of the conductive element 3 is an L-shaped plate structure, the vertical portion a1 of which extends upward and is movably embedded in the mounting member 41 , and a silver riveting point D for connecting to the power receiving member 2 is installed at the end of the horizontal portion a2 .

[0148] In this embodiment, the electrical connection member 1 includes an L-pole static contact piece 11. The lower portion of the L-pole static contact piece 11 is mounted on the socket body A, and the upper side wall is vertically mounted to abut against the connection end 31 of the conductive element 3. Fig.12A vertical arc groove is provided in the middle of the L-pole static contact piece 11 to embed the conducting element 3;

[0149] The power receiving part 2 includes a socket E-pole socket 21 in the middle, and a socket L-pole socket 22 and a socket N-pole socket 23 arranged on both sides of the socket E-pole socket 21. The socket L-pole socket 22 is bent upward and led out on one side close to the conductive end 32, and is provided with a riveted silver point D connected to the conductive end 32.

[0150] This embodiment is based on the axially rotating conductive element 3, and further the socket L-pole socket sleeve 22 is arranged to be bent upwardly and led out from the outside, so that the conductive end 32 of the power receiving part 1 (L-pole static contact piece 11) is away from the socket connection at the center, thereby further improving the safety of power-on control while ensuring the compactness of the structure, and the switch control and the socket circuit conduction are integrated into one, the structure is ingenious and compact, and it is conducive to miniaturization of the product.

[0151] In this embodiment, taking clockwise rotation to turn on and counterclockwise rotation to turn off as an example, the control principle of the switch socket is as follows:

[0152] (1) See Fig.13 , Fig.14 In Figure I, the switch ring 4 is rotated clockwise, and the switch ring 4 moves the L-pole switch pendulum e1 (the riveted silver point D on the conductive element 3), and the conductive element 3 is deflected by a certain angle, and the pendulum spring is deformed and elongated. The spring force makes the L-pole switch pendulum e1 (riveted silver point D) and the L-pole socket copper sleeve (riveted silver point D) in close contact, and at the same time makes the L-pole switch pendulum e1 (riveted silver point D) and the L-pole static contact piece 11 in close contact. At this time, when the external power line supplies power to the L-pole static contact piece 11, the external power supply makes the socket L-pole sleeve conductive and energized through the L-pole static contact piece 11 and the L switch pendulum; at this time, the load plug pin is inserted to realize the load power supply function.

[0153] At the same time, the LED light board F1 is powered, and the light emitted by the LED lamp beads is scattered through the light guide F2 to indicate that the power is on.

[0154] (2) See Fig.13 , Fig.14 In Figure II, the switch ring 4 is rotated counterclockwise, and the switch ring 4 moves the L-pole switch pendulum e1 (the riveted silver point D on the conductive element 3). The conductive element 3 deflects a certain angle, and the pendulum spring deforms and stretches. The spring force separates the L-pole switch pendulum e1 (riveted silver point D) and the L-pole socket copper sleeve (riveted silver point D). At this time, even if the external power cord supplies power to the L-pole static contact piece 11, the L-pole switch pendulum e1 and the L-pole socket copper sleeve (riveted silver point D) are separated and disconnected, thereby cutting off the power to the L-pole socket sleeve; thereby cutting off the power to the load.

[0155] At this time, the LED light board F1 loses power, the LED lamp beads do not work, and the switch socket has no light indication.

[0156] In this embodiment, a unilateral control solution is adopted, so the socket N-pole socket 23 adopts a conventional structure.

[0157] This embodiment only depicts a unilateral control scheme, but the corresponding derived bilateral control is executed in the same manner, so both unilateral control and bilateral control schemes are within the scope of coverage of the present utility model.

[0158] Example 4

[0159] The utility model provides a dual-control switch socket, such as Figure 15~Figure 17 As shown, the difference between this embodiment and embodiment 1 lies in the wiring method. In this embodiment:

[0160] The socket assembly C further includes a connection terminal d1 and a crimping screw d2, and the L-pole static contact piece 11, the N-pole static contact piece 12, and the E-pole ground wire 21 are fixed to the connection terminal d1 by the crimping screw d2 to connect to an external ground wire.

[0161] This embodiment provides a variety of implementation methods of the switch socket based on different wiring methods, including terminal wiring and welding wires, so as to adapt to different application requirements.

[0162] In this embodiment, the display assembly F is electrically connected to the power receiving member 2, see Figure I in 16, the LED light board is connected through the conductive protrusion f1 on the socket L pole socket 22 / socket N pole socket 23 to achieve circuit connectivity; or, see the attached Fig.16 In FIG. II, the LED lamp board is connected to realize circuit connection through the power taking spring f2 set on the socket L pole socket 22 / the socket N pole socket 23. Similarly, the display component F in the embodiment 1 also adopts the same power taking principle.

[0163] In this embodiment, a display component F is integrated on the socket, and a light source indication is realized by using an LED light board F1, so as to realize an intuitive display of the on and off status of the socket, thereby improving the user experience.

[0164] The present embodiment differs from the first embodiment only in the wiring method. The present embodiment adopts wiring terminals, while the first embodiment adopts welding wires. Therefore, there are differences in the corresponding bottom wiring structures of “L-pole static contact piece 11, N-pole static contact piece 12, and power receiving component 2”. This is a conventional technical means in the field and will not be described in detail in the present embodiment.

[0165] This embodiment only depicts a bilateral control scheme, but the corresponding derived unilateral control scheme is the same control method, so both unilateral control and bilateral control schemes are covered by the present utility model.

[0166] Example 5

[0167] The utility model embodiment provides a dual-control switch socket. The difference between this embodiment and embodiment 2 lies in the wiring method. In this embodiment:

[0168] The socket assembly C further includes a connection terminal d1 and a crimping screw d2, and the L-pole static contact piece 11, the N-pole static contact piece 12, and the E-pole ground wire 21 are fixed to the connection terminal d1 by the crimping screw d2 to connect to an external ground wire.

[0169] This embodiment provides a variety of implementation methods of the switch socket based on different wiring methods, including terminal wiring and welding wires, so as to adapt to different application requirements.

[0170] Example 6

[0171] The present utility model embodiment provides a dual-control switch socket. The difference between this embodiment and embodiment 3 lies in the wiring method. In this embodiment:

[0172] The socket assembly C further includes a connection terminal d1 and a crimping screw d2, and the L-pole static contact piece 11, the N-pole static contact piece 12, and the E-pole ground wire 21 are fixed to the connection terminal d1 by the crimping screw d2 to connect to an external ground wire.

[0173] This embodiment provides a variety of implementation methods of the switch socket based on different wiring methods, including terminal wiring and welding wires, so as to adapt to different application requirements.

[0174] Example 7

[0175] The utility model embodiment provides a double-control switch socket, the difference between this embodiment and embodiment 1 lies in the copper inner bracket 6 and the rear seat 8, such as Fig.18 In this embodiment: the bottom of the inner cavity of the rear seat 8 protrudes upward to form a copper inner bracket 6, and the power receiving component 1 and the power receiving component 2 are installed on the copper inner bracket 6; the inner side wall of the rear seat 8 is provided with a first positioning column c1 protruding inward, and the elastic element 5 is nested on the first positioning column c1.

[0176] In this embodiment, the rear seat 8 and the copper inner bracket 6 are designed to be combined into a single part, which further realizes the miniaturization of the product, while reducing the assembly steps and the difficulty of installation.

[0177] The above embodiments are preferred implementation modes of the present invention, but the implementation modes of the present invention are not limited by the above embodiments. Any other changes, modifications, substitutions, combinations, and simplifications that do not deviate from the spirit and principle of the present invention should be equivalent replacement methods and are included in the protection scope of the present invention.

Claims

1. A double-control switch socket, characterized in that: include: Socket body; A rotary switch module rotatably mounted on the upper portion of the socket body; A socket assembly fixedly mounted in the socket body, the socket assembly comprising a power receiving part and a power receiving part; the power receiving part is fixedly mounted in the socket body, and the lower part is connected to an external power source; the power receiving part is fixedly mounted on a side away from the power receiving part; A conducting element, wherein a connecting end of the conducting element is movably abutted against one end of the power receiving element / the power receiving element, and a conducting end is embedded and installed inside the rotary switch module; The rotary switch module is rotated clockwise / counterclockwise to drive the conductive element to swing with the connection end as the center, so that the conductive end of the conductive element is away from or close to the power receiving part / the power receiving part; when the conductive end of the conductive element is in close contact with the power receiving part / the power receiving part, the power receiving part is connected to the external power supply through the conductive element and the power connecting part in turn; when the conductive end of the conductive element is away from the power receiving part / the power receiving part, the power receiving part is not connected to the power supply.

2. A double-control switch socket as claimed in claim 1, characterized in that: The rotary switch module comprises a switch ring and an elastic element mounted on the inner side of the switch ring; the switch ring is a circular ring structure, the top of which extends toward the middle to form a ring-mounted table, and the lower inner side wall is provided with a mounting piece for mounting the conductive end of the conductive element; One end of the elastic element is fixedly mounted on the socket body, and the other end is sleeved with the connecting end of the conductive element; By rotating the switch ring, the conductive end of the conductive element is displaced under the push of the mounting member, away from or close to the power receiving member / the power receiving member; the connecting end of the conductive element continuously presses against the power receiving member / the power connecting member under the action of the elastic potential energy of the elastic element, and the conductive element swings with the connecting end as the center.

3. A double-control switch socket as claimed in claim 2, characterized in that: The mounting member is a U-shaped member installed downwards, and the middle of the lower part thereof is opened upwards to form an embedding opening, and the embedding opening is movably engaged with the connecting end of the conducting element; The elastic element is a pendulum spring, one end of which is embedded in the socket body, and the other end of which is embedded in the conductive element.

4. A double-control switch socket as claimed in claim 3, characterized in that: The connecting end of the conducting element is a vertical plate structure, the upper part of which is connected to the conducting end, and the rear side of the lower part is provided with a limit block extending backward, and the two sides of the front end thereof contract toward the middle to form an inclined surface abutting against the power receiving component; The elastic element is sleeved on the limit block; The conductive end of the conducting element is an L-shaped plate structure, the vertical portion of which extends upward and is movably embedded in the mounting member, and the horizontal portion is provided with a riveted silver point for connecting the power connection member and / or the power receiving member.

5. A double-control switch socket as claimed in claim 4, characterized in that: The electrical connection part comprises an L-pole static contact piece and an N-pole static contact piece, the lower part of the L-pole static contact piece is mounted on the socket body, and the upper side wall is provided with a silver riveting point for connecting the conducting element; the L-pole static contact piece has the same structure as the N-pole static contact piece; The power receiving component includes a socket E-pole socket in the middle, and a socket L-pole socket and a socket N-pole socket arranged on both sides of the socket E-pole socket. The middle part of the side surface of the socket L-pole socket is recessed inward to form a "X"-shaped slide groove, and the connecting end of the conducting element is abutted in the slide groove; the socket L-pole socket and the socket N-pole socket have the same structure.

6. A double-control switch socket as claimed in claim 3, characterized in that: The conducting element is a plate structure in the shape of a mountain, the lower part of which is used as a connecting end to abut against the power connection piece, and the upper part is provided with a conducting end, a limit block and a guide column in sequence from front to back; The two sides of the bottom of the connection end shrink toward the middle to form an inclined surface that abuts against the power connection piece; The conductive end extends upward, and a silver riveting point for connecting to the power receiving component is installed on its side wall; The limit block protrudes upward and is sleeved with the elastic element; The guide post extends upward and is embedded and movably embedded in the mounting member.

7. A double-control switch socket as claimed in claim 6, characterized in that: The power connection piece includes an L-pole static contact piece, the lower part of which is installed on the socket body, and the upper part is bent to form a platform that abuts against the connecting end of the conductive element; the power receiving piece includes a socket E-pole socket sleeve in the middle, and a socket L-pole socket sleeve and a socket N-pole socket sleeve arranged on both sides of the socket E-pole socket sleeve; the socket L-pole socket sleeve is led forward on a side close to the power connection piece, and is provided with a silver riveted point connected to the conductive element.

8. A double-control switch socket as claimed in claim 4, characterized in that: The power receiving part includes an L-pole static contact piece, the lower part of which is installed on the socket body, and the upper side wall is vertically installed to abut against the connecting end of the conducting element; the power receiving part includes a socket E-pole socket sleeve in the middle, and a socket L-pole socket sleeve and a socket N-pole socket sleeve arranged on both sides of the socket E-pole socket sleeve, and the socket L-pole socket sleeve is bent upward and led out on one side close to the conductive end, and is provided with a silver rivet point connected to the conductive end.

9. A double-control switch socket as claimed in claim 5 or 8, characterized in that: The socket assembly further comprises a copper inner bracket, on which the power receiving part and the power receiving part are mounted, and an inner side of an outer wall of the copper inner bracket is provided with a first positioning column protruding inwards, on which the elastic element is nested.

10. A double-control switch socket as claimed in claim 7, characterized in that: The socket body includes a protection door module, which includes a two-flat protection door, a three-flat protection door, a protection door spring and a protection door bracket. The two-flat protection door and the three-flat protection door are movably installed on both sides of the top surface of the protection door bracket; the side surfaces of the two-flat protection door and the three-flat protection door are relatively provided with outwardly protruding second positioning columns, and the two ends of the protection door spring are respectively nested on the second positioning columns of the two-flat protection door and the second positioning columns of the three-flat protection door.

11. A double-control switch socket as claimed in claim 10, characterized in that: A third positioning column protruding downward is provided on the back side of the protection door bracket, and the elastic element is nested on the third positioning column.

12. A double-control switch socket as claimed in claim 1, characterized in that: It also includes a display component, which includes an LED light board and a light guide; the LED light board is electrically connected to the power receiving component and includes a plurality of LED lamp beads; the LED light board is recessed on both sides and is engaged with the light guide, and is opened in the middle to avoid the socket component; the light guide is a ring-shaped structure, with upwardly protruding positioning blocks on both sides, and the positioning blocks are engaged with the LED light board.

13. A double-control switch socket as claimed in claim 10, characterized in that: The socket body comprises a panel and a rear seat, the panel is buckled with the protective door bracket, and the protective door bracket covers the rear seat up and down; the two ends of the back of the panel are provided with upper buckles protruding downward, and the two sides are provided with upper buckles protruding downward, and the upper buckles are U-shaped slots; The two ends of the upper part of the protection door bracket are provided with lower buckles protruding outward, and the two sides are provided with lower buckle grooves recessed inward; the lower buckle is buckled with the upper buckle position, and the lower buckle groove is buckled with the upper buckle.

14. A double-control switch socket as claimed in claim 5, characterized in that: The socket assembly also includes a wiring terminal and a crimping screw, and the L-pole static contact piece and the N-pole static contact piece are fixed to the wiring terminal by the crimping screw.

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