A track socket and a conductive track for mounting a track socket

Abstract

The utility model provides a kind of track socket and be used for installing the conductive track of track socket, track socket includes the adapter with bushing structure, adapter includes rotating shell and base, rotating shell is rotatably covered on base, and the plug-in piece is fixedly connected below base, rotating shell is provided with the rotation upper electrical assembly and drive assembly electrically connected with bushing structure, rotation upper electrical assembly includes the electrically conductive arm of movably connected external conductive track, and drive assembly drives electrically conductive arm to be stored or unfolded relative to plug-in piece and the unfolding angle opening of electrically conductive arm is identical.Drive assembly includes driving rotator and passive rotator, passive rotator includes passive rotation main body and electrically conductive arm connected with passive rotation main body, driving rotator drives passive rotation main body to rotate, so that electrically conductive arm rotates.The utility model can improve the use convenience and security of track socket, increase the contact distance of electrically conductive arm of track socket and conductive piece in conductive track, and improve the security of track socket.

Description

Technical Field

[0001] This utility model relates to the field of electrical connection technology, and more specifically, to a track socket and a conductive track for mounting the track socket. Background Technology

[0002] Existing power outlets typically have switches to turn them on or off, allowing users to control the power supply by plugging in the outlet. However, as user demand for power outlets continues to increase, track rail outlets have become widely used due to their ease of use, safety, and ability to meet diverse needs. But the traditional method of controlling track rail outlets via switches has certain limitations.

[0003] Specifically, when the plug inserted into the track socket is too large, the switch button is often difficult to press due to obstruction. Furthermore, pressing the switch button requires a certain amount of force, which can cause hand discomfort with prolonged and frequent use. Additionally, the switch button has a limited lifespan; repeated pressing can deform it, leading to poor contact or damage to the track socket. Moreover, the operation of the switch button is intuitive and simple for children, failing to provide effective safety protection against accidental activation or activation, posing a potential safety risk.

[0004] Furthermore, existing track sockets typically feature conductive arms that contact the conductive plates within the conductive track. Power supply to and from the track socket is achieved through the contact or non-contact of the conductive arms with the conductive plates. However, the traditional placement of these conductive arms in track sockets has certain limitations. Specifically, existing conductive arms are usually located at the bottom of the track socket, either centrally positioned or on either side of the bottom edge. This reduces the contact distance between the conductive arms and the conductive plates in the track, posing a safety hazard. It also easily leads to unstable contact between the conductive arms and the conductive plates in the track.

[0005] In view of this, it is necessary to design a track socket and a conductive track for installing the track socket. On the basis of realizing the basic functions of power supply and power disconnection of the track socket, the convenience and safety of the track socket should be further improved. At the same time, the contact distance between the conductive arm and the conductive sheet in the conductive track should be increased to enhance the connection stability between the conductive arm and the conductive track, improve the safety of the track socket and extend its service life. Utility Model Content

[0006] The purpose of this utility model is to provide a track socket and a conductive track for installing the track socket, so as to solve the problems of inconvenience, limited lifespan and ineffective safety protection of track sockets with switch buttons in the prior art, as well as the problems of connection stability and safety caused by the setting method of the conductive arm of the track socket.

[0007] To achieve the above objectives, this utility model provides a track socket, including an adapter with a plug-in structure. The adapter includes a rotating outer shell and a base. The rotating outer shell is rotatably fitted onto the base. A plug-in is fixedly connected to the bottom of the base. The rotating outer shell is provided with a rotating power-on component electrically connected to the plug-in structure and a driving component for driving the rotating power-on component to rotate. The rotating power-on component includes a conductive arm movably connected to an external conductive track. The conductive arm is rotatably connected to the plug-in on a side facing away from the plug-in structure. The driving component drives the conductive arm to retract or unfold relative to the plug-in. The unfolding angle of the conductive arm is an acute angle, and the openings of the unfolding angles of the conductive arm are the same. The rotating power-on component includes a driving component, which further includes: an active rotating component fixedly connected to the rotating outer shell; and a passive rotating component, which is disposed through the base and electrically connected to the plug-in structure. The passive rotating component includes a passive rotating body and a conductive arm connected to the passive rotating body. The conductive arm is located at the plug-in. The active rotating component drives the passive rotating body to rotate, so that the conductive arm is in a retracted or unfolded state relative to the plug-in.

[0008] The track socket provided by this utility model can further improve the convenience and safety of the track socket on the basis of realizing the basic functions of power supply and power disconnection. At the same time, it increases the contact distance between the conductive arm and the conductive sheet in the conductive track, enhances the connection stability between the conductive arm and the conductive track, improves the safety of the track socket and extends its service life.

[0009] The aforementioned track socket has an integrated active rotating component, which has at least one end that is fixedly connected to the rotating housing.

[0010] The aforementioned track socket includes at least a first active rotating component and a second active rotating component. The first and second active rotating components are separate structures, with one end of the first active rotating component and at least one end of the second active rotating component respectively fixedly connected to the rotating housing.

[0011] The aforementioned track socket has a first rotating protrusion and a second rotating protrusion on the active rotating component. The active rotating component drives the passive rotating body to rotate through the first rotating protrusion and the second rotating protrusion, thereby causing the conductive arm to rotate.

[0012] The aforementioned track socket also has a flexible elastic element on its base, which has a free end and a fixed end. The flexible elastic element has limiting points corresponding to the folded and unfolded states. In addition, the active rotating element also has a third rotating protrusion that abuts against one side of the flexible elastic element.

[0013] The aforementioned track socket has a flexible elastic element that is an irregularly shaped retaining spring, and a fixing slot is also provided on the base, with the fixing end of the irregularly shaped retaining spring fixed on the fixing slot.

[0014] The aforementioned track socket has a shaped retaining ring with a first limiting point, a second limiting point, and a third limiting point, with the second limiting point located between the first and third limiting points. When the third rotating protrusion abuts against the first limiting point, the conductive arm rotates to a first angular position, which corresponds to the retracted state of the conductive arm. When the third rotating protrusion abuts against the third limiting point, the conductive arm rotates to a second angular position, which corresponds to the unfolded state of the conductive arm.

[0015] The aforementioned track socket also has a limit spring and a fixing member for fixing the limit spring on the base. One end of the limit spring is fixed to the fixing member, and the other end of the limit spring abuts against the other side of the flexible elastic member.

[0016] In the aforementioned track socket, the passive rotating body is a lever. The upper part of the lever is located inside the rotating housing, and the lower part of the lever is located at the plug and is fixedly connected to the conductive arm. The upper part of the lever is also provided with a toggle element, and the active rotating component drives the lever to rotate through the toggle element.

[0017] The aforementioned track socket also has a back-facing actuating element on the upper part of the lever. The actuating element and the back-facing actuating element are positioned opposite to the lever. The active rotating element drives the lever to rotate through the actuating element and the back-facing actuating element.

[0018] In the aforementioned track socket, the extension direction of the lever is perpendicular to the extension direction of the conductive track, and the actuating element is an A-shaped paddle that is perpendicular to the lever.

[0019] The aforementioned track socket adapter further includes an E-polar conductive element disposed on the base, the E-polar conductive element passing through the base and the connector in a direction parallel to the rotation axis of the rotating housing and extending out of the connector in a direction away from the base.

[0020] The aforementioned track socket has a conductive arm comprising at least a first conductive arm and a second conductive arm, which are asymmetrically arranged relative to the E-pole conductive element.

[0021] In the aforementioned track socket, the upper part of the E-polar conductive element is located inside the rotating housing and has a cylindrical structure, while the lower part of the E-polar conductive element extends out of the connector and has a cuboid structure.

[0022] The aforementioned track socket adapter further includes a locking bracket mounted on the base. The locking bracket includes a locking portion that extends through the base along a direction parallel to the rotation axis of the rotating housing and is located above the conductive arm. When the active rotating component drives the locking bracket to rotate, the locking portion retracts or protrudes relative to the connector, thereby unlocking or locking the locking bracket onto the conductive track.

[0023] The aforementioned track socket, the locking bracket further includes: a first extension arm and a second extension arm respectively disposed on both sides of the connecting portion, the first extension arm and the second extension arm respectively having locking portions facing opposite directions; wherein, the locking portions of the first extension arm and the second extension arm are retracted or protruded relative to the plug-in member.

[0024] The aforementioned track socket also includes a torsion elastic element within the connecting portion. One end of the torsion elastic element is fixedly mounted on the base, and the other end of the torsion elastic element abuts against a first abutting portion mounted on the active rotating member. A reset portion facing opposite to the locking portion is also provided on the first or second extension arm, and a second abutting portion is provided on the active rotating member corresponding to the reset portion. Furthermore, a reset spring is provided on the base, with one end of the reset spring mounted on the reset portion and the other end of the reset spring mounted on the base.

[0025] The aforementioned track socket, the reset part further includes: a connecting plate, a spring seat on the side of the connecting plate facing the reset spring, one end of the reset spring being mounted on the spring seat; a reset space for accommodating the reset spring on the base; and a third abutment on the active rotating member corresponding to the first extension arm and / or the second extension arm; wherein the active rotating member drives the locking bracket to rotate through the first abutment, the second abutment and the third abutment.

[0026] The aforementioned track socket adapter further includes a retainer disposed on the base, the retainer extending through the base in a direction parallel to the rotation axis of the rotating housing and positioned above the conductive arm. The locking part further includes a locking end and a through body, the lower end of the through body being connected to the locking end, and the upper end of the through body extending through the base; and the connector also has a clearance groove for accommodating the through body and the locking end.

[0027] The aforementioned track socket further includes the following socket structure: an insulating plate disposed on a base, the insulating plate also having a socket socket and a conductive socket, the conductive socket corresponding to and electrically connected to the socket socket; and a protective door disposed on the insulating plate with a protective door hole corresponding to the socket socket, the protective door also having a blocking part for blocking the protective door hole; wherein, the passive rotating body is electrically connected to the conductive socket, and the E-pole conductive element is electrically connected to the socket socket.

[0028] The aforementioned track socket has a five-hole socket sleeve, which further includes two L-pole sleeves, two N-pole sleeves, and one E-pole sleeve; and the conductive sleeve further includes a first conductive sleeve fixedly connected to the two L-pole sleeves and a second conductive sleeve fixedly connected to the two N-pole sleeves; wherein, the passive rotating body penetrates the insulating plate along the rotation axis parallel to the rotating shell and is electrically connected to the first and second conductive sleeves; and the E-pole conductive element penetrates the insulating plate along the rotation axis parallel to the rotating shell and is electrically connected to the E-pole sleeve, and a conductive spring is also sleeved on the E-pole conductive element.

[0029] The aforementioned track socket, the insulating plate further includes: a first PCB board, disposed on the base; a second PCB board, disposed on the first PCB board via pins and electrically connected to the first PCB board, the second PCB board having a conductive sleeve corresponding to the passive rotating body, and a WiFi smart module disposed on the second PCB board; and the socket sleeve is a five-hole high-voltage socket, the five-hole high-voltage socket being electrically connected to the conductive sleeve via the second PCB board, the five-hole high-voltage socket further including: two L-pole sockets and two N-pole sockets disposed on the second PCB board; and an E-pole socket disposed at the bottom of the protective door; wherein, the passive rotating body passes through the first PCB board and the second PCB board along a rotation axis parallel to the rotating shell and is electrically connected to the conductive sleeve; and the E-pole conductive element passes through the first PCB board along a rotation axis parallel to the rotating shell and is electrically connected to the E-pole socket, and a conductive spring is also sleeved on the E-pole conductive element.

[0030] To better achieve the purpose of this utility model, this utility model also provides a conductive track for installing a track socket. The track socket is as described above. The conductive track is provided with a track conductive plate for contacting a conductive arm. When the locking part of the locking bracket of the track socket is retracted relative to the plug, the adapter can move in the conductive track. And when the locking part of the locking bracket protrudes relative to the plug, the adapter is locked in the conductive track.

[0031] Furthermore, the conductive track provided by this utility model corresponds to the aforementioned track socket, and its beneficial technical effects are the same as those described above.

[0032] To provide a better understanding of the above and other aspects of this utility model, specific embodiments are described below in conjunction with the accompanying drawings, but these are not intended to limit the scope of patent protection of this utility model. Attached Figure Description

[0033] Figure 1 This is a front view of a track socket adapter according to an embodiment of the present invention.

[0034] Figure 2 for Figure 1Left view of the track socket adapter in the illustrated embodiment.

[0035] Figure 3 for Figure 1 Right view of the track socket adapter in the illustrated embodiment.

[0036] Figure 4 for Figure 1 The illustrated embodiment shows a schematic diagram of the internal structure of the track socket adapter in a power-off state.

[0037] Figure 5 This is a schematic diagram of the internal structure of the track socket adapter in a power-off state, according to another embodiment of the present invention.

[0038] Figure 6 This is a schematic diagram of the internal structure of the track socket adapter in a power-off state, according to another embodiment of the present invention.

[0039] Figure 7 This is a schematic diagram of the internal structure of the track socket adapter in a power-off state, according to another embodiment of the present invention.

[0040] Figure 8 This is a schematic diagram of a flexible elastic element according to an embodiment of the present invention.

[0041] Figure 9 This is a schematic diagram of a passive rotating body according to an embodiment of the present invention.

[0042] Figure 10 This is a schematic diagram of an E-polar conductive component according to an embodiment of the present invention.

[0043] Figure 11 for Figure 1 A bottom view of the track socket adapter in the illustrated embodiment.

[0044] Figure 12 for Figure 1 A schematic diagram of the structure on the base in the illustrated embodiment.

[0045] Figure 13 This is a front view of a locking bracket according to an embodiment of the present invention.

[0046] Figure 14 This is a perspective view of a locking bracket according to an embodiment of the present invention.

[0047] Figure 15 for Figure 1 The illustrated embodiment shows a schematic diagram of the rotating housing and locking bracket.

[0048] Figure 16 This is a schematic diagram of the rotating outer shell and insert structure according to an embodiment of the present invention.

[0049] Figure 17 for Figure 16 A top view of the socket structure in the illustrated embodiment.

[0050] Figure 18 for Figure 16 A schematic diagram of the socket structure in the illustrated embodiment is shown.

[0051] Figure 19 for Figure 16 The illustrated embodiment shows a schematic diagram of the Type-A and Type-C jacks.

[0052] Figure 20 for Figure 1 The illustrated embodiment shows a schematic diagram of the rotating housing and insert structure.

[0053] Figure 21 for Figure 1 A top view of the protective door in the illustrated embodiment.

[0054] Figure 22 for Figure 1 A top view of the socket structure in the illustrated embodiment.

[0055] Figure 23 for Figure 1 A schematic diagram of the socket structure in the illustrated embodiment is shown.

[0056] Figure 24 for Figure 1 A schematic diagram of the five-hole socket in the illustrated embodiment is shown.

[0057] Figure 25 This is a schematic diagram of the rotating outer shell and insert structure according to another embodiment of the present invention.

[0058] Figure 26 for Figure 25 A top view of the protective door in the illustrated embodiment.

[0059] Figure 27 for Figure 25 A top view of the socket structure in the illustrated embodiment.

[0060] Figure 28 for Figure 25 A schematic diagram of the socket structure in the illustrated embodiment is shown.

[0061] Figure 29 for Figure 25 A schematic diagram of the five-hole socket in the illustrated embodiment is shown.

[0062] Figure 30 for Figure 1 A perspective assembly diagram of the track socket adapter of the embodiment is shown.

[0063] Figure 31 for Figure 1 The illustrated embodiment shows a bottom view of the track socket adapter in a power-off state.

[0064] Figure 32 for Figure 1 The illustrated embodiment shows a schematic diagram of the internal structure of the track socket adapter in a power-on state.

[0065] Figure 33 for Figure 1 The illustrated embodiment shows a schematic diagram of the internal structure of the track socket adapter in the unlocked state.

[0066] Figure 34 for Figure 1 The illustrated embodiment shows a bottom view of the track socket adapter in an unlocked state.

[0067] Figure 35 This is a front view of a track socket adapter according to an embodiment of the present invention.

[0068] Figure 36 for Figure 35 Left view of the track socket adapter in the illustrated embodiment.

[0069] Figure 37 for Figure 35 Right view of the track socket adapter in the illustrated embodiment.

[0070] Figure 38 for Figure 35 A bottom view of the track socket adapter in the illustrated embodiment.

[0071] Figure 39 This is a schematic diagram of an E-polar conductive component according to an embodiment of the present invention.

[0072] Figure 40 for Figure 35 A schematic diagram of the structure on the base in the illustrated embodiment.

[0073] Figure 41 for Figure 35 A top view of the socket structure in the illustrated embodiment.

[0074] Figure 42 for Figure 35 A schematic diagram of the socket structure in the illustrated embodiment is shown.

[0075] Figure 43 This is a schematic diagram of a passive connector according to an embodiment of the present invention.

[0076] Figure 44This is a schematic diagram of the internal structure of a track socket adapter in a power-off state according to an embodiment of the present invention.

[0077] Figure 45 This is a schematic diagram of the internal structure of the track socket adapter in a power-off state, according to another embodiment of the present invention.

[0078] Figure 46 This is a schematic diagram of the internal structure of the track socket adapter in a power-off state, according to another embodiment of the present invention.

[0079] Figure 47 This is a schematic diagram of the internal structure of the track socket adapter in a power-off state, according to another embodiment of the present invention.

[0080] Figure 48 This is a schematic diagram of an irregularly shaped retaining ring according to an embodiment of the present invention.

[0081] Figure 49 This is a left view of a track socket adapter according to an embodiment of the present invention.

[0082] Figure 50 for Figure 49 A bottom view of the track socket adapter in the illustrated embodiment.

[0083] Figure 51 for Figure 49 The illustrated embodiment shows a schematic diagram of the rotating housing and locking bracket.

[0084] Figure 52 This is a front view of a locking bracket according to an embodiment of the present invention.

[0085] Figure 53 This is a perspective view of a locking bracket according to an embodiment of the present invention.

[0086] Figure 54 This is a schematic diagram of the insert structure in one embodiment of the present invention.

[0087] Figure 55 for Figure 54 A schematic diagram of the five-hole socket in the illustrated embodiment is shown.

[0088] Figure 56 This is a schematic diagram of the insert structure in one embodiment of the present invention.

[0089] Figure 57 for Figure 56 A schematic diagram of the five-hole socket in the illustrated embodiment is shown.

[0090] Figure 58 This is a top view of the socket structure in one embodiment of the present invention.

[0091] Figure 59 for Figure 58 A schematic diagram of the socket structure in the illustrated embodiment is shown.

[0092] Figure 60 for Figure 58 The illustrated embodiment shows a schematic diagram of the Type-A and Type-C jacks.

[0093] Figure 61 This is a schematic diagram of the structure of a track socket adapter locked to a conductive track according to one embodiment of the present invention.

[0094] Figure 62 This is a schematic diagram of the structure of a track socket adapter unlocked onto a conductive track according to one embodiment of the present invention.

[0095] In the attached figures, the following labels are used:

[0096] 1, 1' – Rotating housing; 11, 11” – USB insulating board

[0097] 12, 12” – USB circuit board; 121, 121” – Conductive socket

[0098] 122, 122” – USB interface; 12a, 12a” – First USB circuit board

[0099] 12b, 12b” – Second USB circuit board; 1221, 1221” – Type-A interface

[0100] 1222” – Type-C interface; 13” – USB signal connection board

[0101] 14”, 14A”, 14B” – Socket Panel

[0102] 141, 141” – Type-A socket; 141A, 141B – Five-hole socket

[0103] 141A”, 141B” – 5-hole socket; 142”, 142” – Type-C socket

[0104] 143, 143” – Indicator lights; 142A, 142B – Indicator lights

[0105] 142A”, 142B” – Indicator lights; 143A, 143B – Indicator notches

[0106] 143A”, 143B” – Indicator gaps; 145”, 145” – Indicator gaps

[0107] 11A, 11A' – Insulation board; 111A, 111A', 111B – Socket sleeve

[0108] 111A”, 111B” – Socket socket sleeves; 112A, 112A', 112B – Conductive socket sleeves

[0109] 112A”, 112B” – Conductive sockets; 12A, 12B – Protective doors

[0110] 121A, 121B – Protective door sockets; 122A, 122B – First shielding part

[0111] 123A, 123B – Second shielding part; 1111A, 1111B – L-pole socket.

[0112] 1111A'–L pole socket 1111A”, 1111B”–L pole socket

[0113] 1112A, 1112A', 1112B – N-pole socket; 1112A”, 1112B” – N-pole socket

[0114] 1113A, 1113A', 1113B – E-pole socket; 1113A”, 1113B” – E-pole socket

[0115] 1121A, 1121A' – First conductive socket; 1122A, 1122A' – Second conductive socket 1121A” – First conductive socket; 1122A” – Second conductive socket

[0116] 11B, 11B” – Insulation board; 113B – First PCB board

[0117] 114B – Second PCB board; 115B – Pin

[0118] 115B” – Pin; 116B, 116B” – WiFi Smart Module 15B, 15B” – Pushbuttons; 16B, 16B” – Switching elements

[0119] 117B” – First PCB board; 118B” – Second PCB board

[0120] 2, 2' – Base 21 – Fixing Slot

[0121] 21' – Fastener 22 – Fastener

[0122] 22' - Mounting channel 23 - Screw

[0123] 3, 3' – Connector; 4, 4', 4” – Rotating power-on assembly

[0124] 41, 41A, 41B, 41C – Active rotating components

[0125] 41”, 41A”, 41B”, 41C” – Active rotating component

[0126] 410, 410A – End 410”, 410A” – End

[0127] 411, 411” – End units 410B, 410C – First active rotating component 410B”, 410C” – First active rotating component; 4100B, 4100C – End units

[0128] 4100B”, 4100C” – End units 411B, 411C – Second active rotating component 411B”, 411C” – Second active rotating component; 4110B, 4110C – End piece

[0129] 4110B”, 4110C” – end; 4111C, 4111C” – end

[0130] 412, 411A, 4101B, 4101C – First Rotational Protrusion

[0131] 412”, 411A”, 4101B”, 4101C” – First Rotational Protrusion

[0132] 413, 412A, 4111B, 4112C – Second Rotary Protrusion

[0133] 413”, 412A”, 4111B”, 4112C” – Second Rotational Protrusion

[0134] 414, 413A, 4112B, 4113C – Third Rotational Protrusion

[0135] 414”, 413A”, 4112B”, 4113C” – Third Rotational Protrusion

[0136] 415, 414A, 4113B, 4114C – First contact section

[0137] 415”, 414A”, 4113B”, 4114C” – First abutment

[0138] 416, 415A, 4114B, 4115C – Second Abutment Section

[0139] 416”, 415A”, 4114B”, 4115C” – Second abutment

[0140] 417, 417” – Third abutment part; 42, 42A – Passive rotating part

[0141] 43”, 43A” – Passive connectors; 420, 420A – Passive rotating body

[0142] 420' – ​​lever; 430”, 430A” – lever

[0143] 421, 421' – Conductive arm 431” – Conductive arm

[0144] 421a – First conductive arm; 421b – Second conductive arm

[0145] 4211 – N-terminal conductive sheet; 4212 – L-terminal conductive sheet

[0146] 4213', 4214' – Fixed connection ends; 422, 422A – Actuating components

[0147] 422B – Back-facing toggle; 432”, 432A” – Paddle

[0148] 432B” – Back-facing paddle; 5, 5A, 5B – Flexible elastic element

[0149] 5', 5A', 5B' – Irregularly shaped circlips; 51, 51A, 51B – Free ends

[0150] 51', 51A', 51B' - First fixed end; 52', 52A', 52B' - Second fixed end 52, 52A, 52B – Fixed end 6 – Limiting spring

[0151] 6' – First spring; 61' – Free end of spring

[0152] 6S – Return spring; 6S' – Second spring

[0153] 7, 7' – E-polar conductive element; 71 – conductive element spring.

[0154] 71'-Elastic element; 72'-Annular boss

[0155] 8, 8' – Card slot; 9, 9" – Locking bracket

[0156] 9' – Locking assembly 91, 91” – Locking part

[0157] 91' – Locking part 911, 911” – Locking end

[0158] 912, 912” – Penetrating body 92 – Connecting part

[0159] 92” – Loop; 93, 93” – First extension arm

[0160] 94, 94” – Second extension arm; 95, 95” – Torsional elastic element

[0161] 96 – Reset section 96” – First compression section

[0162] 961 – Connecting Plate 961” – Connecting Plate

[0163] 962 – Spring seat 962” – Positioning post

[0164] P1, P1' – First restricted site; P2, P2' – Second restricted site P3, P3' – Third limiting point; S1 – First accommodating space S2 – Second accommodating space; S3 – Clearance groove

[0165] S1' - Conductive arm groove S2' - Lever groove

[0166] S3' – Clearance groove; S4 – Reset space

[0167] S4' – Installation Channel CT – Conductive Rail

[0168] G – Slot CS – Track Conductive Sheet Detailed Implementation

[0169] To make the objectives, technical solutions, and advantages of this utility model clearer, the present utility model will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that references to "an embodiment," "embodiment," "example embodiment," etc., in the specification refer to the described embodiment including specific features, structures, or characteristics, but not necessarily including these specific features, structures, or characteristics. Furthermore, such expressions do not refer to the same embodiment. Moreover, when describing specific features, structures, or characteristics in conjunction with embodiments, whether or not explicitly described, it is indicated that incorporating such features, structures, or characteristics into other embodiments is within the knowledge scope of those skilled in the art.

[0170] It should be noted that in this specification, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Certain terms are used in the specification and subsequent claims to refer to specific modules, components, or parts. Those skilled in the art will understand that users or manufacturers may use different names or terms to refer to the same module, component, or part. This specification and subsequent claims do not distinguish modules, components, or parts by differences in name, but by differences in function. The terms "comprising" and "including" used throughout the specification and subsequent claims are open-ended and should be interpreted as "including but not limited to." Furthermore, the term "connection" here includes any direct and indirect electrical connection means. Indirect electrical connection means include connections via other means.

[0171] Furthermore, in the following description and claims, many terms will be used, which should be defined as having the following meanings. The singular forms “a” and “described” include plural referents unless the context clearly specifies otherwise. “Preferred” or “preferred” indicates that the event or situation described below may or may not occur, and the description includes both the case where the event occurs and the case where the event does not occur. In the description of this utility model, terms such as “lateral,” “longitudinal,” “up,” “down,” “front,” “rear,” “left,” “right,” “vertical,” “horizontal,” “top,” “bottom,” “inner,” “outer,” and “about,” or “approximately,” “substantially,” “left and right,” etc., indicating orientation or positional relationships or parameters, are based on the orientation or positional relationships shown in the drawings, and are only for the convenience of describing this utility model and simplifying the description. They do not indicate or imply that the device or element referred to must have a specific orientation, a specific size, or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of this utility model.

[0172] The core of this utility model lies in providing a track socket that, while realizing the basic functions of power supply and power disconnection, further improves the ease of use and safety of the track socket. At the same time, it increases the contact distance between the conductive arm and the conductive sheet in the conductive track, enhances the connection stability between the conductive arm and the conductive track, improves the safety of the track socket, and extends the service life of the track socket.

[0173] Please see Figures 1 to 4 , Figure 1 This is a front view of a track socket adapter according to an embodiment of the present invention. Figure 2 for Figure 1 The left view of the track socket adapter in the illustrated embodiment is shown. Figure 3 for Figure 1 The right view of the track socket adapter in the illustrated embodiment is shown. Figure 4 for Figure 1 The illustrated embodiment shows a schematic diagram of the internal structure of the track socket adapter in a power-off state.

[0174] This utility model provides a track socket, including an adapter with a plug-in structure. The adapter includes a rotating outer shell 1 and a base 2. The rotating outer shell 1 is rotatably fitted onto the base 2. A plug-in component 3 is fixedly connected to the bottom of the base 2. The rotating outer shell 1 is provided with a rotating power-on assembly 4 electrically connected to the plug-in structure and a drive assembly for driving the rotating power-on assembly 4 to rotate. The rotating power-on assembly 4 includes a conductive arm 421 movably connected to an external conductive track. The conductive arm 421 is rotatably connected to the plug-in component 3 on the side facing away from the plug-in structure. The drive assembly drives the conductive arm 421 to retract or unfold relative to the plug-in component 3. The unfolding angle of the conductive arm 421 is an acute angle, and the openings of the unfolding angles of the conductive arm 421 are the same. The rotating power-on assembly 4 includes a drive assembly, which further includes:

[0175] The active rotating component 41 is fixedly connected to the rotating housing 1; and,

[0176] A passive rotating component 42 is disposed through the base 2 and electrically connected to the plug-in structure. The passive rotating component 42 includes a passive rotating body 420 and a conductive arm 421 connected to the passive rotating body 420. The conductive arm 421 is located at the plug-in component 3.

[0177] The active rotating component 41 drives the passive rotating body 420 to rotate, so that the conductive arm 421 is in a retracted or extended state relative to the plug-in component 3.

[0178] In one specific embodiment, such as Figures 1 to 3 As shown, the track socket provided by this utility model includes an adapter with a plug-in structure. The plug-in structure is disposed within the adapter and will be described in detail later, so it will not be repeated here. The adapter includes a rotating outer shell 1 and a base 2. The rotating outer shell 1 is rotatably fitted onto the base 2 and can rotate clockwise or counterclockwise relative to the base 2. A plug-in 3 is disposed below the base 2 and is fixedly connected to the base 2. Please refer to the following references. Figure 4The rotating outer shell 1 is equipped with a rotating power-on component 4 electrically connected to the socket structure, and a drive component for driving the rotating power-on component 4 to rotate. The socket structure is located on the rotating power-on component 4. The specific structure of the drive component will be described in detail later and will not be repeated here. The rotating power-on component 4 also includes a conductive arm 421, which is movably connected to the conductive rail outside the track socket. The track socket can be powered on or off by the conductive arm 421 contacting or not contacting the conductive rail. Specifically, the conductive arm 421 is rotatably connected to the side of the connector 3 facing away from the socket structure, that is, the conductive arm 421 is located on the side of the connector 3 away from the base 2. The conductive arm 421 can rotate relative to the connector 3 to realize the power supply or de-energization of the track socket. The driving component drives the conductive arm 421 to retract or extend relative to the connector 3. When the conductive arm 421 is in the retracted state, the track socket is in a de-energized state; when the conductive arm 421 is in the extended state, the track socket is in a energized state. The extension angle of the conductive arm 421 is an acute angle, and the openings of the extension angles of the conductive arm 421 are the same. It should be noted that "the openings of the extension angles of the conductive arm 421 are the same" means that the opening angles are the same and the directions of the openings are the same, or that the opening angles are different but the directions of the openings are the same. This utility model is not limited to this.

[0179] Furthermore, the rotating power-on component 4 includes a drive component, which further includes an active rotating component 41 fixedly connected to the rotating housing 1, and a passive rotating component 42 that penetrates the base 2 and is electrically connected to the socket structure. The passive rotating component 42 includes a passive rotating body 420, which penetrates the base 2. The upper part of the passive rotating body 420 is electrically connected to the socket structure, and the lower part of the passive rotating body 420 is located at the plug-in component 3. The passive rotating component 42 also includes a conductive arm 421 connected to the passive rotating body 420, which is located at the plug-in component 3. By rotating the rotating housing 1, the user can rotate the active rotating component 41, which in turn drives the passive rotating body 420 to rotate, causing the conductive arm 421 to be in a retracted or extended state relative to the plug-in component 3. When the conductive arm 421 is in the retracted state, the track socket is in a de-energized state. When the conductive arm 421 is in the extended state, the track socket is in a energized state. Figures 1 to 3 The diagram shown is a schematic of the conductive arm 421 in a retracted state relative to the connector 3.

[0180] In this embodiment of the invention, by setting a rotating outer shell 1 and a rotating power-on component 4, the traditional button switch structure is eliminated, and power is supplied and disconnected by rotation, providing a more convenient way to use the device. Furthermore, the rotation operation results in a more uniform pressure distribution on the base 2. Compared to the wear and tear caused by the pressure and frequency of pressing in a traditional button switch structure, the rotation operation of the rotating outer shell 1 and the rotating power-on component 4 can extend the service life of the track socket. In addition, the rotation operation requires the user to apply a certain amount of force or a precise rotation angle to operate, avoiding the risk of accidental activation or activation by children, further improving safety. Moreover, by setting the same opening angle for the conductive arms 421, the conductive arms 421 extending in the same direction increase their contact distance with the conductive plates in the conductive track, while simultaneously forming a stable triangular connection between the connector 3 and the conductive arms 421, enhancing the connection stability between the conductive arms 421 and the conductive track, further improving the safety of the track socket.

[0181] In a preferred embodiment, the active rotating components 41 and 41A are an integral structure, and the active rotating components 41 and 41A have at least one end that is fixedly connected to the rotating housing 1.

[0182] Please refer to the following: Figure 4 In one specific embodiment, the active rotating member 41 is an integral structure with two ends fixedly connected to the rotating housing 1. Specifically, one end 411 located on the left side of the active rotating member 41 is fixedly connected to the rotating housing 1, while the other end 410 located on the right side of the active rotating member 41 is fixedly connected to the rotating housing 1.

[0183] Please see Figure 5 , Figure 5 This is a schematic diagram of the internal structure of the track socket adapter in a power-off state according to another embodiment of the present invention. In one specific embodiment, the active rotating member 41A is an integral structure and has an end 410A that is fixedly connected to the rotating housing 1.

[0184] In a preferred embodiment, the active rotating components 41B and 41C include at least a first active rotating component 410B and 410C and a second active rotating component 411B and 411C. The first active rotating component 410B and 410C and the second active rotating component 411B and 411C are separate structures. One end of the first active rotating component 410B and 410C and at least one end of the second active rotating component 411B and 411C are respectively fixedly connected to the rotating housing 1.

[0185] Please see Figure 6 , Figure 6This is a schematic diagram of the internal structure of the track socket adapter in a power-off state according to another embodiment of the present invention. In one specific embodiment, the active rotating member 41B includes a first active rotating member 410B and a second active rotating member 411B, which are separate structures. Specifically, one end 4100B of the first active rotating member 410B is fixedly connected to the rotating housing 1 and disposed on the left side of the rotating housing 1, and one end 4110B of the second active rotating member 411B is fixedly connected to the rotating housing 1 and disposed on the right side of the rotating housing 1.

[0186] Please see Figure 7 , Figure 7 This is a schematic diagram of the internal structure of the track socket adapter in a power-off state according to another embodiment of the present invention. In a specific embodiment, the active rotating component 41C includes a first active rotating component 410C and a second active rotating component 411C, which are separate structures. Specifically, one end 4100C of the first active rotating component 410C is fixedly connected to the rotating housing 1 and is located on the left side of the rotating housing 1. The second active rotating component 411C has two ends 4110C and 4111C, which are respectively fixedly connected to the rotating housing 1. The end 4111C of the second active rotating component 411C is located on the front side of the rotating housing 1, and the end 4110C of the second active rotating component 411C is located on the right side of the rotating housing 1. It should be noted that the positions where the active rotating components 41, 41A, 41B, and 41C are fixedly connected to the rotating housing 1 can also be other, and the present invention is not limited thereto.

[0187] In this embodiment of the utility model, by using different structures of the active rotating components 41, 41A, 41B, and 41C and their fixed connection methods with the rotating housing 1, the internal space structure of the rotating housing 1 can be further optimized, so that the rotating power-on component 4 can be adapted to different adapter structures, thereby improving the applicability of the rotating power-on component 4.

[0188] In a preferred embodiment, the active rotating components 41, 41A, 41B, and 41C are provided with first rotating protrusions 412, 411A, 4101B, and 4101C and second rotating protrusions 413, 412A, 4111B, and 4112C. The active rotating components 41, 41A, 41B, and 41C drive the passive rotating body 420 to rotate through the first rotating protrusions 412, 411A, 4101B, and 4101C and the second rotating protrusions 413, 412A, 4111B, and 4112C, thereby causing the conductive arm 421 to rotate.

[0189] like Figures 4 to 7In the illustrated embodiment, the active rotating components 41, 41A, 41B, and 41C are provided with first rotating protrusions 412, 411A, 4101B, and 4101C and second rotating protrusions 413, 412A, 4111B, and 4112C corresponding to the passive rotating body 420. When the user rotates the rotating outer shell 1, the active rotating components 41, 41A, 41B, and 41C rotate with the rotating outer shell 1, and then drive the passive rotating body 420 to rotate through the first rotating protrusions 412, 411A, 4101B, and 4101C and the second rotating protrusions 413, 412A, 4111B, and 4112C, so that the conductive arm 421 is in a retracted or extended state relative to the plug-in 3.

[0190] In a preferred embodiment, the base 2 is further provided with flexible elastic members 5, 5A, and 5B, each with one end being a free end 51, 51A, and 51B and the other end being a fixed end 52, 52A, and 52B. The flexible elastic members 5, 5A, and 5B are provided with limiting points corresponding to the stored state and the unfolded state. In addition, the active rotating members 41, 41A, 41B, and 41C are also provided with third rotating protrusions 414, 413A, 4112B, and 4113C, which abut against one side of the flexible elastic members 5, 5A, and 5B.

[0191] like Figures 4 to 7 In the illustrated embodiment, the base 2 is further provided with flexible elastic elements 5, 5A, and 5B. Each flexible elastic element 5, 5A, and 5B has a fixed end 52, 52A, and 52B fixedly mounted on the base 2, and a free end 51, 51A, and 51B located on the base 2. The active rotating elements 41, 41A, 41B, and 41C are also provided with third rotating protrusions 414, 413A, 4112B, and 4113C, which abut against one side of the flexible elastic elements 5, 5A, and 5B. When the rotating outer shell 1 is rotated, causing the active rotating components 41, 41A, 41B, and 41C to rotate, the third rotating protrusions 414, 413A, 4112B, and 4113C slide along one side of the flexible elastic components 5, 5A, and 5B. The flexible elastic components 5, 5A, and 5B are provided with limiting points corresponding to the retracted and unfolded states. When the third rotating protrusions 414, 413A, 4112B, and 4113C slide between the limiting points of the flexible elastic components 5, 5A, and 5B, the active rotating components 41, 41A, 41B, and 41C drive the passive rotating body 420 to rotate, so that the conductive arm 421 is in the retracted or unfolded state relative to the plug-in component 3.

[0192] In a preferred embodiment, the flexible elastic elements 5, 5A, and 5B are irregularly shaped retaining rings, and the base 2 is also provided with a fixing groove 21, and the fixing ends 52, 52A, and 52B of the irregularly shaped retaining rings are fixed on the fixing groove 21.

[0193] like Figures 4 to 7 In the illustrated embodiment, the flexible elastic elements 5, 5A, and 5B are irregularly shaped retaining springs with a plate-like structure. The base 2 is also provided with an L-shaped fixing groove 21, and the fixing ends 52, 52A, and 52B of the irregularly shaped retaining springs are L-shaped and fixed in the fixing groove 21. It should be noted that the shape of the irregularly shaped retaining spring and the shape of the fixing groove 21 can also be other than these, and this invention is not limited thereto.

[0194] In a preferred embodiment, the irregularly shaped snap ring has a first limiting point P1, a second limiting point P2, and a third limiting point P3, with the second limiting point P2 located between the first limiting point P1 and the third limiting point P3; wherein, when the third rotating protrusions 414, 413A, 4112B, and 4113C abut against the first limiting point P1, the conductive arm 421 rotates to a first angular position, which corresponds to the retracted state of the conductive arm 421; and, when the third rotating protrusions 414, 413A, 4112B, and 4113C abut against the third limiting point P3, the conductive arm 421 rotates to a second angular position, which corresponds to the unfolded state of the conductive arm 421.

[0195] Please see Figure 8 , Figure 8 This is a schematic diagram of a flexible elastic element according to an embodiment of the present invention. In one specific embodiment, the flexible elastic element 5B is an irregularly shaped retaining ring and has a first limiting point P1, a second limiting point P2, and a third limiting point P3, wherein the second limiting point P2 is located between the first limiting point P1 and the third limiting point P3. Please refer to the following references. Figure 7When the third rotating protrusion 4113C abuts against the first limiting point P1, the conductive arm 421 rotates to the first angular position, which corresponds to the retracted state of the conductive arm 421, i.e., the conductive arm 421 is in the retracted state and the track socket is in the de-energized state. As the rotating housing 1 is rotated clockwise, the third rotating protrusion 4113C slides along one side of the flexible elastic member 5B to the second limiting point P2, where the resistance encountered by the third rotating protrusion 4113C is the greatest. When the rotating housing 1 is rotated clockwise again, the third rotating protrusion 4113C slides past the second limiting point P2 to the third limiting point P3, and the active rotating member 41C drives the passive rotating body 420 to rotate, thereby causing the conductive arm 421 to rotate to the second angular position, which corresponds to the unfolded state of the conductive arm 421, i.e., the conductive arm 421 is in the unfolded state and the track socket is in the energized state. When rotating the outer casing 1 to rotate the conductive arm 421 from the unfolded state to the retracted state, the above operation can be reversed, which will not be described in detail here. Furthermore, Figures 4 to 6 In the embodiment shown, the third rotating protrusions 414, 413A, and 4112B of the active rotating members 41, 41A, and 41B cooperate with the flexible elastic members 5, 5A, and 5B in the same way as described above, and will not be repeated here.

[0196] In a preferred embodiment, the base 2 is also provided with a limiting spring 6 and a fixing member 22 for fixing the limiting spring 6. One end of the limiting spring 6 is fixed to the fixing member 22, and the other end of the limiting spring 6 abuts against the other side of the flexible elastic members 5, 5A, and 5B.

[0197] like Figures 4 to 7 In the illustrated embodiment, the fixing member 22 is a fixing post, and one end of the limiting spring 6 is sleeved and fixed on the fixing member 22. The other end of the limiting spring 6 abuts against the other side of the flexible elastic members 5, 5A, and 5B. When the third rotating protrusions 414, 413A, 4112B, and 4113C slide along one side of the flexible elastic members 5, 5A, and 5B, the limiting spring 6 provides a resistance. It should be noted that the shape of the fixing member 22 can also be other than that, and this utility model is not limited thereto.

[0198] In this embodiment of the utility model, through the third rotating protrusions 414, 413A, 4112B, and 4113C of the active rotating components 41, 41A, 41B, and 41C, and the flexible elastic components 5, 5A, and 5B disposed on the base 2, when the rotating housing 1 is rotated to make the conductive arm 421 rotate between the retracted and unfolded states, the resistance encountered by the third rotating protrusions 414, 413A, 4112B, and 4113C at the second limiting point P2 can prevent the track socket from being opened or closed due to accidental opening or contact, thus avoiding safety hazards. Only when the user actively applies force to rotate the rotating housing 1 can the third rotating protrusions 414, 413A, 4112B, and 4113C overcome the resistance encountered at the second limiting point P2, thereby improving the safety of the track socket. When the flexible elastic components 5, 5A, and 5B are irregularly shaped springs, they can also increase the user's feel when rotating. Furthermore, by providing a limiting spring 6 on the opposite side of the flexible elastic elements 5, 5A, 5B and the third rotating protrusions 414, 413A, 4112B, 4113C, the resistance experienced by the third rotating protrusions 414, 413A, 4112B, 4113C at the second limiting point P2 can be further increased, preventing children from accidentally opening or touching the device, while also further enhancing the user's tactile experience.

[0199] In a preferred embodiment, the passive rotating body 420 is a lever, the upper part of which is located inside the rotating housing 1, and the lower part of which is located at the plug-in 3 and fixedly connected to the conductive arm 421; wherein, the upper part of the lever is also provided with a toggle member 422, and the active rotating members 41, 41A, 41B, and 41C drive the lever to rotate through the toggle member 422.

[0200] Please see Figures 1 to 4 , Figures 6 to 7 as well as Figure 9 , Figure 9This is a schematic diagram of a passive rotating body according to an embodiment of the present invention. In one specific embodiment, the passive rotating body 420 is a lever. The upper part of the lever is located inside the rotating housing 1 and is used for electrical connection with the socket structure. The lower part of the lever is located at the plug-in 3 and is fixedly connected to the conductive arm 421. Specifically, the extension direction of the lever is perpendicular to the extension direction of the conductive track, so that when the track socket is inserted into the conductive track, the lever is inserted vertically into the conductive track. In addition, the upper part of the lever is also provided with an actuating element 422. The actuating element 422 is an A-shaped lever perpendicular to the lever. The actuating element 422 is located inside the rotating housing 1 and cooperates with the active rotating elements 41, 41B, and 41C to rotate the conductive arm 421. Furthermore, when the rotating outer shell 1 is rotated, the first rotating protrusions 412, 4101B, 4101C and the second rotating protrusions 413, 4111B, 4112C of the active rotating components 41, 41B, 41C rotate with the rotating outer shell 1, thereby driving the actuating component 422 to rotate. Simultaneously, the actuating component 422 drives the passive rotating body 420 to rotate, causing the conductive arm 421 to rotate between a retracted state and an extended state. It should be noted that the shape of the actuating component 422 can also be other than this, and this invention is not limited thereto.

[0201] In a preferred embodiment, the upper part of the lever is further provided with a back-facing actuating member 422B. The actuating member 422A and the back-facing actuating member 422B are arranged back-to-back with respect to the lever. The active rotating member 41A drives the lever to rotate through the actuating members 422A, 422A and the back-facing actuating member 422B.

[0202] Please refer to the following: Figure 5 and Figure 9In one specific embodiment, the difference from the above embodiment is that the active rotating member 41A is an integral structure with an end 410A fixedly connected to the rotating housing 1. Furthermore, similar to the above embodiment, the passive rotating body 420A of the passive rotating member 42A is a lever. The upper part of the lever is located inside the rotating housing 1 and is used for electrical connection with the plug-in structure. The lower part of the lever is located at the plug-in 3 and is fixedly connected to the conductive arm 421. An actuating element 422A is provided on the upper part of the lever. To enable the active rotating member 41A to drive the passive rotating bodies 420 and 420A to rotate, the difference from the above embodiment is that a back-facing actuating element 422B is also provided on the upper part of the lever of the passive rotating member 42A. The actuating element 422A and the back-facing actuating element 422B are arranged back-to-back with respect to the lever. Specifically, when the rotating outer shell 1 is rotated, the first rotating protrusion 411A and the second rotating protrusion 412A of the active rotating member 41A rotate with the rotating outer shell 1. Then, the first rotating protrusion 411A drives the back-facing actuating member 422B of the passive rotating member 42A to rotate, and the second rotating protrusion 412A drives the actuating member 422 of the passive rotating member 42 to rotate. Simultaneously, the actuating member 422 and the back-facing actuating member 422B drive their respective passive rotating bodies 420 and 420A to rotate, causing the conductive arm 421 to rotate between a retracted state and an extended state. The back-facing actuating member 422B consists of two obtuse-angled paddles perpendicular to the lever, and the actuating member 422A is an A-shaped paddle perpendicular to the lever, but this invention is not limited to these specific features. It should be noted that the structures of the passive rotating components 42 and 42A in the above embodiments can be configured to be the same or different from the structures of the active rotating components 41, 41A, 41B, and 41C, so that the active rotating components 41, 41A, 41B, and 41C can drive the passive rotating body 420 to rotate. Furthermore, as... Figure 4 , Figure 6 and Figure 7 As shown, this utility model can be equipped with a passive rotating component 42 with the same structure; as Figure 5 As shown, the present invention can be provided with passive rotating member 42 and passive rotating member 42A with different structures; in addition, the present invention can also be provided with passive rotating member 42A with the same structure, the first rotating protrusion 411A of the active rotating member 41A drives the back-facing actuating member 422B to rotate, and the second rotating protrusion 412A of the active rotating member 41A drives the actuating member 422A to rotate, the present invention is not limited thereto.

[0203] In this embodiment of the utility model, by setting a passive rotating body 420 and a toggle member 422 that rotate in coordination with the active rotating members 41, 41A, 41B, and 41C, the passive rotating member 42 can be adapted to the structure of different active rotating members, further optimizing the internal structural arrangement and space of the rotating housing 1. According to actual application requirements, different components can be added inside the rotating housing 1 in coordination with different active rotating member structures, further improving the applicability of the track socket.

[0204] In a preferred embodiment, the adapter further includes an E-polar conductive element 7 disposed on the base 2, the E-polar conductive element 7 passing through the base 2 and the connector 3 in a direction parallel to the rotation axis of the rotating housing 1 and extending out of the connector 3 in a direction away from the base 2.

[0205] Please see Figures 1 to 4 as well as Figure 10 , Figure 10 This is a schematic diagram of an E-polar conductive element according to an embodiment of the present invention. In one specific embodiment, an E-polar conductive element 7 is further provided on the base 2. The E-polar conductive element 7 penetrates the base 2 and the connector 3 along a direction parallel to the rotation axis of the rotating housing 1 and extends out of the connector 3 in a direction away from the base 2. Specifically, in this embodiment of the present invention, the E-polar conductive element 7 penetrates the base 2 and the connector 3 in a direction perpendicular to the base 2. When the connector 3 is inserted into the conductive rail, the E-polar conductive element 7 is used to connect with the grounding wire in the conductive rail to prevent electrical leakage and electric shock hazards, and to ensure electrical safety. Furthermore, as... Figure 10 As shown, the upper part of the E-polar conductive element 7 is located inside the rotating outer shell 1 and has a cylindrical structure, while the lower part of the E-polar conductive element 7 extends out of the plug-in element 3 and has a cuboid structure. The structure of the E-polar conductive element 7 in this embodiment facilitates the electrical connection between its upper part and the plug-in structure, as well as the insertion of its lower part into the conductive track for connection with the grounding wire, but this utility model is not limited thereto.

[0206] In a preferred embodiment, the conductive arm 421 includes at least a first conductive arm 421a and a second conductive arm 421b, which are asymmetrically arranged with respect to the E-polar conductive element 7.

[0207] Please see Figures 1 to 4In one specific embodiment, there are two passive rotating members 42 and two conductive arms 421, including a first conductive arm 421a and a second conductive arm 421b. The first conductive arm 421a and the second conductive arm 421b are asymmetrically arranged with respect to the E-polar conductive member 7. The first conductive arm 421a is provided with an N-polar conductive sheet 4211, and the second conductive arm 421b is provided with an L-polar conductive sheet 4212. When the track socket is inserted into the conductive track, the first conductive arm 421a and the second conductive arm 421b are inserted into the conductive track together with the connector 3. Then, when the rotating housing 1 is rotated to make the first conductive arm 421a and the second conductive arm 421b in the unfolded state, the N-pole conductive piece 4211 and the L-pole conductive piece 4212 are connected to the neutral wire and the live wire in the conductive track to draw power. When the rotating housing 1 is rotated in the opposite direction to make the first conductive arm 421a and the second conductive arm 421b in the retracted state, the N-pole conductive piece 4211 and the L-pole conductive piece 4212 are disconnected from the neutral wire and the live wire in the conductive track to cut off the power.

[0208] Please refer to the following: Figure 11 , Figure 11 for Figure 1 A bottom view of the track socket adapter in the illustrated embodiment. Further, as... Figure 11 As shown, when the first conductive arm 421a and the second conductive arm 421b are in the unfolded state, the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 unfold towards different sides of the connector 3, and the opening directions of the unfolding angles of the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are the same. The unfolding angles of the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are acute angles.

[0209] In this embodiment of the invention, by setting the opening direction of the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 to be the same, the first conductive arm 421a and the second conductive arm 421b, which extend in the same direction, increase the contact distance between the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 and the conductive track. Simultaneously, the asymmetrical arrangement of the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 not only meets the creepage distance requirements between the electrodes but also allows for a more concentrated arrangement of the rotating power-on component 4. This makes the arrangement of internal components and assemblies of the track socket more flexible and convenient, while also reducing the size of the socket. This avoids the problems of existing track sockets where the passive rotating component 42 and the conductive arm 421 are centrally located through the middle of the connector 3, or symmetrically arranged on both sides of the connector 3 close to its edges, resulting in an excessively large socket size and easy wear during use.

[0210] In a preferred embodiment, the connector 3 is further provided with a first accommodating space S1 for accommodating the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212. When the conductive arm 421 is in a retracted state relative to the connector 3, the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are respectively retracted into the first accommodating space S1.

[0211] Please refer to Figures 1 to 3 The connector 3 has a first accommodating space S1 corresponding to the N-pole conductive piece 4211 and the L-pole conductive piece 4212, for accommodating the N-pole conductive piece 4211 and the L-pole conductive piece 4212 when the first conductive arm 421a and the second conductive arm 421b are in a retracted state relative to the connector 3. Furthermore, the connector 3 also has a second accommodating space S2 corresponding to the passive rotating body 420, the first conductive arm 421a, and the second conductive arm 421b. The second accommodating space S2 is used to accommodate the passive rotating body 420, which rotates within the second accommodating space S2. When the first conductive arm 421a and the second conductive arm 421b are in a retracted state relative to the connector 3, the second accommodating space S2 is used to accommodate the first conductive arm 421a and the second conductive arm 421b. The first accommodating space S1 and the second accommodating space S2 may or may not penetrate the connector 3; this invention is not limited to this.

[0212] In this embodiment of the utility model, by setting a first accommodating space S1 and a second accommodating space S2, the passive rotating body 420, the first conductive arm 421a, the second conductive arm 421b, the N-pole conductive plate 4211 and the L-pole conductive plate 4212 do not protrude from both sides of the plug-in 3 when they are in the storage state. This facilitates the insertion of the plug-in 3 into the conductive track and avoids the N-pole conductive plate 4211 and the L-pole conductive plate 4212 accidentally touching the neutral wire and the live wire during the insertion process, which could lead to accidental conduction and safety hazards.

[0213] In a preferred embodiment, the adapter further includes a locking bracket 9 disposed on the base 2, the locking bracket 9 comprising:

[0214] The locking part 91 extends through the base 2 along the rotation axis parallel to the rotating housing 1 and is located on the conductive arm 421; wherein, when the active rotating members 41, 41A, 41B, and 41C drive the locking bracket 9 to rotate, the locking part 91 is retracted or protruded relative to the plug member 3 so that the locking bracket 9 is unlocked or locked in the conductive track.

[0215] Please see Figures 1 to 4 as well as Figure 12 , Figure 12 for Figure 1The illustrated embodiment shows a schematic diagram of the structure on the base. In one specific embodiment, the adapter further includes a locking bracket 9 disposed on the base 2. Specifically, the base 2 is also provided with a locking bracket 9, which further includes a locking part 91. The locking part 91 extends through the base 2 along a direction parallel to the rotation axis of the rotating housing 1, and is located at the connector 3 and above the conductive arm 421. When the active rotating member 41 drives the locking bracket 9 to rotate, the locking part 91 retracts or protrudes relative to the connector 3, so that the locking bracket 9 is unlocked or locked in the conductive track, and the rotation of the locking part 91 does not interfere with the rotation of the conductive arm 421.

[0216] Furthermore, in one specific embodiment, the adapter further includes a retainer 8 disposed on the base 2. The retainer 8 extends through the base 2 along a direction parallel to the rotation axis of the rotating housing 1 and is located above the conductive arm 421. Specifically, the retainer 8 is disposed perpendicularly through the base 2, but this utility model is not limited thereto. The retainer 8 is used to support and mount the passive rotating member 42 on the base 2, and at least a portion of the passive rotating member 42 is disposed on the retainer 8. It should be noted that, as Figure 12 As shown, there can be two card holders 8 on the base 2, each used to support and install two passive rotating parts 42. At least a portion of the locking bracket 9 can also be mounted on one of the card holders 8, which also supports and installs the locking bracket 9 on the base 2. Alternatively, only one card holder 8 can be provided to support and install the locking bracket 9 and one of the passive rotating parts 42; this invention is not limited to this. During installation, the card holder 8 is first installed on the passive rotating part body 420 of the passive rotating part 42, and the card holder 8 is installed between the conductive arm 421 and the actuating member 422. Then, the card holder 8 and the passive rotating part 42 are connected together and mounted on the base 2. Finally, the locking bracket 9 is mounted on the base 2.

[0217] In a preferred embodiment, the locking bracket 9 further includes a first extension arm 93 and a second extension arm 94 respectively disposed on both sides of the connecting portion 92, wherein the first extension arm 93 and the second extension arm 94 are respectively provided with locking portions 91 facing opposite directions. The locking portions 91 of the first extension arm 93 and the second extension arm 94 are either retracted or protruded relative to the connector 3.

[0218] Please see Figure 13 and Figure 14 , Figure 13 This is a front view of a locking bracket according to an embodiment of the present invention. Figure 14This is a perspective view of a locking bracket according to an embodiment of the present invention. In one specific embodiment, the locking bracket 9 includes a connecting portion 92, a first extension arm 93, and a second extension arm 94. The first extension arm 93 and the second extension arm 94 are respectively connected to the connecting portion 92 and disposed on both sides of the connecting portion 92. The connecting portion 92, the first extension arm 93, and the second extension arm 94 of the locking bracket 9 are disposed on the base 2 and located inside the rotating housing 1. The first extension arm 93 and the second extension arm 94 are respectively provided with locking portions 91 facing opposite directions. Please refer to the following... Figures 2 to 3 as well as Figures 11 to 12 When the active rotating member 41 drives the locking bracket 9 to rotate, the locking portions 91 of the first extension arm 93 and the second extension arm 94 protrude relative to the connector 3. The two locking portions 91 protrude towards different sides of the connector 3, and the protruding openings face opposite directions, so that the locking bracket 9 is locked in the conductive track. When the active rotating member 41 drives the locking bracket 9 to rotate in the opposite direction, the locking portions 91 of the first extension arm 93 and the second extension arm 94 retract relative to the connector 3, so that the locking bracket 9 is unlocked from the conductive track. Furthermore, in another embodiment of the present invention, at least a portion of the locking bracket 9 is disposed on one of the card seats 8. When the active rotating member 41 drives the locking bracket 9 to rotate, the locking portion 91 of the first extension arm 93 protrudes relative to the connector 3, and the locking portion 91 of the second extension arm 94 protrudes relative to its corresponding card seat 8. When the active rotating component 41 drives the locking bracket 9 to rotate in the opposite direction, the locking part 91 of the first extension arm 93 is retracted relative to the plug-in component 3, and the locking part 91 of the second extension arm 94 is retracted relative to its corresponding card seat 8, so that the locking bracket 9 is unlocked from the conductive track. The angle of the protrusion of the two locking parts 91 is acute.

[0219] Please refer to the following: Figure 13 and Figure 14 The locking part 91 further includes a locking end 911 and a through body 912. The lower end of the through body 912 is connected to the locking end 911, and the upper end of the through body 912 penetrates the base 2. The first extension arm 93 and the second extension arm 94 are respectively provided with locking parts 91 facing opposite directions. The upper end of the through body 912 of one locking part 91 is connected to the first extension arm 93, and the upper end of the through body 912 of the other locking part 91 is connected to the second extension arm 94, but this invention is not limited thereto. Furthermore, the connector 3 also has a clearance groove S3 for accommodating the through body 912 and the locking end 911. When the locking part 91 is retracted relative to the connector 3, the through body 912 and the locking end 911 are retracted into the clearance groove S3. Please refer to [further details omitted]. Figure 2 and Figure 3Furthermore, in another embodiment of this utility model, at least a portion of the locking bracket 9 is disposed on one of the card seats 8. When the active rotating member 41 drives the locking bracket 9 to rotate, the locking part 91 of the first extension arm 93 protrudes or retracts relative to the plug-in member 3, and the locking part 91 of the second extension arm 94 protrudes or retracts relative to its corresponding card seat 8. The card seat 8 and the plug-in member 3 are respectively provided with clearance grooves S3 corresponding to the locking parts 91. When the locking part 91 of the first extension arm 93 is retracted relative to the plug-in member 3, and the locking part 91 of the second extension arm 94 is retracted relative to its corresponding card seat 8, the penetrating body 912 and the locking end 911 are retracted into the clearance groove S3, avoiding obstruction when the track socket is inserted into or removed from the conductive track. The clearance groove S3 may or may not penetrate the plug-in member 3 and the card seat 8; this utility model is not limited thereto.

[0220] In a preferred embodiment, a torsional elastic member 95 is further provided inside the connecting part 92. One end of the torsional elastic member 95 is fixedly mounted on the base 2, and the other end of the torsional elastic member 95 abuts against the first abutting parts 415, 414A, 4113B, and 4114C provided on the active rotating parts 41, 41A, 41B, and 41C. A reset part 96 is also provided on the first extension arm 93 or the second extension arm 94, facing opposite to the locking part 91. The active rotating parts 41, 41A, 41B, and 41C are also provided with second abutting parts 416, 415A, 4114B, and 4115C corresponding to the reset part 96. In addition, a reset spring 6S is also provided on the base 2. One end of the reset spring 6S is mounted on the reset part 96, and the other end of the reset spring 6S is mounted on the base 2.

[0221] Please see Figures 4 to 7 as well as Figures 12 to 14 In one specific embodiment, a torsional elastic element 95 is further provided inside the connecting portion 92 of the locking bracket 9. One end of the torsional elastic element 95 is fixedly mounted on the base 2, and the other end of the torsional elastic element 95 abuts against the first abutting portions 415, 414A, 4113B, and 4114C provided on the active rotating members 41, 41A, 41B, and 41C. Specifically, the torsional elastic element 95 is arranged around the E-polar conductive member 7, and the torsional elastic element 95 is a torsion spring, but this utility model is not limited thereto. A reset portion 96 is also provided on the second extension arm 94, facing opposite to the locking portion 91. The active rotating members 41, 41A, 41B, and 41C are also provided with second abutting portions 416, 415A, 4114B, and 4115C corresponding to the reset portion 96. In addition, a reset spring 6S is also provided on the base 2, with one end of the reset spring 6S mounted on the reset portion 96 and the other end of the reset spring 6S mounted on the base 2.

[0222] In a preferred embodiment, the reset part 96 further includes: a connecting plate 961, a spring seat 962 on the side of the connecting plate 961 facing the reset spring 6S, one end of the reset spring 6S being mounted on the spring seat 962; a reset space S4 for accommodating the reset spring 6S is also provided on the base 2; and a third abutment part 417 is provided on the active rotating member 41 corresponding to the first extension arm 93 and / or the second extension arm 94; wherein the active rotating member 41 drives the locking bracket 9 to rotate through the first abutment part 415, the second abutment part 416 and the third abutment part 417.

[0223] Please refer to the following: Figures 4 to 7 as well as Figures 13 to 14 In one specific embodiment, the reset part 96 further includes a connecting plate 961. When the outer casing 1 is rotated counterclockwise, the second abutting parts 416, 415A, 4114B, and 4115C drive the connecting plate 961 to rotate, thereby causing the locking bracket 9 to rotate and the locking part 91 to be housed relative to the plug-in part 3. The connecting plate 961 also has a spring seat 962 for mounting the reset spring 6S on the side facing the reset spring 6S. ​​The spring seat 962 has a cylindrical structure, and one end of the reset spring 6S is sleeved on the spring seat 962, but this invention is not limited thereto. Furthermore, the base 2 is also provided with a reset space S4 to accommodate the reset spring 6S. ​​Specifically, the reset space S4 is a spring mounting channel, and the other end of the reset spring 6S is disposed in the spring mounting channel, but this invention is not limited thereto. Please refer to further details. Figure 15 , Figure 15 for Figure 1 The illustrated embodiment shows a schematic diagram of the rotating housing and locking bracket. Furthermore, the active rotating member 41 is provided with a third abutment portion 417 corresponding to the second extension arm 94. When the user applies force to rotate the rotating housing 1 counterclockwise, the first abutment portion 415 of the active rotating member 41 drives one end of the torsional elastic member 95 to rotate counterclockwise, the second abutment portion 416 drives the connecting plate 961 to rotate counterclockwise, and the third abutment portion 417 drives the second extension arm 94 to rotate counterclockwise. This counteracts the torque of the torsional elastic member 95 and the elastic force of the return spring 6S, causing the locking portion 91 of the locking bracket 9 to be housed relative to the plug-in member 3, allowing the track socket to be inserted into or unlocked from the conductive track. When the track socket has been inserted into or removed from the conductive track, and the user stops applying force to rotate the outer casing 1, the locking bracket 9 rotates clockwise to reset due to the torque of the torsional elastic element 95 and the elastic force of the return spring 6S. ​​This causes the locking part 91 to protrude relative to the plug 3, locking the track socket in the conductive track or preventing it from being accidentally inserted into the conductive track and energized. It should be noted that the above specific embodiment is based on... Figure 4 , Figure 12 and Figure 15 The embodiments shown are illustrated below, while Figures 5 to 7The specific implementation methods and beneficial technical effects of the active rotating components 41A, 41B, 41C, the locking bracket 9, the return spring 6S, and the torsional elastic component 95 in the illustrated embodiment are the same as those described above, and will not be repeated here.

[0224] In this embodiment of the invention, by setting a locking bracket 9 and active rotating parts 41, 41A, 41B, and 41C that cooperate with the locking bracket 9, the track socket achieves the function of locking or unlocking with the conductive track by rotation. By eliminating the traditional button switch unlocking structure in existing track sockets, the operation logic of the track socket of this invention is simpler, the overall product is more integrated, and it can effectively prevent external debris from entering the body. In addition, by setting a torsion elastic part 95 and a return spring 6S to reset the locking bracket 9, the track socket can only be locked or unlocked when the user actively applies force to rotate the rotating shell 1. This avoids safety hazards caused by accidental touch or child misoperation, which could lead to the track socket being pulled out or accidentally inserted into the conductive track during use, thus further improving the safety protection of the track socket.

[0225] In a preferred embodiment, the socket structure further includes: a USB insulating plate 11 disposed on the base 2; and a USB circuit board 12 disposed on the USB insulating plate 11; wherein the USB circuit board 12 is provided with a conductive socket 121 corresponding to the passive rotating body 420, and the passive rotating body 420 is electrically connected to the conductive socket 121; and the USB circuit board 12 is also provided with a USB interface 122.

[0226] Please see Figures 16 to 18 , Figure 16 This is a schematic diagram of the rotating outer shell and insert structure according to one embodiment of the present invention. Figure 17 for Figure 16 The illustrated top view of the socket structure in the embodiment is shown. Figure 18 for Figure 16 A schematic diagram of the socket structure in the illustrated embodiment is shown.

[0227] In one specific embodiment, the socket structure further includes a USB insulating plate 11 disposed on the base 2, and a USB circuit board 12 is also disposed on the USB insulating plate 11. A conductive socket 121 is disposed on the USB circuit board 12 corresponding to the passive rotating body 420, and the upper part of the passive rotating body 420 is electrically connected to the conductive socket 121. In addition, the USB circuit board 12 is also provided with a USB interface 122. It should be noted that other components or devices for realizing the socket function are also disposed on the USB insulating plate 11, which are existing technologies in the art and will not be described in detail here.

[0228] Furthermore, the USB circuit board 12 further includes a first USB circuit board 12a disposed on the USB insulating plate 11, and a conductive socket 121 disposed on the first USB circuit board 12a and corresponding to the passive rotating body 420. The passive rotating body 420 is disposed through the USB insulating plate 11 and the first USB circuit board 12a along a direction parallel to the rotation axis of the rotating housing 1. Specifically, the passive rotating body 420 perpendicularly penetrates the USB insulating plate 11 and the first USB circuit board 12a, and its upper part is electrically connected to the conductive socket 121. Figures 16 to 18 As shown, two conductive sockets 121 are respectively provided on the first USB circuit board 12a corresponding to the two passive rotating bodies 420. Furthermore, a second USB circuit board 12b is also provided on the first USB circuit board 12a. A USB signal connection board 13 is inserted between the first USB circuit board 12a and the second USB circuit board 12b and is electrically connected through the USB signal connection board 13. The USB interface 122 further includes a Type-A interface 1221 and a Type-C interface 1222 provided on the second USB circuit board 12b. The USB interface 122 can also be other combinations or only have a Type-A interface 1221 or a Type-C interface 1222; this utility model is not limited to these. Furthermore, since the rail socket with the USB interface 122 operates at a low voltage and does not require grounding, the E-pole conductive element 7 is not required in this embodiment.

[0229] Please refer to the following: Figure 19 , Figure 19 for Figure 16 The illustrated embodiment shows a schematic diagram of the Type-A and Type-C jacks. In one specific embodiment, the adapter further includes a jack panel 14, which is disposed on the first USB circuit board 12a. The jack panel 14 is provided with Type-A jack 141 and Type-C jack 142 corresponding to the Type-A interface 1221 and Type-C interface 1222, respectively. As a preferred embodiment, the jack panel 14 is also provided with an indicator light 143, and an indicator notch 145 is provided on the outer side of the rotating housing 1 near the jack panel 14 to assist in guiding the installation and use of the track socket. The indicator light 143 is a circular indicator light and is electrically connected to the second USB circuit board 12b, and the indicator notch 145 is a strip-shaped notch, but the present invention is not limited thereto.

[0230] In a preferred embodiment, the socket structure further includes: an insulating plate 11A disposed on the base 2, wherein the insulating plate 11A is also provided with a socket socket 111A and a conductive socket 112A, the conductive socket 112A being disposed corresponding to and electrically connected to the socket socket 111A; and a protective door 12A disposed on the insulating plate 11A and having a protective door socket hole 121A corresponding to the socket socket 111A, the protective door 12A also having a blocking part for blocking the protective door socket hole 121A; wherein the passive rotating body 420 is electrically connected to the conductive socket 112A, and the E-polar conductive element 7 is electrically connected to the socket socket 111A.

[0231] Please refer to Figures 20 to 23 , Figure 20 for Figure 1 The illustrated embodiment shows a schematic diagram of the rotating outer shell and insert structure. Figure 21 for Figure 1 A top view of the protective door in the illustrated embodiment. Figure 22 for Figure 1 The illustrated top view of the socket structure in the embodiment is shown. Figure 23 for Figure 1 A schematic diagram of the socket structure in the illustrated embodiment is shown.

[0232] In one specific embodiment, the socket structure further includes an insulating plate 11A disposed on the base 2. The insulating plate 11A also has a socket socket 111A and a conductive socket 112A disposed on it. The conductive socket 112A corresponds to the socket socket 111A and is electrically connected to the socket socket 111A. Specifically, the socket socket 111A is a five-hole socket socket, which further includes two L-pole sockets 1111A, two N-pole sockets 1112A, and one E-pole socket 1113A. The conductive socket 112A further includes a first conductive socket 1121A and a second conductive socket 1122A. The first conductive socket 1121A is fixedly connected to the two L-pole sockets 1111A, and the second conductive socket 1122A is fixedly connected to the two N-pole sockets 1112A. The conductive socket 112A is electrically connected to the socket socket 111A via a copper strip, but this invention is not limited to this. In addition, the socket structure also includes a protective door 12A, which is disposed on the insulating plate 11A and has a protective door socket hole 121A corresponding to the socket socket 111A. The protective door 12A is also provided with a blocking part for blocking the protective door socket hole 121A, and the blocking part further includes a first blocking part 122A and a second blocking part 123A. It should be noted that the insulating plate 11A is also provided with other components or devices for realizing the socket function, which are existing technologies in the art and will not be described in detail here.

[0233] Furthermore, the passive rotating body 420 is electrically connected to the conductive socket 112A. Specifically, the passive rotating body 420 penetrates the insulating plate 11A along a direction parallel to the rotation axis of the rotating housing 1 and is electrically connected to the first conductive socket 1121A and the second conductive socket 1122A. Wherein, as... Figures 21 to 23 As shown, two passive rotating bodies 420 are vertically disposed through the insulating plate 11A, and the upper parts of the two passive rotating bodies 420 are electrically connected to the first conductive socket 1121A and the second conductive socket 1122A, respectively. The E-polar conductive element 7 is electrically connected to the socket socket 111A. Specifically, the E-polar conductive element 7 penetrates the insulating plate 11A along a direction parallel to the rotation axis of the rotating housing 1 and is electrically connected to the E-polar socket 1113A. The E-polar conductive element 7 is vertically disposed through the insulating plate 11A, and its upper part is electrically connected to the E-polar socket 1113A. Furthermore, as... Figures 4 to 7 , Figure 12 as well as Figure 22 As shown, a conductive spring 71 is also sleeved on the E-pole conductive component 7. The conductive spring 71 is sleeved on the upper part of the E-pole conductive component 7, and one end of the conductive spring 71 abuts against the E-pole socket 1113A. The conductive spring 71 provides a reverse force when the electronic device is inserted into the track socket, preventing the plug of the electronic device from damaging the socket's socket structure, thus playing a buffering and protective role, and improving the user's feel.

[0234] Please refer to the following: Figure 24 , Figure 24 for Figure 1 The illustrated embodiment shows a schematic diagram of the five-hole socket. In one specific embodiment, the adapter further includes a socket panel 14A, which has a five-hole socket 141A corresponding to the socket sleeve 111A. In a preferred embodiment, the socket panel 14A also includes an indicator light 142A, and an indicator notch 143A is provided on the outer side of the rotating housing 1 near the socket panel 14A to assist in guiding the installation and use of the track socket. The indicator light 142A is a circular indicator light, and the indicator notch 143A is a strip-shaped notch, but this invention is not limited to these limitations.

[0235] In a preferred embodiment, the socket structure further includes:

[0236] An insulating plate 11B is mounted on a base 2. The insulating plate 11B also has a socket sleeve 111B and a conductive sleeve 112B. The conductive sleeve 112B is positioned corresponding to and electrically connected to the socket sleeve 111B.

[0237] A protective door 12B is mounted on the insulating plate 11B and has a protective door socket 121B corresponding to the socket sleeve 111B. The protective door 12B also has a blocking part for blocking the protective door socket 121B.

[0238] The passive rotating body 420 is electrically connected to the conductive socket 112B, and the E-polar conductive element 7 is electrically connected to the socket socket 111B.

[0239] Please refer to Figures 25 to 28 , Figure 25 This is a schematic diagram of the rotating outer shell and insert structure according to another embodiment of the present invention. Figure 26 for Figure 25 A top view of the protective door in the illustrated embodiment. Figure 27 for Figure 25 The illustrated top view of the socket structure in the embodiment is shown. Figure 28 for Figure 25 A schematic diagram of the socket structure in the illustrated embodiment is shown.

[0240] In one specific embodiment, the socket structure further includes an insulating plate 11B disposed on the base 2. The insulating plate 11B also has a socket socket 111B and a conductive socket 112B disposed on it. The conductive socket 112B is disposed corresponding to the socket socket 111B and is electrically connected to the socket socket 111B. Specifically, the insulating plate 11B further includes a first PCB board 113B disposed on the base 2 and a second PCB board 114B disposed on the first PCB board 113B. The second PCB board 114B is disposed on the first PCB board 113B via multiple pins 115B, and the first PCB board 113B and the second PCB board 114B are electrically connected via multiple pins 115B. The second PCB board 114B has conductive sockets 112B disposed corresponding to the socket socket 111B and the passive rotating body 420. The second PCB board 114B also has a WiFi smart module 116B disposed on it.

[0241] Furthermore, the socket sleeve 111B is a five-hole high-voltage socket sleeve, which is electrically connected to the conductive sleeve 112B via the second PCB board 114B. Specifically, the five-hole high-voltage socket sleeve further includes two L-pole sleeves 1111B, two N-pole sleeves 1112B, and one E-pole sleeve 1113B. The two L-pole sleeves 1111B and two N-pole sleeves 1112B are disposed on the second PCB board 114B and are electrically connected to the conductive sleeve 112B respectively. A mounting groove is provided at the bottom of the protective door 12B, and the E-pole sleeve 1113B is disposed in the mounting groove at the bottom of the protective door 12B. The conductive sleeve 112B is electrically connected to the L-pole sleeves 1111B and the N-pole sleeves 1112B via a copper strip, but this utility model is not limited thereto.

[0242] In addition, the socket structure also includes a protective door 12B disposed on the insulating plate 11B. The protective door 12B is disposed on the second PCB board 114B and has a protective door socket hole 121B corresponding to the socket socket 111B. The protective door 12B is also provided with a blocking part for blocking the protective door socket hole 121B, and the blocking part further includes a first blocking part 122B and a second blocking part 123B. It should be noted that the insulating plate 11B is also provided with other components or devices for realizing the socket function, which are existing technologies in the art and will not be described in detail here.

[0243] Furthermore, the passive rotating body 420 is electrically connected to the conductive socket 112B. Specifically, the passive rotating body 420 passes through the first PCB board 113B and the second PCB board 114B along a direction parallel to the rotation axis of the rotating housing 1, and is electrically connected to the conductive socket 112B. Wherein, as... Figures 26 to 28 As shown, there are two passive rotating bodies 420 and two conductive sleeves 112B, each corresponding to one of the two passive rotating bodies 420 and the other to the other socket sleeve 111B, respectively, disposed on the second PCB board 114B. The two passive rotating bodies 420 are perpendicularly disposed through the first PCB board 113B and the second PCB board 114B, and the upper parts of the two passive rotating bodies 420 are electrically connected to their respective conductive sleeves 112B. The E-polar conductive element 7 is electrically connected to the socket sleeve 111B. Specifically, the E-polar conductive element 7 penetrates the first PCB board 113B along a direction parallel to the rotation axis of the rotating housing 1 and is electrically connected to the E-polar sleeve 1113B. The E-polar conductive element 7 is perpendicularly disposed through the first PCB board 113B and its upper part is electrically connected to the E-polar sleeve 1113B. Furthermore, as... Figure 27 As shown, a conductive spring 71 is also sleeved on the E-pole conductive component 7. The conductive spring 71 is sleeved on the upper part of the E-pole conductive component 7, and one end of the conductive spring 71 abuts against the E-pole socket 1113B. The conductive spring 71 provides a reverse force when the electronic device is inserted into the track socket, preventing the plug of the electronic device from damaging the socket's socket structure, thus playing a buffering and protective role, and improving the user's feel.

[0244] Please refer to the following: Figure 29 , Figure 29 for Figure 25The illustrated embodiment shows a schematic diagram of the five-hole socket. In one specific embodiment, the adapter further includes a socket panel 14B, which has a five-hole socket 141B corresponding to the socket sleeve 111B. In a preferred embodiment, the socket panel 14B also includes an indicator light 142B, and an indicator notch 143B is provided on the outer side of the rotating housing 1 near the socket panel 14B to assist in guiding the installation and use of the track socket. The indicator light 142B is a circular indicator light, and the indicator notch 143B is a strip-shaped notch, but this invention is not limited thereto. Furthermore, the rotating housing 1 also includes a button 15B, and a switch element 16B is provided on the first PCB board 113B corresponding to the button 15B. The switch element 16B is electrically connected to the WiFi smart module 116B through the first PCB board 113B and the second PCB board 114B. The user triggers the switch element 16B by pressing the button 15B on the rotating housing 1, thereby turning the WiFi smart module 116B on or off.

[0245] Please refer to the following: Figure 30 , Figure 30 for Figure 1 The diagram shows a perspective assembly of the track socket adapter according to an embodiment. In one specific embodiment, the layers and components / assemblies of the track socket adapter are stacked on the base 2 and connected by screws 23, but this invention is not limited thereto. It should be noted that the stacking structure in other embodiments of this invention is the same as... Figure 30 As shown, it will not be elaborated further here.

[0246] In this embodiment of the utility model, the rotating outer shell 1 is fitted onto the base 2. Inside the rotating outer shell 1, the socket panels 14, 14A, 14B, the socket structure, the insulating plate, the passive rotating component 42, the locking bracket 9, and the base 2 are stacked in sequence and connected layer by layer by long screws. This achieves a simpler structure and more convenient installation of the track socket structure, avoiding the complex structural mode of mixing drive components and sockets in the existing track sockets.

[0247] The following combination Figure 4 , Figure 11 , Figure 15 as well as Figures 31 to 34 The specific operation method and working principle of this utility model are further illustrated by an embodiment of this utility model. Figure 31 for Figure 1 The illustrated embodiment shows a bottom view with the track socket adapter in a power-off state. Figure 32 for Figure 1 The illustrated embodiment shows a schematic diagram of the internal structure of the track socket adapter in a power-on state. Figure 33 for Figure 1 The illustrated embodiment shows a schematic diagram of the internal structure of the track socket adapter in the unlocked state. Figure 34 for Figure 1 The illustrated embodiment shows a bottom view of the track socket adapter in an unlocked state.

[0248] Please refer to the following first. Figure 4 and Figure 31 With the track socket in a power-off state, the protruding locking part 91 locks the track socket in the conductive track. The third rotating protrusion 414 is located at the first limiting point P1 of the flexible elastic member 5. The conductive arm is in a retracted state and located at the first angle position. Please refer to [further details]. Figure 32 and Figure 11 When the rail socket needs to be opened for power, the rotating outer shell 1 is rotated clockwise at an angle. The third rotating protrusion 414 slides along one side of the flexible elastic member 5 from the first limiting point P1 to P2. The clockwise rotation angle is 15 degrees, but this invention is not limited to this. Due to the elastic force provided by the limiting spring 6 and the elastic force of the flexible elastic member 5, the third rotating protrusion 414 experiences the greatest resistance at the second limiting point P2. If the rotating outer shell 1 is not actively rotated by the user, the third rotating protrusion 414 will be limited by the resistance at the second limiting point P2 and return to the first limiting point P1, preventing the rail socket from being opened for power. If the user actively rotates the rotating outer shell 1, the third rotating protrusion 414 continues to slide along one side of the flexible elastic member 5 from the second limiting point P2 to the third limiting point P3. Simultaneously, the first rotating protrusion 412 and the second rotating protrusion 413 of the active rotating component 41 also drive the actuating component 422 of the passive rotating body 420 to rotate clockwise, thereby causing the N-pole conductive plate 4211 and the L-pole conductive plate 4212 on the first conductive arm 421a and the second conductive arm 421b to unfold towards different sides of the connector 3, wherein the openings of the unfolded angles of the N-pole conductive plate 4211 and the L-pole conductive plate 4212 face the same direction. At this time, the N-pole conductive plate 4211 and the L-pole conductive plate 4212 contact the neutral wire and the live wire in the conductive track respectively to draw power. The first conductive arm 421a and the second conductive arm 421b are in the unfolded state and at the second angle position, wherein the unfolded angle of the first conductive arm 421a and the second conductive arm 421b relative to the connector 3 at the second angle position is 30 degrees, but this utility model is not limited to this. When the user needs to turn off the track socket to disconnect the power, the above method can be reversed, which will not be described in detail here. It should be noted that when the track socket switches between a power-off state and a power-on state, the locking part 91 of the latch bracket 9 is always in a protruding state.

[0249] Please refer to the following: Figure 15 , Figure 33 and Figure 34When the track socket is in a de-energized state, the user unlocks and removes the track socket from the conductive track, or unlocks and inserts the track socket into the conductive track. The outer casing 1 is rotated counterclockwise at an angle, causing the third rotating protrusion 414 to slide along one side of the flexible elastic member 5 away from the limiting spring 6. The counterclockwise rotation angle is 15 degrees, but this invention is not limited to this. Simultaneously, the first abutting part 415 of the active rotating member 41 drives one end of the torsional elastic member 95 to rotate counterclockwise, the second abutting part 416 drives the connecting plate 961 to rotate counterclockwise, and the third abutting part 417 drives the second extending arm 94 to rotate counterclockwise. This counteracts the torque of the torsional elastic member 95 and the elastic force of the return spring 6S, causing the locking part 91 of the locking bracket 9 to be housed in the plug-in member 3, allowing the track socket to be inserted into or unlocked from the conductive track. When the track socket has been inserted into or removed from the conductive track, and the user stops applying force to rotate the outer casing 1, the locking bracket 9 rotates clockwise to reset due to the torque of the torsional elastic member 95 and the elastic force of the return spring 6S. ​​This causes the locking part 91 to protrude relative to the plug member 3, locking the track socket in the conductive track or preventing it from being accidentally inserted into the conductive track and energized. During the above process, both the first rotating protrusion 412 and the second rotating protrusion 413 of the active rotating member 41 disengage from the actuating member 422, meaning that the active rotating member 41 and the passive rotating member 42 do not move in coordination.

[0250] The track socket provided by this utility model achieves the function of opening or closing the track socket by rotation by setting an active rotating component 41 fixedly connected to the rotating housing 1, and a passive rotating component 42 on the base 2 that cooperates with the active rotating component 41. In addition, by setting conductive arms 421 that unfold towards different sides of the plug-in component 3 with the openings facing the same direction, the contact distance between the conductive arms 421 and the conductive plates in the conductive track is increased, improving the safety of the track socket. In contrast, existing track sockets usually have traditional switch buttons, which are inconvenient to use, have a limited lifespan, and cannot effectively provide safety protection. At the same time, the conductive arms 421 are usually set in the center or on both sides of the bottom of the track socket and close to the side edges, resulting in too small a contact distance between the conductive arms 421 and the conductive plates in the conductive track, which poses a safety hazard. Therefore, the track socket provided by this utility model, while realizing the basic functions of power supply and power disconnection, can further improve the convenience and safety of the track socket, while increasing the contact distance between the conductive arm and the conductive sheet in the conductive track, enhancing the connection stability between the conductive arm and the conductive track, improving the safety of the track socket and extending its service life.

[0251] Please see Figures 35 to 38 , Figure 35 This is a front view of a track socket adapter according to an embodiment of the present invention. Figure 36 for Figure 35 The left view of the track socket adapter in the illustrated embodiment is shown. Figure 37 for Figure 36 The right view of the track socket adapter in the illustrated embodiment is shown. Figure 38 for Figure 35 A bottom view of the track socket adapter in the illustrated embodiment.

[0252] To better achieve the purpose of this utility model, it also provides a track socket, including an adapter. The adapter includes a rotating housing 1' and a base 2'. The rotating housing 1' is provided with a rotating power-on component 4' electrically connected to the socket structure and a drive component for driving the rotating power-on component 4' to rotate. A plug-in component 3' is fixedly connected below the base 2'. The rotating power-on component 4' includes a conductive arm 421' movably connected to an external conductive track. The conductive arm 421' is rotatably connected to the plug-in component 3' on the side facing away from the socket structure. The drive component drives the conductive arm 421' to retract or unfold relative to the plug-in component 3'. The unfolding angle of the conductive arm 421' is an acute angle, and the openings of the unfolding angles of the conductive arm 421' are the same.

[0253] In one specific embodiment, such as Figures 35 to 38 As shown, the track socket provided by this utility model includes an adapter, which includes a rotating housing 1' and a base 2'. The rotating housing 1' is rotatably fitted onto the base 2' and can rotate clockwise or counterclockwise relative to the base 2'. A plug-in 3' is disposed below the base 2' and fixedly connected to the base 2'. The rotating housing 1' is also provided with a rotating power-on component 4' electrically connected to the plug-in structure and a drive component for driving the rotating power-on component 4' to rotate. The specific structures of the drive component and the plug-in structure will be described in detail later and will not be repeated here. The rotating power-on component 4' also includes a conductive arm 421', which is movably connected to the conductive rail outside the track socket. The track socket can be powered on or off by the conductive arm 421' contacting or not contacting the conductive rail. Specifically, the conductive arm 421' is rotatably connected to the side of the connector 3' facing away from the socket structure, that is, the conductive arm 421' is located on the side of the connector 3' away from the base 2'. The conductive arm 421' can rotate relative to the connector 3' to realize the power supply or power cut-off of the track socket. The drive assembly drives the conductive arm 421' to retract or extend relative to the connector 3'. When the conductive arm 421' is in the retracted state, the track socket is in the power-off state; when the conductive arm 421' is in the extended state, the track socket is in the power supply state. The extension angle of the conductive arm 421' is an acute angle, and the openings of the extension angles of the conductive arm 421' are the same. It should be noted that the same opening angle of the conductive arm 421' means that the opening angles are the same and the direction of the openings is the same, or that the opening angles are different but the direction of the openings is the same. This utility model is not limited to this.

[0254] In this embodiment of the invention, by setting the same opening angle for the conductive arms 421', the contact distance between the conductive arms 421' extending in the same direction and the conductive plates in the conductive track is increased. Simultaneously, the connector 3 forms a stable triangular connection with the conductive arms 421', enhancing the connection stability between the conductive arms 421' and the conductive track, and further improving the safety of the track socket. Furthermore, the rotating housing 1' and rotating power-on component 4' enable the track socket to rotate for power intake and de-energization, further improving the convenience and safety of the track socket.

[0255] In a preferred embodiment, an E-polar conductive element 7' is also centrally disposed on the plug-in 3'. The E-polar conductive element 7' is located between the conductive arms 421', and the fixed connection ends 4213' and 4214' of the conductive arms 421' are not equidistant from the E-polar conductive element 7'.

[0256] Please see Figures 35 to 38 as well as Figure 39 , Figure 39 This is a schematic diagram of an E-polar conductive element according to an embodiment of the present invention. In one specific embodiment, an E-polar conductive element 7' is further provided on the base 2'. The E-polar conductive element 7' penetrates the base 2' and the connector 3' along a direction parallel to the rotation axis of the rotating housing 1' and extends out of the connector 3' in a direction away from the base 2'. Specifically, in this embodiment of the present invention, the E-polar conductive element 7' penetrates the base 2' and the connector 3' along a direction perpendicular to the base 2', and the E-polar conductive element 7' is centrally located on the base 2' and the connector 3'. The E-polar conductive element 7' is located between the conductive arms 421'. The fixed connection ends 4213' and 4214' of the conductive arms 421' are not equidistant from the E-polar conductive element 7', that is, the conductive arms 421' are asymmetrically arranged relative to the E-polar conductive element 7', but the present invention is not limited thereto. When the connector 3' is inserted into the conductive rail, the E-polar conductive element 7' is used to connect with the grounding wire in the conductive rail to prevent electrical leakage and electric shock hazards, and to ensure electrical safety. Furthermore, such as Figure 39 As shown, the upper part of the E-polar conductive element 7' is located inside the rotating outer shell 1' and has a cylindrical structure, while the lower part of the E-polar conductive element 7' extends out of the plug-in element 3' and has a rectangular prism structure. The structure of the E-polar conductive element 7' in this embodiment facilitates the electrical connection between its upper part and the plug-in structure, as well as the insertion of its lower part into the conductive track for connection with the grounding wire, but this utility model is not limited thereto.

[0257] In this embodiment of the utility model, the asymmetrically arranged conductive arms 421' not only meet the creepage distance requirements between electrodes, but also avoid the problems of the existing track sockets where the conductive arms 421' are centrally located through the middle of the connector 3', or symmetrically arranged on both sides of the connector 3' close to the two side edges of the connector 3', resulting in an excessively large socket size and easy wear during use.

[0258] In a preferred embodiment, the rotating power-on assembly 4' further includes a lever 420' rotatably disposed in the connector 3', with the bottom end of the lever 420' connected to a conductive arm 421'; lever grooves S2' for accommodating the lever 420' are provided on both sides of the connector 3', and a conductive arm groove S1' for accommodating the conductive arm 421' is provided at the bottom of the lever groove S2'.

[0259] Please refer to the following: Figures 35 to 37 In one specific embodiment, the rotating power-on assembly 4' further includes a lever 420' rotatably disposed in the plug-in 3'. The upper part of the lever 420' is located inside the rotating housing 1' and is used for electrical connection with the plug-in structure. The lower end of the lever 420' is located at the plug-in 3' and is fixedly connected to the fixed connection ends 4213' and 4214' of the conductive arm 421'. In this embodiment of the present invention, the E-polar conductive element 7' is an E-polar conductive post, and the lever 420' is located on both sides of the E-polar conductive post and is not equidistant from the E-polar conductive post. Specifically, the extension direction of the lever 420' is perpendicular to the extension direction of the conductive track, so that when the track socket is inserted into the conductive track, the lever 420' is inserted vertically into the conductive track. When the rotating housing 1' is rotated, the rotating housing 1' drives the lever 420' to rotate, causing the conductive arm 421' to rotate, thereby causing the conductive arm 421' to rotate between the retracted state and the unfolded state.

[0260] The connector 3' has lever slots S2' on both sides to accommodate levers 420'. Lever slots S2' accommodate levers 420', which rotate within them. The bottom of lever slots S2' has a conductive arm slot S1' to accommodate a conductive arm 421' when the conductive arm 421' is in a retracted state relative to the connector 3'. When the conductive arm 421' is in a retracted state relative to the connector 3', the conductive arm slot S1' accommodates the conductive arm 421'. The conductive arm slot S1' and lever slots S2' may completely penetrate, partially penetrate, or not penetrate the connector 3', and are connected, but this invention is not limited to these limitations.

[0261] In this embodiment of the utility model, by setting the conductive arm groove S1' and the lever groove S2', the lever 420' and the conductive arm 421' do not extend out of the sides of the connector 3' when they are in the retracted state. This makes it easier for the connector 3' to be inserted into the conductive track and avoids the conductive arm 421' from accidentally touching the neutral wire and the live wire during the insertion process, thus preventing accidental conduction and safety hazards.

[0262] In a preferred embodiment, a locking component 9' is also provided on the base 2'. The locking part 91' of the locking component 9' is movably connected to the connector 3'. When the locking component 9' is driven by the outside, the locking part 91' is stored in the connector 3'. In the natural state, the locking part 91' protrudes from the surface of the connector.

[0263] Please see Figures 35 to 38 as well as Figure 40 , Figure 40 for Figure 35 A schematic diagram of the structure on the base in the illustrated embodiment.

[0264] In one specific embodiment, a locking assembly 9' is provided on the base 2', and the locking assembly 9' further includes a locking part 91', which is movably connected to the connector 3'. Specifically, the locking part 91' extends through the base 2' along a direction parallel to the rotation axis of the rotating housing 1', and is located at the connector 3' and above the conductive arm 421'. When the rotating housing 1' drives the locking assembly 9' to rotate, the locking part 91' retracts or protrudes relative to the connector 3', so that the locking assembly 9' is unlocked or locked onto the conductive track, and the rotation of the locking part 91' does not interfere with the rotation of the conductive arm 421'. In addition, the connector 3' also has a relief groove S3' for accommodating the locking part 91'. When the locking assembly 9' is driven externally, i.e., when the rotating housing 1' drives the locking assembly 9' to rotate, the locking part 91' retracts relative to the connector 3' and is housed within the clearance groove S3', thus unlocking the locking assembly 9' onto the conductive track and preventing obstruction when inserting or removing it from the track socket. When the locking assembly 9' is in its natural state without external drive, the locking part 91' protrudes from the surface of the connector, and the locking assembly 9' is locked onto the conductive track for subsequent power extraction. It should be noted that the clearance groove S3' may or may not penetrate the connector 3', and this invention is not limited to this.

[0265] In a preferred embodiment, the socket structure is installed on the insulating plate 11A'. The insulating plate 11A' has a mounting through hole corresponding to the position of the E pole socket 1113A'. An E pole conductive post electrically connected to the E pole socket 1113A' is installed in the mounting through hole. The E pole conductive post extends downward out of the bottom of the base 2'. An elastic member 71' is sleeved on the outside of the E pole conductive post. The bottom end of the E pole conductive post protrudes from the end face of the plug 3'.

[0266] Please see Figure 41 and Figure 42 , Figure 41 for Figure 35 The illustrated top view of the socket structure in the embodiment is shown. Figure 42 for Figure 35 A schematic diagram of the socket structure in the illustrated embodiment is shown.

[0267] In one specific embodiment, the socket structure further includes an insulating plate 11A' disposed on the base 2'. The insulating plate 11A' also has a socket socket 111A' and a conductive socket 112A' disposed on it. The conductive socket 112A' corresponds to the socket socket 111A' and is electrically connected to it. Specifically, the socket socket 111A' is a five-hole socket socket, which further includes two L-pole sockets 1111A', two N-pole sockets 1112A', and one E-pole socket 1113A'. The conductive socket 112A' further includes a first conductive socket 1121A' and a second conductive socket 1122A'. The first conductive socket 1121A' is fixedly connected to the two L-pole sockets 1111A', and the second conductive socket 1122A' is fixedly connected to the two N-pole sockets 1112A'. The conductive sleeve 112A' is electrically connected to the socket sleeve 111A' via a copper strip, but this utility model is not limited thereto. It should be noted that the insulating plate 11A' is also provided with other components or devices for realizing the socket function, which are existing technologies in this field and will not be described in detail here.

[0268] Furthermore, the insulating plate 11A' has a mounting through hole corresponding to the position of the E-pole sleeve 1113A'. In this embodiment of the present invention, the E-pole conductive element 7' is an E-pole conductive post, which penetrates the insulating plate 11A' along a direction parallel to the rotation axis of the rotating housing 1' and is electrically connected to the E-pole sleeve 1113A'. The upper part of the E-pole conductive post is vertically inserted through the mounting through hole into the insulating plate 11A' and electrically connected to the E-pole sleeve 1113A'. The lower part of the E-pole conductive post penetrates the base 2' and the connector 3' and extends in a direction away from the insulating plate 11A', with the bottom end of the E-pole conductive post protruding beyond the end face of the connector 3'.

[0269] In addition, such as Figure 40 as well as Figure 41 As shown, an elastic element 71' is also fitted onto the E-pole conductive post. The elastic element 71' is a conductive spring, but this invention is not limited to this. The elastic element 71' is fitted onto the upper part of the E-pole conductive post, and its top end abuts against the E-pole insert 1113A'. For more details, please refer to the following reference. Figure 39The outer surface of the E-polar conductive element 7' is also provided with an annular protrusion 72'. The lower end of the elastic element 71' abuts against the insulating plate 11A', and the upper end of the elastic element 71' is sleeved on the annular protrusion 72'. In this embodiment of the present invention, the outer surface of the E-polar conductive element 7' is provided with an annular protrusion 72', but the present invention is not limited thereto. The outer surface of the E-polar conductive element 7' may also be provided with an annular groove, as long as it can achieve the sleeve of the elastic element 71'. The elastic element 71' is used to provide a reverse force when the electronic device is inserted into the track socket, to prevent the plug of the electronic device from damaging the socket's insertion structure, thus playing a buffering and protective role, and at the same time improving the user's feel.

[0270] Furthermore, the lever 420' is electrically connected to the conductive sleeve 112A'. Specifically, the lever 420' passes through the insulating plate 11A' along a direction parallel to the rotation axis of the rotating housing 1' and is electrically connected to the first conductive sleeve 1121A' and the second conductive sleeve 1122A'. Wherein, as... Figure 41 and Figure 42 As shown, two levers 420' are vertically inserted through the insulating plate 11A', and the upper parts of the two levers 420' are electrically connected to the first conductive socket 1121A' and the second conductive socket 1122A', respectively. The power supply function of the track socket is realized through the conductive arm 421', the levers 420', and the first conductive socket 1121A' and the second conductive socket 1122A'.

[0271] The socket structure in this embodiment achieves a simpler and more convenient track socket structure, avoiding the complex structural pattern of mixing drive components and sockets in existing track sockets.

[0272] In a preferred embodiment, the rotating power-on assembly 4” includes active rotating components 41”, 41A”, 41B”, 41C” and a passive connecting component 43” rotatably mounted on the base 2”. The active rotating components 41”, 41A”, 41B”, 41C” include first rotating protrusions 412”, 411A”, 4101B”, 4101C” and second rotating protrusions 413”, 412A”, 4111B”, 4112C”. The passive connecting component 43” includes a lever rotatably mounted on the base 2”. 430” and conductive arm 431 connected at right angle to lever 430”. The upper part of lever 430” is connected to a paddle 432” that cooperates with the first rotating protrusion 412”, 411A”, 4101B”, 4101C” and the second rotating protrusion 413”, 412A”, 4111B”, 4112C”. The active rotating members 41”, 41A”, 41B”, 41C” are configured to drive lever 430” to drive conductive arm 431” to unfold or retract through the cooperation of rotating protrusion and paddle 432”.

[0273] Please see Figure 43and Figure 44 , Figure 43 This is a schematic diagram of a passive connector according to an embodiment of the present invention. Figure 44 This is a schematic diagram of the internal structure of the track socket adapter in a power-off state according to one embodiment of the present invention.

[0274] In one specific embodiment, the rotating power-on component 4” is disposed on the rotating housing 1’ and located below the plug-in structure. The rotating power-on component 4” includes a drive component. The drive component further includes an active rotating member 41” fixedly connected to the rotating housing 1’, and a passive connecting member 43” rotatably mounted on the base 2’. Specifically, the passive connecting member 43” includes a lever 430” that passes through the base 2’ and is electrically connected to the plug-in structure. The upper part of the lever 430” is electrically connected to the plug-in structure, and the lower part of the lever 430” is located at the plug-in 3’ and connected to the conductive arm 431”. The conductive arm 431” is connected to the lever 430” at a right angle, but this invention is not limited thereto. By rotating the rotating housing 1’, the user can rotate the active rotating member 41”, which in turn drives the lever 430” to rotate, causing the conductive arm 431” to rotate so that the conductive arm 431” is in a retracted or extended state relative to the plug-in 3’.

[0275] In this embodiment of the invention, by setting a rotating outer shell 1' and a rotating power-on component 4", the traditional button switch structure is eliminated, and power is supplied and de-energized by rotation, providing a more convenient way to use the device. Furthermore, the rotation operation results in a more uniform pressure distribution on the base 2'. Compared to the wear and tear caused by the pressure and frequency of pressing in a traditional button switch structure, the rotation operation of the rotating outer shell 1' and the rotating power-on component 4" can extend the service life of the track socket. In addition, the rotation operation requires the user to apply a certain amount of force or a precise rotation angle to operate, avoiding the risk of accidental activation or contact by children, further improving safety.

[0276] In a preferred embodiment, the active rotating components 41” and 41A” are an integral structure, and the active rotating components 41” and 41A” have at least one end that is fixedly connected to the rotating housing 1.

[0277] Please refer to the following: Figure 44 In one specific embodiment, the active rotating member 41” is an integral structure and has two ends fixedly connected to the rotating housing 1'. Specifically, one end 411” located on the left side of the active rotating member 41” is fixedly connected to the rotating housing 1', while the other end 410” located on the right side of the active rotating member 41” is fixedly connected to the rotating housing 1'.

[0278] Please see Figure 45 , Figure 45This is a schematic diagram of the internal structure of the track socket adapter in a power-off state according to another embodiment of the present invention. In one specific embodiment, the active rotating member 41A” is an integral structure and has an end 410A that is fixedly connected to the rotating housing 1'.

[0279] In a preferred embodiment, the active rotating components 41B” and 41C” include at least first active rotating components 410B” and 410C” and second active rotating components 411B” and 411C”. The first active rotating components 410B” and 410C” and the second active rotating components 411B” and 411C” are separate structures. One end of the first active rotating component 410B” and 410C” and at least one end of the second active rotating component 411B” and 411C” are respectively fixedly connected to the rotating outer shell 1'.

[0280] Please see Figure 46 , Figure 46 This is a schematic diagram of the internal structure of the track socket adapter in a power-off state according to another embodiment of the present invention. In one specific embodiment, the active rotating member 41B” includes a first active rotating member 410B” and a second active rotating member 411B”, which are separate structures. Specifically, one end 4100B” of the first active rotating member 410B” is fixedly connected to the rotating housing 1' and disposed on the left side of the rotating housing 1', and one end 4110B” of the second active rotating member 411B” is fixedly connected to the rotating housing 1' and disposed on the right side of the rotating housing 1'.

[0281] Please see Figure 47 , Figure 47 This is a schematic diagram of the internal structure of the track socket adapter in a power-off state according to another embodiment of the present invention. In a specific embodiment, the active rotating component 41C” includes a first active rotating component 410C” and a second active rotating component 411C”, which are separate structures. Specifically, one end 4100C” of the first active rotating component 410C” is fixedly connected to the rotating housing 1' and is located on the left side of the rotating housing 1'. The second active rotating component 411C” has two ends 4110C” and 4111C”, which are respectively fixedly connected to the rotating housing 1', wherein the end 4111C” of the second active rotating component 411C” is located on the front side of the rotating housing 1', and the end 4110C” of the second active rotating component 411C” is located on the right side of the rotating housing 1'. It should be noted that the positions where the active rotating components 41”, 41A”, 41B”, and 41C” are fixedly connected to the rotating housing 1' can also be other, and the present invention is not limited thereto.

[0282] In this embodiment of the utility model, by using different structures of active rotating components 41”, 41A”, 41B”, and 41C” and their fixed connection methods with the rotating housing 1’, the internal space structure of the rotating housing 1’ can be further optimized, so that the rotating power-on component 4” can be adapted to different adapter structures, thereby improving the applicability of the rotating power-on component 4”.

[0283] like Figures 44 to 47 In the illustrated embodiment, the active rotating components 41”, 41A”, 41B”, and 41C” are provided with first rotating protrusions 412”, 411A”, 4101B”, and 4101C” and second rotating protrusions 413”, 412A”, 4111B”, and 4112C” corresponding to the lever 430”. When the user rotates the rotating housing 1’, the active rotating components 41”, 41A”, 41B”, and 41C” rotate with the rotating housing 1’, and then drive the lever 430” to rotate through the first rotating protrusions 412”, 411A”, 4101B”, and 4101C” and the second rotating protrusions 413”, 412A”, 4111B”, and 4112C”, so that the conductive arm 431” rotates and is in a retracted or extended state relative to the plug-in 3’.

[0284] Please refer to the following: Figure 45 , Figure 46 as well as Figure 47 In one specific embodiment, the upper part of the lever 430” is located inside the rotating housing 1’ and is used for electrical connection with the socket structure, while the lower part of the lever 430” is located at the connector 3’ and is fixedly connected to the conductive arm 431”. Specifically, the extension direction of the lever 430” is perpendicular to the extension direction of the conductive rail, so that when the rail socket is inserted into the conductive rail, the lever 430” is inserted vertically into the conductive rail. In addition, the upper part of the lever 430” is also provided with a paddle 432”, which has an A-shaped structure and is perpendicular to the lever 430’. The paddle 432” is located inside the rotating housing 1’ and cooperates with the active rotating members 41”, 41B”, and 41C” to rotate the conductive arm 431”. Furthermore, the upper part of the lever 430” and the paddle 432” are fitted on the base 2’, and the lower part of the lever 430” penetrates the base 2’ and is located at the connector 3’. When the rotating outer shell 1' is rotated, the first rotating protrusions 412", 4101B", 4101C" and the second rotating protrusions 413", 4111B", 4112C" of the active rotating components 41" , 41B", 41C" rotate with the rotating outer shell 1', thereby driving the paddle 432" to rotate. Simultaneously, the paddle 432" drives the lever 430" and the conductive arm 431" to rotate, causing the conductive arm 431" to rotate between a retracted state and an extended state. It should be noted that the shape of the paddle 432" can also be other than this, and this invention is not limited to this.

[0285] In a preferred embodiment, the upper part of the lever 430A” is also provided with a back-facing paddle 432B”. The paddle 432A” and the back-facing paddle 432B” are arranged back-to-back with respect to the lever 430A”. The active rotating member 41A” drives the levers 430” and 430A” to rotate through the paddles 432”, 432A” and the back-facing paddle 432B”.

[0286] Please see Figure 45 In one specific embodiment, the difference from the above embodiment is that the active rotating member 41A” is an integral structure and has an end 410A” fixedly connected to the rotating housing 1'. Furthermore, similar to the above embodiment, the upper part of the lever 430A” of the passive connecting member 43A” is located inside the rotating housing 1' and is used for electrical connection with the plug-in structure; the lower part of the lever 430A” is located at the plug-in member 3' and is fixedly connected to the conductive arm; and a paddle 432A” is provided on the upper part of the lever 430A”. To enable the active rotating member 41A” to drive the levers 430” and 430A” to rotate, the difference from the above embodiment is that the upper part of the lever 430A” of the passive connecting member 43A” is also provided with a back-facing paddle 432B”, and the paddle 432A” and the back-facing paddle 432B” are positioned back-to-back with respect to the lever 430A”. Specifically, when the rotating outer shell 1' is rotated, the first rotating protrusion 411A" and the second rotating protrusion 412A" of the active rotating member 41A" rotate with the rotating outer shell 1'. Then, the first rotating protrusion 411A" drives the back-facing lever 432B" of the passive connecting member 43A" to rotate, and the second rotating protrusion 412A" drives the lever 432" of the passive connecting member 43" to rotate. Simultaneously, the lever 432" and the back-facing lever 432B" drive their respective levers 430" and 430A" and the conductive arm to rotate, causing the conductive arm to rotate between a retracted state and an extended state. The back-facing lever... The paddle 432B” consists of two paddles set at an obtuse angle and perpendicular to the lever 430A”. The paddle 432” is an A-shaped paddle and perpendicular to the lever 430”, but this utility model is not limited thereto. It should be noted that the structures of the passive connecting parts 43” and 43A” in the above embodiments can be set to the same or different structures according to the structures of the active rotating parts 41”, 41A”, 41B”, and 41C”, so that the active rotating parts 41”, 41A”, 41B”, and 41C” can drive the levers 430” and 430A” to rotate. Furthermore, as Figure 44 , Figure 46 and Figure 47 As shown, this utility model can be equipped with a passive connector 43” with the same structure; as Figure 45As shown, the present invention can be provided with passive connector 43” and passive connector 43A” with different structures; in addition, the present invention can also be provided with passive connector 43A” and active rotating member 41A” with the same structure. The first rotating protrusion 411A” drives the back-facing paddle 432B” to rotate, and the second rotating protrusion 412A” of the active rotating member 41A” drives the paddle 432A” to rotate. The present invention is not limited thereto.

[0287] In this embodiment of the utility model, by setting levers 430", 430A", paddles 432", 432A", and back-facing paddles 432B" that rotate in conjunction with the active rotating components 41", 41A", 41B", and 41C", the passive connecting components 43" and 43A" can be adapted to the structures of different active rotating components, further optimizing the internal structural layout and space of the rotating housing 1'. According to actual application requirements, different components can be added inside the rotating housing 1' in conjunction with different active rotating component structures, further improving the applicability of the track socket.

[0288] In a preferred embodiment, the rotating power-on assembly 4” further includes a limiting member, which includes irregularly shaped retaining rings 5’ and 5A’ disposed on the base 2’ and a first spring 6’ connected to the irregularly shaped retaining rings 5’ and 5A’. The first spring 6’ is installed in the mounting channel 22’ of the base 2’. The first fixed ends 51’ and 51A’ of the irregularly shaped retaining rings 5’ and 5A’ extend into the free end 61’ of the spring in an L-shape. The second fixed ends 52’ and 52A’ of the irregularly shaped retaining rings 5’ and 5A’ are inserted into the fixing member 21’ of the base 2’ which is provided with an L-shaped locking position.

[0289] like Figures 44 to 47In the illustrated embodiment, the base 2' is further provided with irregularly shaped retaining rings 5' and 5A', and a first spring 6' connected to the irregularly shaped retaining rings 5' and 5A'. The base 2' is further provided with an installation channel 22', one end of the first spring 6' is sleeved and fixed on the installation channel 22', and the other end of the first spring 6' is a free end 61'. The installation channel 22' is a fixing post, but this invention is not limited thereto. The irregularly shaped retaining rings 5' and 5A' have a first fixed end 51' and 51A' located on the base 2, the first fixed end 51' and 51A' being L-shaped and extending into the free end 61' of the spring. Specifically, the irregularly shaped retaining rings 5' and 5A' are plate-like structures, with the bottom of the irregularly shaped retaining rings 5' and 5A' extending into the free end 61' of the first spring 6', the irregularly shaped retaining rings 5' and 5A' being movably connected to the free end 61' of the spring, and the first spring 6' providing resistance to the irregularly shaped retaining rings 5' and 5A'. The irregularly shaped retaining rings 5' and 5A' also have a second fixing end 52' and 52A' fixedly mounted on the base 2'. Furthermore, the base 2' is also provided with a fixing member 21', which is an L-shaped fixing groove. The second fixing ends 52' and 52A' of the irregularly shaped retaining rings 5' and 5A' are L-shaped and inserted and fixed in the fixing groove. It should be noted that the shapes of the irregularly shaped retaining rings 5' and 5A', the fixing member 21', and the mounting channel 22' can also be other shapes, and this utility model is not limited to these.

[0290] Please refer to the following: Figures 46 to 47 The difference from the above embodiments is that the irregular snap ring 5B' does not extend into the first spring 6', and the free end 61' of the first spring 6' abuts against the first fixed end 51B' of the irregular snap ring 5B'. The structure and connection relationship between the second fixed end 52B' of the irregular snap ring 5B' and the 21' on the fixing member are the same as those of the irregular snap rings 5' and 5A' in the above embodiments, and will not be repeated here.

[0291] In addition, the active rotating parts 41”, 41A”, 41B”, and 41C” are also provided with third rotating protrusions 414”, 413A”, 4112B”, and 4113C”. The third rotating protrusions 414”, 413A”, 4112B”, and 4113C” abut against the side of the irregularly shaped retaining springs 5', 5A’, and 5B’ facing away from the first spring 6'. When the rotating housing 1' is rotated, causing the active rotating components 41”, 41A”, 41B”, and 41C” to rotate, the third rotating protrusions 414”, 413A”, 4112B”, and 4113C” slide along the side of the irregularly shaped retaining springs 5’, 5A’, and 5B’ facing away from the first spring 6’. The irregularly shaped retaining springs 5’, 5A’, and 5B’ are provided with limiting points corresponding to the retracted and unfolded states of the conductive arm. When the third rotating protrusions 414”, 413A”, 4112B”, and 4113C” slide between the limiting points of the irregularly shaped retaining springs 5’, 5A’, and 5B’, the active rotating components 41”, 41A”, 41B”, and 41C” drive the levers 430” and 430A” to rotate, which in turn drives the conductive arm to rotate and be in the retracted or unfolded state relative to the plug-in component 3’. When the third rotating protrusions 414”, 413A”, 4112B”, 4113C” slide along one side of the irregular retaining rings 5', 5A’, 5B’, the first spring 6' provides a resistance.

[0292] In a preferred embodiment, the irregularly shaped retaining ring includes a first limiting point P1', a second limiting point P2', and a third limiting point P3'; the first rotating protrusion of the active rotating member experiences the greatest resistance at the second limiting point P2'; the first limiting point P1' corresponds to the position where the conductive arm rotates to a first angle; the third limiting point P3' corresponds to the position where the conductive arm rotates to a second angle; when the conductive arm rotates to the second angle, the contact head of the conductive arm abuts against the conductive sheet of the track.

[0293] Please see Figure 47 and Figure 48 , Figure 48 This is a schematic diagram of an irregularly shaped retaining ring according to one embodiment of the present invention. In a specific embodiment, the irregularly shaped retaining ring 5B' has a first limiting point P1', a second limiting point P2', and a third limiting point P3', with the second limiting point P2' located between the first limiting point P1' and the third limiting point P3'. Please refer to the following references. Figure 47When the third rotating protrusion 4113C” abuts against the first limiting point P1', the conductive arm rotates to the first angle position, which corresponds to the retracted state of the conductive arm, that is, the conductive arm is retracted into the plug 3', and the track socket is in the power-off state. As the rotating housing 1' is rotated clockwise, the third rotating protrusion 4113C” slides along the side of the irregular retaining spring 5B' facing away from the first spring 6' to the second limiting point P2'. The resistance encountered by the third rotating protrusion 4113C” at the second limiting point P2' is the greatest. At this time, the resistance encountered by the first rotating protrusion 4101C” and the second rotating protrusion 4112C” in driving the lever 432” to rotate is the greatest. When the rotating outer shell 1' continues to rotate clockwise, the third rotating protrusion 4113C" slides past the second limiting point P2' to the third limiting point P3'. The active rotating component 41C" drives the lever 430" to rotate, which in turn drives the conductive arm to rotate to the second angle position. The second angle position corresponds to the unfolded state of the conductive arm, that is, the conductive arm is unfolded relative to the plug 3', the track socket is in the power-on state, and the contact head of the conductive arm abuts against the track conductive plate. When rotating the rotating outer shell 1 to rotate the conductive arm from the unfolded state to the retracted state, the above operation is reversed, which will not be described in detail here. In addition, Figures 44 to 46 In the embodiment shown, the third rotating protrusions 414", 413A", and 4112B" of the active rotating members 41”, 41A”, and 41B” are engaged with the irregularly shaped retaining rings 5', 5A', and 5B' in the same way as described above, and will not be repeated here.

[0294] In this embodiment of the utility model, through the third rotating protrusions 414", 413A", 4112B", and 4113C" of the active rotating parts 41", 41A", 41B", and 41C", and the irregularly shaped retaining springs 5', 5A', and 5B' set on the base 2', when the rotating housing 1' is rotated to make the conductive arm rotate between the retracted and unfolded states, the resistance encountered by the third rotating protrusions 414", 413A", 4112B", and 4113C" at the second limiting point P2' prevents the track socket from being opened or closed due to accidental opening or contact, thus avoiding safety hazards. Only when the user actively applies force to rotate the rotating housing 1' can the third rotating protrusions 414", 413A", 4112B", and 4113C" overcome the resistance encountered at the second limiting point P2', thereby improving the safety of the track socket. The irregularly shaped retaining springs 5', 5A', and 5B' also increase the user's feel when rotating. Furthermore, by providing a first spring 6' on the opposite side of the irregularly shaped retaining rings 5', 5A', and 5B' that abut against the third rotating protrusions 414”, 413A”, 4112B”, and 4113C”, the resistance experienced by the third rotating protrusions 414”, 413A”, 4112B”, and 4113C” at the second limiting point P2” can be further increased, preventing children from accidentally opening or touching the device, while also further enhancing the user's tactile experience.

[0295] In a preferred embodiment, the rotating power-on component 4” further includes a locking component, which includes a locking bracket 9” disposed on the card holder 8’. The locking bracket 9” includes a collar 92” fitted around the outside of the E-pole conductive rod, extension arms connected to both sides of the collar 92”, and a locking part 91” perpendicularly connected to the extension arms. The locking part 91” is a hook structure. A first compression part 96” is provided on any extension arm in the opposite direction to the hook. The first compression part 96” is provided with a connecting plate 961. The connecting plate 961” is provided with a positioning post 962 for placing the second spring 6S’ in the center. The base 2’ also has an installation channel S4’ for the second spring 6S’ along the extension direction of the first compression part 96”. The active rotating component 41” is also provided with three limiting ribs corresponding to the locking bracket 9” to control the locking bracket 9” at the position where the hook protrudes from the card holder 8’.

[0296] Please see Figures 44 to 47 ,as well as Figures 49 to 53 , Figure 49 This is a left view of a track socket adapter according to an embodiment of the present invention. Figure 50 for Figure 49 The illustrated embodiment shows a bottom view of the track socket adapter. Figure 51 for Figure 49 The illustrated embodiment shows a schematic diagram of the rotating housing and locking bracket. Figure 52This is a front view of a locking bracket according to an embodiment of the present invention. Figure 53 This is a perspective view of a locking bracket according to an embodiment of the present invention.

[0297] In one specific embodiment, the adapter further includes a locking bracket 9” disposed on the base 2’. Specifically, the base 2’ is provided with a locking bracket 9”, which also includes a locking part 91”. The locking part 91” extends through the base 2’ along a direction parallel to the rotation axis of the rotating housing 1’, and is located at the plug-in 3’ and above the conductive arm 431”. When the active rotating member 41” drives the locking bracket 9” to rotate, the locking part 91” retracts or protrudes relative to the plug-in 3’, so that the locking bracket 9” is unlocked or locked in the conductive track, and the rotation of the locking part 91” does not interfere with the rotation of the conductive arm 431”. The locking part 91” is a hook structure, but the present invention is not limited thereto.

[0298] Furthermore, in one specific embodiment, the adapter further includes a retainer 8' disposed on the base 2'. The retainer 8' extends through the base 2' along a direction parallel to the rotational axis of the rotating housing 1' and is located above the conductive arm 431". Specifically, the retainer 8' is disposed perpendicularly through the base 2', but this invention is not limited thereto. The retainer 8' is used to support and mount the passive connector 43" on the base 2', and at least a portion of the passive connector 43" is disposed on the retainer 8'. It should be noted that, as Figure 44 As shown, there can be two card holders 8' on the base 2', each used to support and install two passive connectors 43” respectively. At least a portion of the locking bracket 9” can also be set on one of the card holders 8', which is also used to support and install the locking bracket 9” on the base 2'. Alternatively, only one card holder 8' can be set to support and install the locking bracket 9” and one of the passive connectors 43”. This utility model is not limited to this. During installation, the card holder 8' is first installed on the lever 430” of the passive connector 43”, and the card holder 8' is installed between the conductive arm 431” and the lever 432”. Then, the card holder 8' and the passive connector 43” are connected together and installed on the base 2'. Finally, the locking bracket 9” is set on the base 2'.

[0299] Please see Figure 52 and Figure 53In one specific embodiment, the locking bracket 9” includes a collar 92”, and the E-polar conductive element 7’ is an E-polar conductive rod, but this utility model is not limited thereto. The E-polar conductive rod passes through the base 2’ and the connector 3’ along the direction perpendicular to the base 2’, and is centrally disposed on the base 2’ and the connector 3’. The collar 92” is fitted onto the E-polar conductive rod. Extension arms are connected to both sides of the collar 92”, and the extension arms further include a first extension arm 93” and a second extension arm 94”. The first extension arm 93” and the second extension arm 94” are respectively connected to the collar 92” and disposed on both sides of the collar 92”. The collar 92”, the first extension arm 93” and the second extension arm 94” of the locking bracket 9” are disposed on the base 2’ and located inside the rotating housing 1’. The first extension arm 93” and the second extension arm 94” are respectively provided with locking parts 91” facing opposite directions. The locking parts 91” are perpendicularly connected to the first extension arm 93” and the second extension arm 94”. Please refer to the following: Figures 49 to 50 When the active rotating member 41” drives the locking bracket 9” to rotate, the locking portions 91” of the first extension arm 93” and the second extension arm 94” protrude relative to the connector 3’. The two locking portions 91” protrude towards different sides of the connector 3’ and the protruding openings face opposite directions, so that the locking bracket 9” is locked in the conductive track. When the active rotating member 41” drives the locking bracket 9” to rotate in the opposite direction, the locking portions 91” of the first extension arm 93” and the second extension arm 94” are retracted relative to the connector 3’, so that the locking bracket 9” is unlocked from the conductive track. Furthermore, in another embodiment of the present invention, at least a portion of the locking bracket 9” is disposed on one of the card holders 8’. When the active rotating member 41” drives the locking bracket 9” to rotate, the locking portion 91” of the first extension arm 93” protrudes relative to the connector 3’, and the locking portion 91” of the second extension arm 94” protrudes relative to its corresponding card holder 8’. When the active rotating member 41” drives the locking bracket 9” to rotate in the opposite direction, the locking part 91” of the first extension arm 93” is retracted relative to the plug 3', and the locking part 91” of the second extension arm 94” is retracted relative to its corresponding card seat 8', so that the locking bracket 9” is unlocked from the conductive track. The angle of the two locking parts 91” is acute.

[0300] Please refer to the following: Figure 52 and Figure 53The locking part 91” further includes a locking end 911” and a through body 912”, the lower end of which is connected to the locking end 911”, and the upper end of which penetrates the base 2’. The first extension arm 93” and the second extension arm 94” are respectively provided with locking parts 91” facing opposite directions. The upper end of the through body 912” of one locking part 91” is connected to the first extension arm 93”, and the upper end of the through body 912” of the other locking part 91” is connected to the second extension arm 94”, but this invention is not limited thereto. Furthermore, the connector 3’ also has a clearance groove S3’ for accommodating the through body 912” and the locking end 911”. When the locking part 91” is retracted relative to the connector 3’, the through body 912” and the locking end 911” are retracted into the clearance groove S3’. Please refer to [further details omitted]. Figures 44 to 50 Furthermore, in another embodiment of this utility model, at least a portion of the locking bracket 9” is disposed on one of the card seats 8’. When the active rotating member 41” drives the locking bracket 9” to rotate, the locking part 91” of the first extension arm 93” protrudes or retracts relative to the plug member 3’, and the locking part 91” of the second extension arm 94” protrudes or retracts relative to its corresponding card seat 8’. The card seat 8’ and the plug member 3’ are respectively provided with relief grooves S3’ for accommodating the locking part 91”. When the locking part 91” of the first extension arm 93” is retracted relative to the plug member 3’, and the locking part 91” of the second extension arm 94” is retracted relative to its corresponding card seat 8’, the penetrating body 912 The locking end 911 is housed within the clearance groove S3' to prevent obstruction when the track socket is inserted into or removed from the conductive track. The clearance groove S3' may or may not penetrate the connector 3' and the card holder 8'; this utility model is not limited thereto. In addition, the active rotating member 41" is provided with three limiting ribs corresponding to the locking bracket 9" to control the locking bracket 9" in the position where the hook protrudes from the card holder 8'. The three limiting ribs are the first abutment part 415", 414A", 4113B", 4114C", the second abutment part 416", 415A", 4114B", 4115C", and the third abutment part 417". The working principle of the limiting ribs will be further explained in the following embodiments.

[0301] Please see Figures 44 to 47In one specific embodiment, a torsional elastic element 95 is further provided inside the collar 92" of the locking bracket 9". One end of the torsional elastic element 95" is fixedly mounted on the base 2', and the other end of the torsional elastic element 95" abuts against the first abutting portions 415", 414A", 4113B", and 4114C" provided on the active rotating members 41", 41A", 41B", and 41C". Specifically, the torsional elastic element 95" is arranged around the E-polar conductive member 7', and the torsional elastic element 95" is a torsion spring, but in this practical application... The novel design is not limited to this. The second extension arm 94” is further provided with a first compression part 96 facing opposite to the locking part 91”. The active rotating members 41”, 41A”, 41B”, and 41C” are also provided with second abutment parts 416”, 415A”, 4114B”, and 4115C” corresponding to the first compression part 96”. Furthermore, the base 2’ is also provided with a second spring 6S’, one end of which is mounted on the first compression part 96”, and the other end of which is mounted on the base 2’.

[0302] In one specific embodiment, the first compression part 96” further includes a connecting plate 961”. When the outer casing 1’ is rotated counterclockwise, the second abutting parts 416”, 415A”, 4114B”, and 4115C” drive the connecting plate 961” to rotate, thereby causing the locking bracket 9” to rotate and the locking part 91” to be housed relative to the plug-in part 3’ and / or the card seat 8’. The side of the connecting plate 961” facing the second spring 6S’ is also provided with a positioning post 962” for installing the second spring 6S’. The positioning post 962” is centrally located on the connecting plate 961”, and one end of the second spring 6S’ is sleeved on the positioning post 962”, but this utility model is not limited thereto. In addition, the base 2’ is also provided with an installation channel S4’ for accommodating the second spring 6S’. The installation channel S4’ is arranged along the extension direction of the first compression part 96”. Specifically, the other end of the second spring 6S’ is disposed in the installation channel S4’, but this utility model is not limited thereto. Please refer to the following references. Figure 51Furthermore, the active rotating member 41” is also provided with a third abutment 417” corresponding to the second extension arm 94”. When the user applies force to rotate the outer casing 1” counterclockwise, the first abutment 415” of the active rotating member 41” drives one end of the torsional elastic member 95” to rotate counterclockwise, the second abutment 416” drives the connecting plate 961” to rotate counterclockwise, and the third abutment 417” drives the second extension arm 94” to rotate counterclockwise, thereby counteracting the torque of the torsional elastic member 95” and the elastic force of the second spring 6S’, thus locking the locking part of the latch bracket 9”. The 91” portion is retracted relative to the connector 3' and / or the slot 8', allowing the track socket to be inserted into or unlocked from the conductive track. When the track socket is inserted into or removed from the conductive track, and the user stops applying force to rotate the housing 1', the locking bracket 9” rotates clockwise to reset due to the torque of the torsional elastic element 95” and the elastic force of the second spring 6S', causing the locking part 91” to protrude relative to the connector 3' and / or the slot 8', thus locking the track socket in the conductive track or preventing accidental insertion into the conductive track for power supply. It should be noted that the above specific embodiment is based on... Figure 44 and Figure 51 The embodiments shown are illustrated below, while Figures 45 to 47 The specific implementation methods and beneficial technical effects of the active rotating components 41A”, 41B”, 41C”, locking bracket 9”, second spring 6S’ and torsional elastic component 95” in the embodiment shown are the same as those described above, and will not be repeated here.

[0303] In this embodiment of the invention, by setting a locking bracket 9” and active rotating parts 41”, 41A”, 41B”, and 41C” that cooperate with the locking bracket 9”, the track socket achieves the function of locking or unlocking with the conductive track by rotation. By eliminating the traditional button switch unlocking structure in existing track sockets, the operation logic of the track socket of this invention is simpler, the overall product is stronger, and it can effectively prevent foreign objects from entering the body. In addition, by setting a torsion elastic part 95” and a second spring 6S’ to reset the locking bracket 9”, the track socket can only be locked or unlocked when the user actively applies force to rotate the rotating shell 1’, avoiding safety hazards caused by accidental touch or child misoperation, such as the track socket being pulled out or accidentally inserted into the conductive track during use, further improving the safety protection of the track socket.

[0304] In a preferred embodiment, the socket structure is a high-voltage structure. The high-voltage structure further includes: a conductive socket 112B corresponding to the five-hole socket 141B” mounted on the first PCB board 117B”; a second PCB board 118B is also provided below the first PCB board 117B”; the first PCB board 117B” and the second PCB board 118B” are electrically connected by a pin 115B” soldered between the first PCB board 117B” and the second PCB board 118B”; an insulating plate 11B is provided below the second PCB board 118B”; the insulating mounting plate has a mounting hole in the middle for mounting the E-pole conductive post; the E-pole conductive post extends downward from the bottom of the base 2'; a torsion spring is sleeved on the outside of the E-pole conductive post so that the E-pole conductive post elastically abuts against the E-pole conductive sheet of the adapter track panel.

[0305] Please see Figure 54 and Figure 55 , Figure 54 This is a schematic diagram of the insert structure in one embodiment of the present invention. Figure 55 for Figure 54 A schematic diagram of the five-hole socket in the illustrated embodiment is shown.

[0306] In one specific embodiment, the socket structure is a high-voltage structure, which further includes an insulating plate 11B” disposed on the base 2'. The insulating plate 11B” also has a socket socket 111B” and a conductive socket 112B” disposed on it. The conductive socket 112B” corresponds to the socket socket 111B” and the conductive socket 112B” and the socket socket 111B” are electrically connected. Specifically, the insulating plate 11B” further has a second PCB board 118B” and a first PCB board 117B disposed on the second PCB board 118B”. The second PCB board 118B” is disposed under the first PCB board 117B” through multiple pins 115B”, and the first PCB board 117B” and the second PCB board 118B” are electrically connected through multiple pins 115B”. The first PCB board 117B” is provided with a conductive sleeve 112B corresponding to the socket sleeve 111B” and the lever 430”. The first PCB board 117B” is also provided with a WiFi smart module 116B”. It should be noted that the insulating board 11B” is also provided with other components or devices for realizing the socket function, which are existing technologies in this field and will not be described in detail here.

[0307] Furthermore, the socket sleeve 111B” is a five-hole high-voltage socket sleeve, which is electrically connected to the conductive sleeve 112B” via the first PCB board 117B”. Specifically, the five-hole high-voltage socket sleeve further includes two L-pole sleeves 1111B”, two N-pole sleeves 1112B”, and one E-pole sleeve 1113B”. The two L-pole sleeves 1111B” and two N-pole sleeves 1112B” are disposed on the first PCB board 117B” and are electrically connected to the conductive sleeve 112B” respectively. A mounting groove (not shown) is provided at the bottom of the track panel, and the E-pole sleeve 1113B” is disposed in the mounting groove. The E-pole sleeve 1113B” further contains an E-pole conductive sheet. The conductive sleeve 112B” is electrically connected to the L-pole sleeves 1111B” and the N-pole sleeves 1112B” via copper strips, but this utility model is not limited thereto.

[0308] Furthermore, the lever 430” is electrically connected to the conductive socket 112B”. Specifically, the lever 430” passes through the first PCB board 117B” and the second PCB board 118B” along a direction parallel to the rotation axis of the rotating housing 1', and is electrically connected to the conductive socket 112B”. Wherein, as Figure 54 As shown, there are two levers 430” and two conductive sleeves 112B”, which are respectively disposed on the first PCB board 117B” corresponding to the two levers 430” and the socket sleeves 111B”. The two levers 430” are vertically inserted through the first PCB board 117B” and the second PCB board 118B”, and the upper parts of the two levers 430” are electrically connected to the corresponding conductive sleeves 112B”. The E-pole conductive element 7' is electrically connected to the socket sleeve 111B”. Specifically, the E-pole conductive element 7' is inserted through the second PCB board 118B” along the rotation axis parallel to the rotating housing 1' and is electrically connected to the E-pole sleeve 1113B”. The E-pole conductive element 7' is vertically inserted through the second PCB board 118B” and its upper part is electrically connected to the E-pole sleeve 1113B”. The insulating plate 11B” has a mounting hole in the middle for mounting the E-pole conductive element 7', and the E-pole conductive element 7' extends downward out of the bottom of the base 2'. In this design, the E-polar conductive component 7' is an E-polar conductive post, and the insulating plate 11B” is an insulating mounting plate, but this invention is not limited thereto. Furthermore, a torsion spring (not shown) is fitted onto the E-polar conductive component 7', with one end of the torsion spring elastically abutting against the E-polar conductive piece of the E-polar plug 1113B”. The torsion spring provides a reverse force when the electronic device is inserted into the track socket, preventing the plug from damaging the track socket's plug structure, thus providing cushioning protection and improving the user's feel.

[0309] Please refer to the following: Figure 55In one specific embodiment, the adapter's track panel further includes a socket panel 14B. The socket panel 14B has a five-hole socket 141B corresponding to the socket sleeve 111B and the conductive sleeve 112B. In a preferred embodiment, the socket panel 14B also includes an indicator light 142B. An indicator notch 143B is provided on the outer side of the rotating housing 1' near the socket panel 14B to assist in guiding the installation and use of the track socket. The indicator light 142B is a circular indicator light, and the indicator notch 143B... The notch is strip-shaped, but this utility model is not limited thereto. Furthermore, a button 15B is also provided on the rotating housing 1', and a switch element 16B is also provided on the second PCB board 118B corresponding to the button 15B. The switch element 16B is electrically connected to the WiFi smart module 116B through the first PCB board 117B and the second PCB board 118B. The user can trigger the switch element 16B by pressing the button 15B on the rotating housing 1' to turn the WiFi smart module 116B on or off.

[0310] In a preferred embodiment, the socket structure is a high-voltage structure. The high-voltage structure further includes: a conductive socket 112A” mounted on an insulating plate 11A”, the insulating mounting plate has a mounting hole in the middle for mounting the E-pole conductive post, the E-pole conductive post extends downward from the bottom of the base 2', and a torsion spring is sleeved on the outside of the E-pole conductive post so that the E-pole conductive post elastically abuts against the E-pole conductive sheet of the track panel.

[0311] Please see Figure 56 and Figure 57 , Figure 56 This is a schematic diagram of the insert structure in one embodiment of the present invention. Figure 57 for Figure 56 A schematic diagram of the five-hole socket in the illustrated embodiment is shown.

[0312] In one specific embodiment, the socket structure further includes an insulating plate 11A disposed on the base 2'. The insulating plate 11A" is also provided with a socket socket 111A" and a conductive socket 112A", the conductive socket 112A" is disposed corresponding to the socket socket 111A", and the conductive socket 112A" and the socket socket 111A" are electrically connected. Specifically, the socket socket 111A" is a five-hole socket socket, and the five-hole socket socket further includes two L-pole sockets 1111A" and two N-pole sockets 1112A" and one E-pole socket 1113A". The conductive socket 112A” further includes a first conductive socket 1121A” and a second conductive socket 1122A”. The first conductive socket 1121A” is fixedly connected to two L-pole sockets 1111A”, and the second conductive socket 1122A” is fixedly connected to two N-pole sockets 1112A”. The conductive socket 112A” is electrically connected to the socket socket 111A” via a copper strip. The E-pole socket 1113A” further contains an E-pole conductive sheet, but this invention is not limited thereto. It should be noted that the insulating plate 11A” also has other components or devices for realizing the socket function, which are existing technologies in the field and will not be described in detail here.

[0313] Furthermore, the lever 430” is electrically connected to the conductive sleeve 112A”. Specifically, the lever 430” passes through the insulating plate 11A” along a direction parallel to the rotation axis of the rotating housing 1' and is electrically connected to the first conductive sleeve 1121A” and the second conductive sleeve 1122A”. Wherein, as Figure 56 As shown, two levers 430” are vertically inserted through the insulating plate 11A”, and the upper parts of the two levers 430” are electrically connected to the first conductive sleeve 1121A” and the second conductive sleeve 1122A”, respectively. The E-pole conductive element 7' is electrically connected to the socket sleeve 111A”. Specifically, the E-pole conductive element 7' is inserted through the insulating plate 11A” along a direction parallel to the rotation axis of the rotating housing 1” and is electrically connected to the E-pole sleeve 1113A”. The E-pole conductive element 7' is vertically inserted through the insulating plate 11A” and its upper part is electrically connected to the E-pole sleeve 1113A”. The insulating plate 11A” has a mounting hole in the middle for mounting the E-pole conductive element 7', and the E-pole conductive element 7' extends downward out of the bottom of the base 2'. The E-pole conductive element 7' is an E-pole conductive post, and the insulating plate 11A” is an insulating mounting plate, but this utility model is not limited thereto. In addition, a torsion spring (not shown) is also fitted on the E-polar conductive component 7'. The torsion spring is fitted on the upper part of the E-polar conductive component 7', and one end of the torsion spring elastically abuts against the E-polar conductive piece of the E-polar socket 1113A". The torsion spring provides a reverse force when the electronic device is inserted into the track socket, preventing the plug of the electronic device from damaging the socket's socket structure, thus playing a buffering and protective role, and improving the user's feel.

[0314] Please refer to the following: Figure 57The adapter's track panel further includes a socket panel 14A, which has a five-hole socket 141A corresponding to the socket sleeve 111A. In a preferred embodiment, the socket panel 14A also includes an indicator light 142A, and an indicator notch 143A is provided on the outer side of the rotating housing 1' near the socket panel 14A to assist in guiding the installation and use of the track socket. The indicator light 142A is a circular indicator light, and the indicator notch 143A is a strip-shaped notch, but this invention is not limited thereto.

[0315] In a preferred embodiment, the socket structure is a USB interface structure. The USB interface structure further includes: a first USB circuit board 12a” and a second USB circuit board 12b”, and a USB signal connection board 13” plugged between the first USB circuit board 12a” and the second USB circuit board 12b”; a USB insulating board 11 is also provided below the second USB circuit board 12b”; and a Type-A interface 1221” and a Type-C interface 1222” are provided on the first USB circuit board 12a”.

[0316] Please refer to the following: Figures 58 to 60 , Figure 58 This is a top view of the socket structure in one embodiment of the present invention. Figure 59 for Figure 58 The illustrated embodiment shows a schematic diagram of the socket structure. Figure 60 for Figure 58 The illustrated embodiment shows a schematic diagram of the Type-A and Type-C jacks.

[0317] In one specific embodiment, the socket structure further includes a USB insulating plate 11” disposed on the base 2”, and a USB circuit board 12” is also disposed on the USB insulating plate 11”. The USB circuit board 12” is provided with a conductive socket 121 corresponding to the lever 430”, and the upper part of the lever 430” is electrically connected to the conductive socket 121”. In addition, the USB circuit board 12” is also provided with a USB interface 122”. It should be noted that the USB insulating plate 11” is also provided with other components or devices for realizing the socket function, which are existing technologies in the art and will not be described in detail here.

[0318] Furthermore, the USB circuit board 12” further includes a second USB circuit board 12b disposed on the USB insulating plate 11”, and a conductive socket 121” disposed on the second USB circuit board 12b” and corresponding to the lever 430”. The lever 430” extends through the USB insulating plate 11” and the second USB circuit board 12b” along a direction parallel to the rotation axis of the rotating housing 1'. Specifically, the lever 430” vertically extends through the USB insulating plate 11” and the second USB circuit board 12b”, and its upper part is electrically connected to the conductive socket 121”. Figure 58 As shown, the second USB circuit board 12b” has two conductive sockets 121” corresponding to the two levers 430” respectively. In addition, a first USB circuit board 12a” is also provided on the second USB circuit board 12b”. A USB signal connection board 13” is inserted between the first USB circuit board 12a” and the second USB circuit board 12b” and is electrically connected through the USB signal connection board 13”. The USB interface 122” further includes a Type-A interface 1221” and a Type-C interface 1222” provided on the first USB circuit board 12a”. The USB interface 122” can also be other combinations or only have a Type-A interface 1221” or a Type-C interface 1222”. This utility model is not limited to this. Furthermore, since the rail socket with USB interface 122” has a low operating voltage, no grounding wire is required. Therefore, in this embodiment, there is no need to provide an E-pole conductive element 7’.

[0319] Please refer to the following: Figure 60 In one specific embodiment, the adapter's track panel further includes a socket panel 14". The socket panel 14" is disposed on the second USB circuit board 12b". The socket panel 14" is provided with a Type-A socket 141" and a Type-C socket 142" corresponding to the Type-A interface 1221" and the Type-C interface 1222". As a preferred embodiment, the socket panel 14" is also provided with an indicator light 143". An indicator notch 145" is provided on the outer side of the rotating housing 1' near the socket panel 14" to assist in guiding the installation and use of the track socket. The indicator light 143" is a circular indicator light and is electrically connected to the first USB circuit board 12a". The indicator notch 145" is a strip-shaped notch, but the present invention is not limited thereto.

[0320] In this embodiment of the utility model, the various layers and components / assemblies of the track socket adapter are stacked on the base 2' and connected by screws 23, but this utility model is not limited thereto. This utility model achieves a simpler and more convenient track socket structure by fitting a rotating outer shell 1' onto the base 2', and then stacking the socket panels 14”, 14A”, 14B”, socket structure, insulating plate, passive connector 43”, locking bracket 9”, and base 2' inside the rotating outer shell 1', and connecting them layer by layer with long screws. This avoids the complex structural mode of existing track sockets that mix drive components and sockets. The specific operation method and working principle of the track socket in this embodiment of the utility model are the same as described above, and will not be repeated here.

[0321] Please refer to the following: Figure 61 and Figure 62 , Figure 61 This is a schematic diagram of the structure of a track socket adapter locked to a conductive track according to an embodiment of the present invention. Figure 62 This is a schematic diagram of the structure of a track socket adapter unlocked onto a conductive track according to one embodiment of the present invention.

[0322] To better achieve the purpose of this utility model, it also provides a conductive track CT for installing a track socket, wherein the track socket is any of the track sockets described above. In one specific embodiment, the conductive track is provided with a track conductive plate CS, which is used to contact the conductive arm 421. When the track socket is in a de-energized state and the locking part 91 is retracted relative to the connector 3 (i.e., when the locking part 91 is retracted into the connector 3), the adapter is unlocked from the conductive track CT, and therefore the adapter can move within the conductive track CT, and the conductive arm 421 does not contact the track conductive plate CS. When the track socket is in a energized state, the locking part 91 protrudes relative to the connector 3 and is secured in the slot G of the conductive track CT, locking the adapter within the conductive track CT and preventing it from moving. By rotating the outer casing 1, the conductive arm 421 can be unfolded relative to the connector 3, allowing the conductive arm 421 to elastically contact the track conductive plate CS within the conductive track CT for power extraction. The extension direction of the slot G is parallel to the extension direction of the conductive track, but this utility model is not limited thereto. Furthermore, in other embodiments of this utility model, the working principle of the locking component 9' and the locking bracket 9" and the conductive track CT is the same as described above, and will not be repeated here.

[0323] The above provides a detailed description of the track socket and the conductive track for mounting the track socket provided by this utility model. The various embodiments in the specification are described in a progressive manner, with each embodiment focusing on its differences from other embodiments. Similar or identical parts between embodiments can be referred to interchangeably. Regarding the conductive track disclosed in the embodiments, since it corresponds to the track socket disclosed in the embodiments, the description is relatively simple; relevant parts can be referred to the description of the track socket.

[0324] Of course, there may be other embodiments of this utility model. Without departing from the spirit and essence of this utility model, those skilled in the art can make various corresponding changes and modifications based on this utility model, but these corresponding changes and modifications should all fall within the protection scope of the appended claims of this utility model.

Claims

1. A track socket comprising an adapter with a socket structure, the adapter including a rotating housing and a base, characterized in that, The rotating outer shell is rotatably fitted onto the base. A connector is fixedly connected to the bottom of the base. The rotating outer shell is provided with a rotating power-on assembly electrically connected to the connector structure and a drive assembly for driving the rotating power-on assembly to rotate. The rotating power-on assembly includes a conductive arm movably connected to an external conductive track. The conductive arm is rotatably connected to the connector on a side facing away from the connector structure. The drive assembly drives the conductive arm to retract or unfold relative to the connector. The unfolding angle of the conductive arm is an acute angle, and the openings of the unfolding angles of the conductive arm are the same. The rotating power-on assembly includes the driving assembly, and the driving assembly further includes: An active rotating component is fixedly connected to the rotating housing; and, A passive rotating component is disposed through the base and electrically connected to the socket structure. The passive rotating component further includes a passive rotating body and a conductive arm connected to the passive rotating body, the conductive arm being located at the socket. The active rotating component drives the passive rotating body to rotate, so that the conductive arm is in a retracted or extended state relative to the plug-in component.

2. The track socket according to claim 1, characterized in that, The active rotating component is an integral structure, and the active rotating component has at least one end that is fixedly connected to the rotating housing.

3. The track socket according to claim 1, characterized in that, The active rotating component includes at least a first active rotating component and a second active rotating component. The first active rotating component and the second active rotating component are separate structures. One end of the first active rotating component and at least one end of the second active rotating component are respectively fixedly connected to the rotating outer shell.

4. The track socket according to claim 1, 2 or 3, characterized in that, The active rotating component is provided with a first rotating protrusion and a second rotating protrusion. The active rotating component drives the passive rotating body to rotate through the first rotating protrusion and the second rotating protrusion, thereby causing the conductive arm to rotate.

5. The track socket according to claim 4, characterized in that, The base is also provided with a flexible elastic element with one end being free and the other end being fixed. The flexible elastic element is provided with limiting points corresponding to the stowed state and the unfolded state; and... The active rotating component is further provided with a third rotating protrusion, which abuts against one side of the flexible elastic component.

6. The track socket according to claim 5, characterized in that, The flexible elastic element is an irregularly shaped retaining spring, and the base is also provided with a fixing groove, and the fixing end of the irregularly shaped retaining spring is fixed on the fixing groove.

7. The track socket according to claim 6, characterized in that, The irregularly shaped retaining ring has a first limiting point, a second limiting point, and a third limiting point, wherein the second limiting point is located between the first limiting point and the third limiting point; wherein... When the third rotating protrusion abuts against the first limiting point, the conductive arm rotates to a first angular position, the first angular position corresponding to the retracted state of the conductive arm; and When the third rotating protrusion abuts against the third limiting point, the conductive arm rotates to a second angular position, which corresponds to the unfolded state of the conductive arm.

8. The track socket according to claim 5, characterized in that, The base is also provided with a limiting spring and a fixing member for fixing the limiting spring. One end of the limiting spring is fixed to the fixing member, and the other end of the limiting spring abuts against the other side of the flexible elastic member.

9. The track socket according to claim 1, 2 or 3, characterized in that, The passive rotating body is a lever, the upper part of which is located inside the rotating housing, and the lower part of which is located at the connector and fixedly connected to the conductive arm; wherein, The upper part of the lever is also provided with a toggle element, and the active rotating element drives the lever to rotate through the toggle element.

10. The track socket according to claim 9, characterized in that, The upper part of the lever is also provided with a back-facing actuating component. The actuating component and the back-facing actuating component are arranged opposite to the lever. The active rotating component drives the lever to rotate through the actuating component and the back-facing actuating component.

11. The track socket according to claim 9, characterized in that, The extension direction of the lever is perpendicular to the extension direction of the conductive track, and the actuating element is an A-shaped paddle that is perpendicular to the lever.

12. The track socket according to claim 1, 2 or 3, characterized in that, The adapter further includes an E-polar conductive element disposed on the base, the E-polar conductive element passing through the base and the connector in a direction parallel to the rotation axis of the rotating housing and extending out of the connector in a direction away from the base.

13. The track socket according to claim 12, characterized in that, The conductive arm includes at least a first conductive arm and a second conductive arm, and the first conductive arm and the second conductive arm are asymmetrically arranged relative to the E-polar conductive element.

14. The track socket according to claim 12, characterized in that, The upper part of the E-polar conductive element is located inside the rotating housing and has a cylindrical structure, while the lower part of the E-polar conductive element extends out of the connector and has a cuboid structure.

15. The track socket according to claim 1, 2 or 3, characterized in that, The adapter further includes a locking bracket disposed on the base, the locking bracket comprising: The locking part extends through the base along the rotation axis parallel to the rotating housing and is located above the conductive arm; wherein, when the active rotating member drives the locking bracket to rotate, the locking part is retracted or protruded relative to the plug-in member, so that the locking bracket is unlocked or locked in the conductive track.

16. The track socket according to claim 15, characterized in that, The locking bracket further includes: A first extension arm and a second extension arm are respectively provided on both sides of the connecting part, and the first extension arm and the second extension arm are respectively provided with locking parts facing opposite directions; wherein, the locking parts of the first extension arm and the second extension arm are retracted or protruded relative to the plug-in member.

17. The track socket according to claim 16, characterized in that, The connecting part is also provided with a torsional elastic element. One end of the torsional elastic element is fixedly disposed on the base, and the other end of the torsional elastic element abuts against the first abutting part disposed on the active rotating part. The first or second extension arm is further provided with a reset portion facing opposite to the locking portion, and the active rotating member is further provided with a second abutment portion corresponding to the reset portion; and, The base is also provided with a reset spring, one end of which is installed on the reset part and the other end of which is installed on the base.

18. The track socket according to claim 17, characterized in that, The reset unit further includes: A connecting plate is provided, and a spring seat is provided on the side of the connecting plate facing the reset spring, and one end of the reset spring is mounted on the spring seat; The base also has a reset space to accommodate the reset spring; and, The active rotating member is further provided with a third abutting part corresponding to the first extending arm and / or the second extending arm; wherein, the active rotating member drives the locking bracket to rotate through the first abutting part, the second abutting part and the third abutting part.

19. The track socket according to claim 15, characterized in that, The adapter further includes a card holder disposed on the base, the card holder extending through the base along a direction parallel to the rotation axis of the rotating housing and located above the conductive arm; The locking part further includes a locking end and a through body, the lower end of the through body being connected to the locking end, and the upper end of the through body penetrating the base; and... The connector also has a clearance groove for accommodating the through body and the locking end.

20. The track socket according to claim 12, characterized in that, The socket structure further includes: An insulating board is disposed on the base. The insulating board also has a socket sleeve and a conductive sleeve, the conductive sleeve being disposed corresponding to and electrically connected to the socket sleeve; and A protective door is provided on the insulating plate and has a protective door socket corresponding to the socket sleeve. The protective door also has a blocking part for blocking the protective door socket. The passive rotating body is electrically connected to the conductive socket, and the E-polar conductive element is electrically connected to the socket socket.

21. The track socket according to claim 20, characterized in that, The socket sleeve is a five-hole socket sleeve, and the five-hole socket sleeve further includes: Two L-type sockets, two N-type sockets, and one E-type socket; and, The conductive socket further includes a first conductive socket fixedly connected to the two L-pole sockets and a second conductive socket fixedly connected to the two N-pole sockets; Wherein, the passive rotating body penetrates the insulating plate along a rotational axis parallel to the rotating outer shell and is electrically connected to the first conductive sleeve and the second conductive sleeve; and, The E-polar conductive element penetrates the insulating plate along a direction parallel to the rotation axis of the rotating outer shell and is electrically connected to the E-polar socket. A conductive spring is also fitted on the E-polar conductive element.

22. The track socket according to claim 20, characterized in that, The insulating plate further includes: The first PCB board is mounted on the base. A second PCB board is mounted on and electrically connected to the first PCB board via pins. The second PCB board has a conductive sleeve corresponding to the passive rotating body. A WiFi smart module is also mounted on the second PCB board. The socket socket is a five-hole high-voltage socket, which is electrically connected to the conductive socket via the second PCB board. The five-hole high-voltage socket further includes: Two L-type sockets and two N-type sockets are disposed on the second PCB board; and An E-pole socket is provided at the bottom of the protective door; wherein... The passive rotating body extends through the first PCB board and the second PCB board along a rotation axis parallel to the rotating outer shell and is electrically connected to the conductive socket; and, The E-polar conductive element passes through the first PCB board along a direction parallel to the rotation axis of the rotating housing and is electrically connected to the E-polar socket. A conductive spring is also fitted on the E-polar conductive element.

23. A conductive rail for mounting a track socket, characterized in that, The track socket is as described in any one of claims 1-22, wherein the conductive track is provided with a track conductive plate, the track conductive plate being used to contact the conductive arm; wherein... When the locking portion of the locking bracket of the track socket is retracted relative to the plug, the adapter can move within the conductive track; and, When the locking portion of the latch bracket protrudes relative to the connector, the adapter is locked within the conductive track.

Images