Track socket and conductive track for mounting track socket

Abstract

The present invention provides a track socket and a conductive track for mounting a track socket. The track socket comprises an adapter. The adapter comprises a rotating housing and a base. A rotating power-on assembly electrically connected to an insertion sleeve structure and a driving assembly for driving the rotating power-on assembly to rotate are disposed in the rotating housing, and an insertion and connection member is fixedly connected below the base. The rotating power-on assembly comprises conductive arms movably connected to an external conductive track, and the conductive arms are rotatably connected to the side of the insertion and connection member facing away from the direction of the insertion sleeve. The driving assembly drives the conductive arms to be folded in or unfolded relative to the insertion and connection member, unfolding angles of the conductive arms are acute angles, and openings of the unfolding angles of the conductive arms are the same. In the present invention, the convenience of use and safety of the track socket are improved; in addition, contact distances between the conductive arms of the track socket and conductive pieces in the conductive track are increased, further improving the safety of use of the track socket.

Description

Rail socket and conductive rail for mounting the rail socket TECHNICAL FIELD

[0001] The present application relates to the technical field of electrical connection, in particular to a rail socket and a conductive rail for mounting the rail socket. BACKGROUND

[0002] The existing rail socket is usually provided with a conductive arm for contacting the conductive sheet in the conductive rail, and the conductive arm is provided with an N-pole conductive sheet and an L-pole conductive sheet. The N-pole conductive sheet and the L-pole conductive sheet are in contact or not in contact with the conductive sheet of the conductive rail to realize the power-on and power-off of the rail socket.

[0003] However, as users have higher and higher demands for the use convenience and safety protection of the power socket, the traditional way of controlling the power socket through the switch key has certain limitations. Specifically, when the electrical plug inserted into the power socket is large in size, the switch key cannot be conveniently pressed due to the shielding of the electrical plug on the switch key, and the switch key needs to be pressed with a certain force, which can cause discomfort of the user's hands after long-term and frequent use; the service life of the switch key is limited, and long-term and frequent pressing of the switch key can easily cause deformation of the key, thereby causing the problems of poor contact or damage of the power socket; the operation of the switch key is intuitive and simple for children, and cannot effectively protect against the children's mistaken opening or mistaken insertion, which has potential safety risks.

[0004] In addition, the traditional conductive arm and its N-pole conductive sheet and L-pole conductive sheet have certain limitations in the setting mode in the rail socket. Specifically, the existing conductive arm is usually arranged at the bottom of the rail socket, and the conductive arm is arranged centrally or at both sides of the bottom of the rail socket and closely abuts the two side edges. Therefore, the contact distance between the N-pole conductive sheet and the L-pole conductive sheet on the conductive arm and the conductive sheet in the conductive rail is reduced, which has safety hazards. At the same time, it is also easy to cause unstable contact connection between the N-pole conductive sheet and the L-pole conductive sheet and the conductive sheet in the conductive rail.

[0005] Therefore, it is necessary to design a rail socket and a conductive rail for mounting the rail socket, which can further improve the use convenience and safety of the rail socket on the basis of realizing the basic functions of power-on and power-off of the rail socket, and at the same time, increase the contact distance between the conductive arm and the conductive sheet in the conductive rail, enhance the connection stability of the conductive arm and the conductive rail, and improve the use safety of the rail socket. SUMMARY

[0006] The track socket and the conductive track for installing the track socket are provided to solve the inconvenience of the power socket with the switch button in the prior art and the connection stability and safety problems caused by the arrangement of the conductive arm of the track socket.

[0007] To achieve the above object, the track socket comprises an adapter, the adapter comprises a rotating shell and a base, the rotating shell is internally provided with a rotating power-on assembly electrically connected with a sleeve structure and a driving assembly for driving the rotating power-on assembly to rotate, the base is fixedly connected with a plug-in piece below, the rotating power-on assembly comprises a conductive arm movably connected with an external conductive track, the conductive arm is movably connected on one side of the plug-in piece opposite to the sleeve direction, the driving assembly drives the conductive arm to be stored or unfolded relative to the plug-in piece, the unfolding angle of the conductive arm is an acute angle, and the unfolding angle openings of the conductive arms are the same.

[0008] The track socket provided by the application can further improve the convenience and safety of the track socket on the basis of realizing the basic functions of power-on and power-off of the track socket, increase the contact distance between the conductive arm and the conductive sheet in the conductive track, enhance the connection stability of the conductive arm and the conductive track, and improve the safety of the track socket.

[0009] The track socket further comprises an E-pole conductive piece centrally arranged on the plug-in piece, the E-pole conductive piece is located between the conductive arms, and the fixed connection end of the conductive arm is not equidistant from the E-pole conductive piece.

[0010] The track socket further comprises a rotating rod rotatably arranged in the plug-in piece, the bottom end of the rotating rod is connected with the conductive arm, both sides of the plug-in piece are provided with a rotating rod slot for accommodating the rotating rod, and the bottom of the rotating rod slot is provided with a conductive arm slot for accommodating the conductive arm.

[0011] The track socket further comprises a rotating rod rotatably arranged in the plug-in piece, the bottom end of the rotating rod is connected with the conductive arm, both sides of the plug-in piece are provided with a rotating rod slot for accommodating the rotating rod, and the bottom of the rotating rod slot is provided with a conductive arm slot for accommodating the conductive arm.

[0012] The track socket further comprises a rotating rod rotatably arranged in the plug-in piece, the bottom end of the rotating rod is connected with the conductive arm, both sides of the plug-in piece are provided with a rotating rod slot for accommodating the rotating rod, and the bottom of the rotating rod slot is provided with a conductive arm slot for accommodating the conductive arm.

[0013] The track socket further comprises a rotating rod rotatably arranged in the plug-in piece, the bottom end of the rotating rod is connected with the conductive arm, both sides of the plug-in piece are provided with a rotating rod slot for accommodating the rotating rod, and the bottom of the rotating rod slot is provided with a conductive arm slot for accommodating the conductive arm.

[0014] The track socket, the outer part of the E pole conducting part is further provided with an annular groove / annular boss, one end of the elastic part abuts against the insulating plate, and the other end is sleeved in the annular groove / annular boss.

[0015] The track socket, the rotating power-on assembly comprises a driving rotating part and a passive connecting part rotatably sleeved on the base, the driving rotating part comprises a first rotating protrusion and a second rotating protrusion, the passive connecting part comprises a rotating lever rotatably sleeved on the base and a conducting arm connected at a right angle with the rotating lever, and the upper part of the rotating lever is connected with a pressing piece matched with the first rotating protrusion and the second rotating protrusion; the driving rotating part is configured to drive the rotating lever to drive the conducting arm to expand or be accommodated through the matching of the rotating protrusions and the pressing piece.

[0016] The track socket, the rotating power-on assembly further comprises a limiting part, the limiting part comprises a special-shaped clamping spring arranged on the base and a first spring connected with the special-shaped clamping spring, the first spring is arranged in a mounting channel of the base, the first fixed end of the special-shaped clamping spring is L-shaped and extends into the free end of the spring, and the second fixed end of the special-shaped clamping spring is inserted into a fixed part of the base provided with an L-shaped clamping position.

[0017] The track socket, the special-shaped clamping spring comprises a first limiting point, a second limiting point and a third limiting point; the first rotating protrusion of the driving rotating part is subjected to the maximum resistance at the second limiting point, the first limiting point corresponds to the position of the conducting arm rotating to a first angle, and the third limiting point corresponds to the position of the conducting arm rotating to a second angle, and the electric contact head of the conducting arm abuts against the conducting piece of the track when the conducting arm rotates to the position of the second angle.

[0018] The track socket, the rotating power-on assembly further comprises a locking assembly, the locking assembly comprises a locking bracket arranged on the clamping seat, the locking bracket comprises a sleeve ring sleeved on the outer part of the E pole conducting rod, extension arms connected at two sides of the sleeve ring, and a locking part connected perpendicularly with the extension arms, and the locking part is in the form of a clamping hook; a first compression part is arranged in the opposite direction of the clamping hook on any extension arm, the first compression part is provided with a connecting plate, the connecting plate is centrally provided with a positioning column for placing a second spring, the base is further provided with a mounting channel of the second spring along the extension direction of the first compression part, and the driving rotating part is further provided with three limiting ribs corresponding to the locking bracket and used for controlling the locking bracket at the position where the clamping hook protrudes from the clamping seat.

[0019] The track socket, the plug-in structure is a strong current structure or a USB interface structure.

[0020] The track socket, the strong current structure further includes: the conductive bushing corresponding to the five-hole jack is installed on the first PCB plate, and a second PCB plate is further arranged below the first PCB plate, and the first PCB plate and the second PCB plate are electrically connected through the pin welded between the first PCB plate and the second PCB plate;An insulating plate is arranged below the second PCB plate, the middle part of the insulating mounting plate is provided with a mounting hole for mounting the E pole conductive column, the E pole conductive column extends downward out of the bottom of the base, and a torsional spring is sleeved outside the E pole conductive column, so that the E pole conductive column is elastically abutted on the E pole conductive sheet of the adaptive track panel.

[0021] The track socket, the strong current structure further includes: the conductive bushing corresponding to the five-hole jack is installed on the first PCB plate, and a second PCB plate is further arranged below the first PCB plate, and the first PCB plate and the second PCB plate are electrically connected through the pin welded between the first PCB plate and the second PCB plate;An insulating plate is arranged below the second PCB plate, the middle part of the insulating mounting plate is provided with a mounting hole for mounting the E pole conductive column, the E pole conductive column extends downward out of the bottom of the base, and a torsional spring is sleeved outside the E pole conductive column, so that the E pole conductive column is elastically abutted on the E pole conductive sheet of the adaptive track panel.

[0022] The track socket, the USB interface structure further includes: a first USB circuit board and a second USB circuit board, and a USB signal connecting plate is inserted between the first USB circuit board and the second USB circuit board;A USB insulating plate is further arranged below the second USB circuit board, and a Type-A interface and a Type-C interface are arranged on the first USB circuit board.

[0023] In order to better achieve the purpose of the application, the application also provides a track socket, which comprises an adapter with a bushing structure, the adapter comprises a rotating shell and a base, the rotating shell is rotatably sleeved on the base, the base is fixedly connected with a plug-in piece below, a rotating power-on assembly electrically connected with the bushing structure is arranged on the rotating shell, and a driving assembly for driving the rotating power-on assembly is arranged on the rotating shell, the rotating power-on assembly comprises a conductive arm movably connected with an external conductive track, and the conductive arm is rotatably connected with one side of the plug-in piece in a direction away from the bushing structure;The driving assembly drives the conductive arm to be stored or unfolded relative to the plug-in piece, the unfolding angle of the conductive arm is an acute angle, and the unfolding angle openings of the conductive arms are the same. The rotating power-on assembly further comprises: a passive rotating piece, the passive rotating piece comprises a conductive rotating body and a conductive arm connected with the conductive rotating body, an N pole conductive sheet and an L pole conductive sheet are further arranged on the conductive arm, and the N pole conductive sheet and the L pole conductive sheet are located at the plug-in piece;The rotating shell drives the conductive rotating body to rotate through the driving assembly, so that the N pole conductive sheet and the L pole conductive sheet are in a stored or unfolded state relative to the plug-in piece;Wherein, the N pole conductive sheet and the L pole conductive sheet are unfolded towards different sides of the plug-in piece, the opening directions of the unfolding angles of the N pole conductive sheet and the L pole conductive sheet are the same, and the unfolding angles of the N pole conductive sheet and the L pole conductive sheet are acute angles.

[0024] The track socket provided by the application can further improve the convenience and safety of the track socket, increase the contact distance between the conductive arm and the conductive sheet in the conductive track, enhance the connection stability of the conductive arm and the conductive track, and improve the use safety of the track socket on the basis of realizing the basic functions of power taking and power cutting of the track socket.

[0025] The track socket, the rotating power-on assembly comprises a driving assembly, and the driving assembly further comprises: a driving rotating piece fixedly connected with the rotating shell; wherein the conductive rotating body is arranged through the base and electrically connected with the socket structure, and the driving rotating piece drives the conductive rotating body to rotate, so that the conductive arm rotates.

[0026] The track socket, the driving rotating piece is an integral structure, and the driving rotating piece has at least one end fixedly connected with the rotating shell.

[0027] The track socket, the driving rotating piece comprises a first driving rotating piece and a second driving rotating piece, the first driving rotating piece and the second driving rotating piece are separate structures, and one end of the first driving rotating piece and at least one end of the second driving rotating piece are fixedly connected with the rotating shell respectively.

[0028] The track socket, the driving rotating piece is provided with a first rotating protrusion and a second rotating protrusion, and the driving rotating piece drives the conductive rotating body to rotate through the first rotating protrusion and the second rotating protrusion, so that the conductive arm rotates.

[0029] The track socket, the base is further provided with a flexible elastic piece having one free end and the other fixed end, the flexible elastic piece is provided with a limiting point corresponding to the storage state and the unfolded state; and the driving rotating piece is further provided with a third rotating protrusion abutting one side of the flexible elastic piece.

[0030] The track socket, the flexible elastic piece is a special-shaped clasp spring, and the base is further provided with a fixed clamping groove, and the fixed end of the special-shaped clasp spring is fixed in the fixed clamping groove.

[0031] The track socket, the special-shaped clasp spring has a first limiting point, a second limiting point and a third limiting point, and the second limiting point is located between the first limiting point and the third limiting point; wherein when the third rotating protrusion abuts the first limiting point, the N-pole conductive sheet and the L-pole conductive sheet rotate to a first angle position, and the first angle position corresponds to the storage state of the N-pole conductive sheet and the L-pole conductive sheet; and when the third rotating protrusion abuts the third limiting point, the N-pole conductive sheet and the L-pole conductive sheet rotate to a second angle position, and the second angle position corresponds to the unfolded state of the N-pole conductive sheet and the L-pole conductive sheet.

[0032] The track socket further comprises a limiting spring and a fixing member for fixing the limiting spring, one end of the limiting spring is fixed on the fixing member, and the other end of the limiting spring abuts against the other side of the flexible elastic member.

[0033] The track socket further comprises a limiting spring and a fixing member for fixing the limiting spring, one end of the limiting spring is fixed on the fixing member, and the other end of the limiting spring abuts against the other side of the flexible elastic member.

[0034] The track socket further comprises a limiting spring and a fixing member for fixing the limiting spring, one end of the limiting spring is fixed on the fixing member, and the other end of the limiting spring abuts against the other side of the flexible elastic member.

[0035] The track socket further comprises a limiting spring and a fixing member for fixing the limiting spring, one end of the limiting spring is fixed on the fixing member, and the other end of the limiting spring abuts against the other side of the flexible elastic member.

[0036] The track socket further comprises a limiting spring and a fixing member for fixing the limiting spring, one end of the limiting spring is fixed on the fixing member, and the other end of the limiting spring abuts against the other side of the flexible elastic member.

[0037] The track socket further comprises a limiting spring and a fixing member for fixing the limiting spring, one end of the limiting spring is fixed on the fixing member, and the other end of the limiting spring abuts against the other side of the flexible elastic member.

[0038] The track socket further comprises a limiting spring and a fixing member for fixing the limiting spring, one end of the limiting spring is fixed on the fixing member, and the other end of the limiting spring abuts against the other side of the flexible elastic member.

[0039] The track socket further comprises a limiting spring and a fixing member for fixing the limiting spring, one end of the limiting spring is fixed on the fixing member, and the other end of the limiting spring abuts against the other side of the flexible elastic member.

[0040] The track socket further comprises a limiting spring and a fixing member for fixing the limiting spring, one end of the limiting spring is fixed on the fixing member, and the other end of the limiting spring abuts against the other side of the flexible elastic member.

[0041] The track socket further comprises a limiting spring and a fixing member for fixing the limiting spring, one end of the limiting spring is fixed on the fixing member, and the other end of the limiting spring abuts against the other side of the flexible elastic member.

[0042] The track socket further comprises a first extension arm and a second extension arm respectively arranged on both sides of the connecting portion, the first extension arm and the second extension arm are respectively provided with locking portions facing opposite directions; wherein the locking portions of the first extension arm and the second extension arm are accommodated or protrude relative to the plug-in part.

[0043] The track socket further comprises a torsional elastic member arranged in the connecting portion, one end of the torsional elastic member is fixedly arranged on the base, the other end of the torsional elastic member abuts against a first abutting portion arranged on the driving rotary member; the first extension arm or the second extension arm is further provided with a reset portion opposite to the locking portion in direction, the driving rotary member is further provided with a second abutting portion corresponding to the reset portion; and the base is further provided with a reset spring, one end of the reset spring is mounted on the reset portion, and the other end of the reset spring is mounted on the base.

[0044] The track socket further comprises a connecting plate, one side of the connecting plate facing the reset spring is further provided with a spring seat, and one end of the reset spring is mounted on the spring seat; the base is further provided with a reset space accommodating the reset spring; and the driving rotary member is further provided with a third abutting portion corresponding to the first extension arm and / or the second extension arm; wherein the driving rotary member drives the lock bracket to rotate through the first abutting portion, the second abutting portion and the third abutting portion.

[0045] The track socket further comprises a clamping seat arranged on the base, the clamping seat penetrates through the base along a direction parallel to the rotation axis of the rotary shell and is located above the conductive arm. The locking portion further comprises a locking end and a penetrating body, the lower end of the penetrating body is connected with the locking end, and the upper end of the penetrating body penetrates through the base; and the plug-in part is further provided with an avoiding groove for accommodating the penetrating body and the locking end.

[0046] The track socket further comprises an insulating plate arranged on the base, the insulating plate is further provided with a socket sleeve and a conductive sleeve, the conductive sleeve is arranged corresponding to the socket sleeve and is electrically connected with the socket sleeve; and a protection door is arranged on the insulating plate and is provided with a protection door insertion hole corresponding to the socket sleeve, the protection door is further provided with a shielding portion for shielding the protection door insertion hole; wherein the conductive rotary body is electrically connected with the conductive sleeve, and the E-pole conductive part is electrically connected with the five-hole socket sleeve.

[0047] The track socket, the socket sleeve is a five-hole socket sleeve, the five-hole socket sleeve further comprises two L-pole sleeves, two N-pole sleeves and an E-pole sleeve; and the conductive sleeve further comprises a first conductive sleeve fixedly connected with the two L-pole sleeves and a second conductive sleeve fixedly connected with the two N-pole sleeves; wherein the conductive rotating body penetrates the insulating plate along a direction parallel to the rotating axis of the rotating shell and is electrically connected with the first conductive sleeve and the second conductive sleeve; and the E-pole conductive piece penetrates the insulating plate along a direction parallel to the rotating axis of the rotating shell and is electrically connected with the E-pole sleeve, and the E-pole conductive piece is further sleeved with a conductive piece spring.

[0048] The track socket, the insulating plate further comprises a first PCB plate arranged on the base, a second PCB plate arranged on the first PCB plate through pin needles and electrically connected with the first PCB plate, the second PCB plate is provided with a conductive sleeve corresponding to the conductive rotating body, and a WiFi intelligent module is further arranged on the second PCB plate; and the socket sleeve is a five-hole strong current socket, the five-hole strong current socket is electrically connected with the conductive sleeve through the second PCB plate, the five-hole strong current socket further comprises two L-pole sleeves and two N-pole sleeves arranged on the second PCB plate; and an E-pole sleeve arranged at the bottom of the protection door; wherein the conductive rotating body penetrates the first PCB plate and the second PCB plate along a direction parallel to the rotating axis of the rotating shell and is electrically connected with the conductive sleeve; and the E-pole conductive piece penetrates the first PCB plate along a direction parallel to the rotating axis of the rotating shell and is electrically connected with the E-pole sleeve, and the E-pole conductive piece is further sleeved with a conductive piece spring.

[0049] In order to better achieve the purpose of the present application, the present application further provides a conductive track for installing a track socket, the track socket being the track socket as described above, the conductive track being provided with a track conductive piece for contacting the conductive arm; wherein when the locking part of the locking bracket or the locking part of the locking assembly of the track socket is accommodated relative to the plug-in piece, the adapter can move in the conductive track; and when the locking part of the locking bracket or the locking part of the locking assembly of the track socket protrudes relative to the plug-in piece, the adapter is locked in the conductive track.

[0050] In addition, the conductive track provided by the present application corresponds to the above-mentioned track socket, and has the same beneficial technical effects.

[0051] In order to better understand the above and other aspects of the present application, the following embodiments are described in detail below with reference to the accompanying drawings, but not as a limitation on the scope of patent protection of the present application. BRIEF DESCRIPTION OF DRAWINGS

[0052] FIG. 1 is a front view of a track socket adapter according to an embodiment of the present application.

[0053] FIG. 2 is a left view of the track socket adapter according to the embodiment shown in FIG. 1.

[0054] Fig. 3 is a right view of the track socket adapter in the embodiment shown in Fig. 1.

[0055] Fig. 4 is a bottom view of the track socket adapter in the embodiment shown in Fig. 1.

[0056] Fig. 5 is a schematic view of the internal structure of the track socket adapter in the embodiment shown in Fig. 1 in a power-off state.

[0057] Fig. 6 is a schematic view of the internal structure of the track socket adapter in another embodiment of the present application in a power-off state.

[0058] Fig. 7 is a schematic view of the internal structure of the track socket adapter in yet another embodiment of the present application in a power-off state.

[0059] Fig. 8 is a schematic view of the internal structure of the track socket adapter in still another embodiment of the present application in a power-off state.

[0060] Fig. 9 is a schematic view of a flexible elastic member in an embodiment of the present application.

[0061] Fig. 10 is a schematic view of a conductive rotating body in an embodiment of the present application.

[0062] Fig. 11 is a schematic view of an E pole conductive member in an embodiment of the present application.

[0063] Fig. 12 is a schematic view of the structure on the base in the embodiment shown in Fig. 1.

[0064] Fig. 13 is a front view of a lock bracket in an embodiment of the present application.

[0065] Fig. 14 is an oblique view of a lock bracket in an embodiment of the present application.

[0066] Fig. 15 is a schematic view of the structure of the rotating shell and the lock bracket in the embodiment shown in Fig. 1.

[0067] Fig. 16 is a schematic view of the structure of the rotating shell and the socket structure in an embodiment of the present application.

[0068] Fig. 17 is a top view of the socket structure in the embodiment shown in Fig. 16.

[0069] Fig. 18 is a schematic view of the structure of the socket structure in the embodiment shown in Fig. 16.

[0070] Fig. 19 is a schematic view of the structure of a Type-A jack and a Type-C jack in the embodiment shown in Fig. 16.

[0071] Fig. 20 is a schematic view of the structure of the rotating shell and the socket structure in the embodiment shown in Fig. 1.

[0072] Fig. 21 is a top view of the protective door in the embodiment shown in Fig. 1.

[0073] Fig. 22 is a top view of the bushing structure in the embodiment shown in Fig. 1.

[0074] Fig. 23 is a structural schematic view of the bushing structure in the embodiment shown in Fig. 1.

[0075] Fig. 24 is a structural schematic view of the five-hole jack in the embodiment shown in Fig. 1.

[0076] Fig. 25 is a structural schematic view of the rotating housing and the bushing structure in another embodiment of the present application.

[0077] Fig. 26 is a top view of the protective door in the embodiment shown in Fig. 25.

[0078] Fig. 27 is a top view of the bushing structure in the embodiment shown in Fig. 25.

[0079] Fig. 28 is a structural schematic view of the bushing structure in the embodiment shown in Fig. 25.

[0080] Fig. 29 is a structural schematic view of the five-hole jack in the embodiment shown in Fig. 25.

[0081] Fig. 30 is an assembled perspective view of the track jack adapter in the embodiment shown in Fig. 1.

[0082] Fig. 31 is a bottom view of the track jack adapter in the embodiment shown in Fig. 1 in a power-off state.

[0083] Fig. 32 is a structural schematic view of the inside of the track jack adapter in the embodiment shown in Fig. 1 in a power-on state.

[0084] Fig. 33 is a structural schematic view of the inside of the track jack adapter in the embodiment shown in Fig. 1 in an unlocked state.

[0085] Fig. 34 is a bottom view of the track jack adapter in the embodiment shown in Fig. 1 in an unlocked state.

[0086] Fig. 35 is a front view of the track jack adapter in one embodiment of the present application.

[0087] Fig. 36 is a left view of the track jack adapter in the embodiment shown in Fig. 35.

[0088] Fig. 37 is a right view of the track jack adapter in the embodiment shown in Fig. 35.

[0089] Fig. 38 is a bottom view of the track jack adapter in the embodiment shown in Fig. 35.

[0090] Fig. 39 is a schematic view of an E pole conductive member in one embodiment of the present application.

[0091] Figure 40 is a schematic view of the structure on the base in the embodiment shown in Figure 35.

[0092] Figure 41 is a top view of the plug sleeve structure in the embodiment shown in Figure 35.

[0093] Figure 42 is a schematic view of the structure of the plug sleeve structure in the embodiment shown in Figure 35.

[0094] Figure 43 is a schematic view of a passive connector in one embodiment of the application.

[0095] Figure 44 is a schematic view of the internal structure of a track outlet adapter in one embodiment of the application in a powered-off state.

[0096] Figure 45 is a schematic view of the internal structure of a track outlet adapter in another embodiment of the application in a powered-off state.

[0097] Figure 46 is a schematic view of the internal structure of a track outlet adapter in yet another embodiment of the application in a powered-off state.

[0098] Figure 47 is a schematic view of the internal structure of a track outlet adapter in still another embodiment of the application in a powered-off state.

[0099] Figure 48 is a schematic view of a special-shaped clamp spring in one embodiment of the application.

[0100] Figure 49 is a left side view of a track outlet adapter in one embodiment of the application.

[0101] Figure 50 is a bottom view of the track outlet adapter in the embodiment shown in Figure 49.

[0102] Figure 51 is a schematic view of the structure of the rotating shell and the lock catch support in the embodiment shown in Figure 49.

[0103] Figure 52 is a front view of a lock catch support in one embodiment of the application.

[0104] Figure 53 is an oblique view of a lock catch support in one embodiment of the application.

[0105] Figure 54 is a schematic view of the structure of the plug sleeve structure in one embodiment of the application.

[0106] Figure 55 is a schematic view of the structure of a five-hole jack in the embodiment shown in Figure 54.

[0107] Figure 56 is a schematic view of the structure of the plug sleeve structure in one embodiment of the application.

[0108] Figure 57 is a schematic view of the structure of a five-hole jack in the embodiment shown in Figure 56.

[0109] Figure 58 is a top view of the plug sleeve structure in one embodiment of the application.

[0110] Figure 59 is a structural diagram of the structure of the plug sleeve in the embodiment shown in Figure 58.

[0111] Figure 60 is a structural diagram of the structure of the Type-A and Type-C jacks in the embodiment shown in Figure 58.

[0112] Figure 61 is a structural diagram of the track socket adapter of one embodiment of the present application locked to the conductive track.

[0113] Figure 62 is a structural diagram of the track socket adapter of one embodiment of the present application unlocked from the conductive track.

[0114] Wherein, the reference signs: 1, 1' - rotating shell 11, 11" - USB insulating plate 12, 12" - USB circuit board 121, 121" - conductive bushing 122, 122" - USB interface 12a, 12a" - first USB circuit board 12b, 12b" - second USB circuit board 1221, 1221" - Type-A interface 1222, 1222" - Type-C interface 13, 13" - USB signal connecting plate 14, 14A, 14B - jack panel 14", 14A", 14B" - jack panel 141, 141" - Type-A jack 141A, 141B - five-hole jack 141A", 141B" - five-hole jack 142, 142" - Type-C jack 143, 143" - indicator light 142A, 142B - indicator light 142A", 142B" - indicator light 143A, 143B - indicating gap 143A", 143B" - indicating gap 145, 145" - indicating gap 11A, 11A' - insulating plate 111A, 111A', 111B - socket bushing 111A", 111B" - socket bushing 112A, 112A', 112B - conductive bushing 112A", 112B" - conductive bushing 12A, 12B - protection door 121A, 121B - protection door jack 122A, 122B - first shielding part 123A, 123B - second shielding part 1111A, 1111B - L-pole bushing 1111A' - L-pole bushing 1111A", 1111B" - L-pole bushing 1112A, 1112A', 1112B - N-pole bushing 1112A", 1112B" - N-pole bushing 1113A, 1113A', 1113B - E-pole bushing 1113A", 1113B" - E-pole bushing 1121A, 1121A' - first conductive bushing 1122A, 1122A' - second conductive bushing 1121A" - first conductive bushing 1122A" - second conductive bushing 11B, 11B" - insulating plate 113B - first PCB board 114B - second PCB board 115B - pin 115B" - pin116B, 116B" - WiFi smart module 15B, 15B" - button 16B, 16B" - switch element 117B" - first PCB board 118B" - second PCB board 2, 2' - base 21 - fixing slot 21' - fixing member 22 - fixing member 22' - mounting channel 23 - screw 3, 3' - plug-in member 4, 4', 4" - rotating power-on assembly 41, 41A, 41B, 41C - driving rotating member 41", 41A", 41B", 41C" - driving rotating member 410, 410A - end 410", 410A" - end 411, 411" - end 410B, 410C - first driving rotating member 410B", 410C" - first driving rotating member 4100B, 4100C - end 4100B", 4100C" - end 411B, 411C - second driving rotating member 411B", 411C" - second driving rotating member 4110B, 4110C - end 4110B", 4110C" - end 4111C, 4111C" - end 412, 411A, 4101B, 4101C - first rotating protrusion 412", 411A", 4101B", 4101C" - first rotating protrusion 413, 412A, 4111B, 4112C - second rotating protrusion 413", 412A", 4111B", 4112C" - second rotating protrusion 414, 413A, 4112B, 4113C - third rotating protrusion 414", 413A", 4112B", 4113C" - third rotating protrusion 415, 414A, 4113B, 4114C - first abutting portion 415", 414A", 4113B", 4114C" - first abutting portion 416, 415A, 4114B, 4115C - second abutting portion 416", 415A", 4114B", 4115C" - second abutting portion 417, 417" - third abutting portion 42, 42A - driven rotating member 43", 43A" - driven connecting member 420, 420A - conductive rotating body 420' - lever 430", 430A" - lever 421, 421' - conductive arm 431" - conductive arm 421a - first conductive arm421b - second conductive arm 4211 - N pole conductive piece 4212 - L pole conductive piece 4213', 4214' - fixed connection end 422, 422A - toggle 422B - back type toggle 432", 432A" - tab 432B" - back type tab 5, 5A, 5B - flexible elastic piece 5', 5A', 5B' - special shaped spring 51, 51A, 51B - free end 51', 51A', 51B' - first fixed end 52', 52A', 52B' - second fixed end 52, 52A, 52B - fixed end 6 - limit spring 6' - first spring 61' - spring free end 6S - reset spring 6S' - second spring 7, 7' - E pole conductive piece 71 - conductive piece spring 71' - elastic piece 72' - annular boss 8, 8' - clamping seat 9, 9" - lock bracket 9' - locking assembly 91, 91" - locking part 91' - locking part 911, 911" - locking end 912, 912" - penetrating body 92 - connecting part 92" - sleeve ring 93, 93" - first extension arm 94, 94" - second extension arm 95, 95" - torsion elastic piece 96 - reset part 96" - first compression part 961 - connecting plate 961" - connecting plate 962 - spring seat 962" - positioning column P1, P1' - first limit point P2, P2' - second limit point P3, P3' - third limit point S1 - first accommodating space S2 - second accommodating space S3 - avoiding groove S1' - conductive arm groove S2' - toggle rod groove S3' - avoiding groove S4 - reset space S4' - mounting channel CT - conductive track G - clamping grooveCS - conductor strip DETAILED DESCRIPTION

[0115] In order to make the objects, technical solutions and advantages of the present application clearer, the present application will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the references in the specification to "one embodiment", "an embodiment", "example embodiment" and the like indicate that the description can include a particular feature, structure, or characteristic, but every embodiment can not necessarily include the particular feature, structure, or characteristic. Moreover, such phrases are not necessarily referring to the same embodiment. Further, where a particular feature, structure, or characteristic is described in connection with an embodiment, it is submitted that it is within the knowledge of one of ordinary skill in the art to effect such feature, structure, or characteristic in connection with other embodiments whether or not explicit

[0116] It should be noted that the terms "first", "second", and the like, in this specification do not denote any order, quantity, combination, or importance, but are used to distinguish one entity or action from another entity or action. In the specification and the subsequent claims, certain words are used to refer to particular modules, components or units. It will be understood by those skilled in the art that the same module, component or unit can be referred to by different names or terms in different technical documents. The specification and the subsequent claims do not distinguish modules, components or units by name, but by their functional differences. In the specification and the subsequent claims, "comprise" and "include" are open terms, which should be interpreted as "including but not limited to". In addition, the term "connected" herein includes any direct and indirect electrical connection means. Indirect electrical connection means includes connection through other devices.

[0117] Furthermore, in the following description and claims, reference will be made to a number of terms, which shall be defined as follows. The singular forms "a," "an," and "the" include plural referents unless the context clearly dictates otherwise. "Preferred" or "preferably" indicates that the subsequently described event or circumstance is possible, but not necessarily a requirement. In describing and claiming the present application, the terms "top," "bottom," "front," "back," "right," "left," "vertically," "horizontally," "superiorly," "inferiorly," "superior," "inferior," "internal," "external," and the like, merely refer to the orientation of the apparatus and / or article as shown in the drawings under discussion, and as described in the text, and are not intended to limit the scope of the application, unless specifically made part thereof. "About," or "approximately," or "substantially," or "largely," or "roughly," or the like, are terms referring to an approximate amount, and are intended to encompass a reasonable range of error for the quantity measured given the nature of the measurement.

[0118] The core of the present application is to provide a track socket, on the basis of realizing the basic functions of track socket power-on and power-off, further improve the use convenience and safety of track socket, at the same time, increase the contact distance of the conductive arm and the conductive sheet in the conductive track, enhance the connection stability of the conductive arm and the conductive track, and improve the use safety of the track socket.

[0119] Please refer to FIG. 1 to FIG. 4, FIG. 1 is the front view of the track socket adapter of an embodiment of the present application, FIG. 2 is the left view of the track socket adapter in the embodiment shown in FIG. 1, FIG. 3 is the right view of the track socket adapter in the embodiment shown in FIG. 1, and FIG. 4 is the bottom view of the track socket adapter in the embodiment shown in FIG. 1.

[0120] The present application provides a track socket, comprising an adapter with a socket structure, the adapter comprising a rotating shell 1 and a base 2, the rotating shell 1 being rotatably sleeved on the base 2, a plug-in piece 3 being fixedly connected below the base 2, a rotating power-on assembly 4 electrically connected with the socket structure being arranged on the rotating shell 1, and a driving assembly driving the rotating power-on assembly 4 to rotate, the rotating power-on assembly 4 comprising a conductive arm 421 movably connected with an external conductive track, the conductive arm 421 being rotatably connected on one side of the plug-in piece 3 facing away from the socket structure. The driving assembly drives the conductive arm 421 to be stored or unfolded relative to the plug-in piece 3, the unfolding angle of the conductive arm 421 being an acute angle, and the unfolding angle openings of the conductive arms 421 being the same. The rotating power-on assembly 4 further comprises:

[0121] The passive rotating part 42 further comprises a conductive rotating body 420 and a conductive arm 421 connected with the conductive rotating body 420, and the conductive arm 421 is further provided with an N-pole conductive sheet 4211 and an L-pole conductive sheet 4212, and the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are located at the plug-in part 3; and

[0122] The rotating shell 1 drives the conductive rotating body 420 to rotate through the driving assembly, so that the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are in a storage or unfolding state relative to the plug-in part 3; wherein,

[0123] The N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 respectively unfold towards different sides of the plug-in part 3, the opening of the unfolding angle of the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 faces the same direction, and the unfolding angle of the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 is an acute angle.

[0124] In one specific embodiment, as shown in FIGS. 1-3, the track socket provided by the present application comprises an adapter with a plug sleeve structure, which is arranged in the adapter and will be described in detail later. The adapter comprises a rotating shell 1 and a base 2, the rotating shell 1 is rotatably sleeved on the base 2 and can rotate clockwise or counterclockwise relative to the base 2. The plug-in part 3 is arranged below the base 2 and is fixedly connected with the base 2, and the rotating shell 1 is further provided with a rotating power-on assembly 4 electrically connected with the plug sleeve structure and a driving assembly driving the rotating power-on assembly 4 to rotate, and the specific structure of the driving assembly will be described in detail later, which will not be described here. The rotating power-on assembly 4 further comprises a conductive arm 421, which movably connects the conductive track outside the track socket, and the power-on or power-off of the track socket is realized by the contact or non-contact of the conductive arm 421 with the conductive track. Specifically, the conductive arm 421 is rotatably connected to one side of the plug-in part 3 away from the plug sleeve structure, i.e. the conductive arm 421 is located on the side of the plug-in part 3 away from the base 2, and the conductive arm 421 can rotate relative to the plug-in part 3 to realize the power-on or power-off of the track socket. The driving assembly drives the conductive arm 421 to be stored or unfolded relative to the plug-in part 3, when the conductive arm 421 is in the storage state, the track socket is in the power-off state; when the conductive arm 421 is in the unfolded state, the track socket is in the power-on state, the unfolding angle of the conductive arm 421 is an acute angle, and the opening of the unfolding angle of the conductive arm 421 is the same. It should be noted that the opening of the unfolding angle of the conductive arm 421 is the same, which means that the opening angle of the unfolding angle is the same and the opening direction of the unfolding angle is the same, or the opening angle of the unfolding angle is different and the opening direction of the unfolding angle is the same, and the present application is not limited in this way.

[0125] Further, the rotating power supply assembly 4 further comprises a passive rotating part 42, which comprises a conductive rotating body 420 and a conductive arm 421 connected to the conductive rotating body 420. The conductive arm 421 is further provided with an N-pole conductive sheet 4211 and an L-pole conductive sheet 4212, which are located at the plug-in part 3. The user rotates the rotating shell 1 to drive the conductive rotating body 420 to rotate, and then the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are in a retracted or expanded state relative to the plug-in part 3. When the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are in the retracted state, the track socket is in a power-off state. When the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are in the expanded state, the track socket is in a power-on state. The N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are in the retracted state relative to the plug-in part 3, as shown in FIGS. 1-3, and the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are in the expanded state relative to the plug-in part 3, as shown in FIG. 4. Please refer to FIG. 4, when the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are in the expanded state, the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are expanded towards different sides of the plug-in part 3, and the opening angles of the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are in the same direction. The opening angles of the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are acute angles, but the present application is not limited thereto.

[0126] In the embodiment of the present application, the opening directions of the opening angles of the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 on the same-directionally expanded conductive arm 421 are the same, which increases the contact distance of the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 on the same-directionally expanded conductive arm 421 with the track conductive sheet in the conductive track, and forms a stable triangular connection between the plug-in part 3 and the conductive arm 421, thereby enhancing the connection stability of the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 with the conductive track and further improving the use safety of the track socket. In addition, the rotation of the rotating shell 1 and the rotating power supply assembly 4 realizes the functions of rotating power-on and power-off of the track socket, and further improves the use convenience and safety of the track socket.

[0127] As a preferred embodiment, the rotating power supply assembly 4 comprises a driving assembly, which further comprises:

[0128] The active rotating part 41 is fixedly connected to the rotating shell 1; wherein,

[0129] The conductive rotating body 420 is arranged through the base 2 and is electrically connected to the plug-in structure, and the active rotating part 41 drives the conductive rotating body 420 to rotate, so as to rotate the conductive arm 421.

[0130] Fig. 5 is a schematic diagram of the internal structure of the track socket adapter in the embodiment shown in Fig. 1 in a power-off state.

[0131] In one embodiment, the rotating power-on assembly 4 is arranged on the rotating shell 1 and below the socket structure, and the rotating power-on assembly 4 comprises a driving assembly. The driving assembly further comprises a driving rotating member 41 fixedly connected with the rotating shell 1, and a conductive rotating body 420 arranged through the base 2 and electrically connected with the socket structure. The upper part of the conductive rotating body 420 is electrically connected with the socket structure, and the lower part of the conductive rotating body 420 is located at the plug-in part 3 and connected with the conductive arm 421. The user can rotate the driving rotating member 41 by rotating the rotating shell 1, and then the driving rotating member 41 drives the conductive rotating body 420 to rotate, so that the conductive arm 421 rotates. By rotating the conductive arm 421, the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are in a stowed or unfolded state relative to the plug-in part 3.

[0132] In the embodiment, the rotating shell 1 and the rotating power-on assembly 4 are arranged, the traditional key switch structure is cancelled, power-on and power-off are performed by rotating operation, and a more convenient use mode is provided. Further, the pressure distribution of the rotating operation on the base 2 is more uniform, and compared with the wear caused by the pressing force and frequency of the traditional key switch structure, the rotating operation of the rotating shell 1 and the rotating power-on assembly 4 can prolong the service life of the track socket. In addition, the switching mode of the rotating operation needs the user to exert a certain force or accurate rotation angle to operate and realize, which avoids the risk of mistaken opening or mistaken touch of children, and further improves the use safety.

[0133] As a preferred embodiment, the driving rotating member 41, 41A is an integral structure, and has at least one end fixedly connected with the rotating shell 1.

[0134] Please refer to Fig. 5 again. In one embodiment, the driving rotating member 41 is an integral structure and has two ends fixedly connected with the rotating shell 1. Specifically, one end 411 on the left side of the driving rotating member 41 is fixedly connected with the rotating shell 1, and the other end 410 on the right side of the driving rotating member 41 is fixedly connected with the rotating shell 1.

[0135] Please refer to Fig. 6, which is a schematic diagram of the internal structure of the track socket adapter in another embodiment of the present application in a power-off state. In one embodiment, the driving rotating member 41A is an integral structure and has one end 410A fixedly connected with the rotating shell 1.

[0136] As a preferred implementation, the active rotating member 41B, 41C at least comprises a first active rotating member 410B, 410C and a second active rotating member 411B, 411C, the first active rotating member 410B, 410C and the second active rotating member 411B, 411C are in a split structure, and one end of the first active rotating member 410B, 410C and at least one end of the second active rotating member 411B, 411C are respectively fixedly connected with the rotating shell 1.

[0137] Please refer to FIG. 7, which is a schematic diagram of the internal structure of the track socket adapter of another embodiment of the present application in a power-off state. In one specific embodiment, the active rotating member 41B comprises a first active rotating member 410B and a second active rotating member 411B, and the first active rotating member 410B and the second active rotating member 411B are in a split structure. Specifically, one end 4100B of the first active rotating member 410B is fixedly connected with the rotating shell 1 and arranged on the left side of the rotating shell 1, and the second active rotating member 411B has one end 4110B fixedly connected with the rotating shell 1 and arranged on the right side of the rotating shell 1.

[0138] Please refer to FIG. 8, which is a schematic diagram of the internal structure of the track socket adapter of another embodiment of the present application in a power-off state. In one specific embodiment, the active rotating member 41C comprises a first active rotating member 410C and a second active rotating member 411C, and the first active rotating member 410C and the second active rotating member 411C are in a split structure. Specifically, one end 4100C of the first active rotating member 410C is fixedly connected with the rotating shell 1 and arranged on the left side of the rotating shell 1. The second active rotating member 411C has two ends 4110C, 4111C fixedly connected with the rotating shell 1, wherein the end 4111C of the second active rotating member 411C is arranged on the front side of the rotating shell 1, and the end 4110C of the second active rotating member 411C is arranged on the right side of the rotating shell 1. It should be noted that the position of the active rotating member 41, 41A, 41B, 41C fixedly connected with the rotating shell 1 can also be other, and the present application is not limited thereto.

[0139] In the embodiments of the present application, through the structure of different active rotating members 41, 41A, 41B, 41C and the fixed connection mode thereof with the rotating shell 1, the internal space structure of the rotating shell 1 can be further reasonably optimized, the rotating power-on assembly 4 can be adapted to different adapter structures, and the applicability of the rotating power-on assembly 4 can be improved.

[0140] As a preferred embodiment, the active rotating member 41, 41A, 41B, 41C is provided with a first rotating protrusion 412, 411A, 4101B, 4101C and a second rotating protrusion 413, 412A, 4111B, 4112C, and the active rotating member 41, 41A, 41B, 41C drives the conductive rotating body 420 to rotate through the first rotating protrusion 412, 411A, 4101B, 4101C and the second rotating protrusion 413, 412A, 4111B, 4112C, so as to drive the conductive arm 421 to rotate.

[0141] As shown in the embodiments of FIGS. 5-8, the active rotating member 41, 41A, 41B, 41C is provided with a first rotating protrusion 412, 411A, 4101B, 4101C and a second rotating protrusion 413, 412A, 4111B, 4112C corresponding to the conductive rotating body 420. When the user rotates the rotating shell 1, the active rotating member 41, 41A, 41B, 41C rotates with the rotating shell 1, and then drives the conductive rotating body 420 to rotate through the first rotating protrusion 412, 411A, 4101B, 4101C and the second rotating protrusion 413, 412A, 4111B, 4112C, so as to drive the conductive arm 421 to rotate. Through the rotation of the conductive arm 421, the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are in a stowed or unfolded state relative to the plug 3.

[0142] As a preferred embodiment, the base 2 is further provided with a flexible elastic member 5, 5A, 5B having a free end 51, 51A, 51B and a fixed end 52, 52A, 52B, and the flexible elastic member 5, 5A, 5B is provided with a limiting point corresponding to the stowed state and the unfolded state; and the active rotating member 41, 41A, 41B, 41C is further provided with a third rotating protrusion 414, 413A, 4112B, 4113C abutting against one side of the flexible elastic member 5, 5A, 5B.

[0143] As shown in the embodiments of FIGS. 5-8, the base 2 is further provided with a flexible elastic member 5, 5A, 5B, which has a fixed end 52, 52A, 52B fixedly arranged on the base 2 and a free end 51, 51A, 51B located on the base 2. The active rotating member 41, 41A, 41B, 41C is further provided with a third rotating protrusion 414, 413A, 4112B, 4113C, which abuts against one side of the flexible elastic member 5, 5A, 5B. When the rotating shell 1 is rotated to rotate the active rotating member 41, 41A, 41B, 41C, the third rotating protrusion 414, 413A, 4112B, 4113C slides along one side of the flexible elastic member 5, 5A, 5B. The flexible elastic member 5, 5A, 5B is provided with limiting points corresponding to the accommodation state and the unfolded state of the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212. When the third rotating protrusion 414, 413A, 4112B, 4113C slides between the limiting points of the flexible elastic member 5, 5A, 5B, the active rotating member 41, 41A, 41B, 41C drives the conductive rotating body 420 to rotate, thereby driving the conductive arm 421 to rotate to make the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 relative to the plug-in member 3 in the accommodation or unfolded state.

[0144] As a preferred embodiment, the flexible elastic member 5, 5A, 5B is a special-shaped spring, and the base 2 is further provided with a fixed clamping groove 21, and the fixed end 52, 52A, 52B of the special-shaped spring is fixed in the fixed clamping groove 21.

[0145] As shown in the embodiments of FIGS. 5-8, the flexible elastic member 5, 5A, 5B is a special-shaped spring and has a plate structure. The base 2 is further provided with an L-shaped fixed clamping groove 21, and the fixed end 52, 52A, 52B of the special-shaped spring is L-shaped and fixed in the fixed clamping groove 21. It should be noted that the shape of the special-shaped spring and the shape of the fixed clamping groove 21 can also be other shapes, which are not limited in the present application.

[0146] As a preferred embodiment, the special-shaped clasp has a first limit point P1, a second limit point P2 and a third limit point P3, the second limit point P2 is located between the first limit point P1 and the third limit point P3; wherein, when the third rotating protrusion 414, 413A, 4112B, 4113C abuts against the first limit point P1, the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 rotate to a first angle position, the first angle position corresponds to the storage state of the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212; and, when the third rotating protrusion 414, 413A, 4112B, 4113C abuts against the third limit point P3, the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 rotate to a second angle position, the second angle position corresponds to the unfolded state of the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212.

[0147] Please refer to FIG. 9, which is a schematic diagram of the flexible elastic member according to an embodiment of the present application. In one specific embodiment, the flexible elastic member 5B is a special-shaped clasp and has a first limit point P1, a second limit point P2 and a third limit point P3, the second limit point P2 is located between the first limit point P1 and the third limit point P3. Please refer to FIG. 8 again, when the third rotating protrusion 4113C abuts against the first limit point P1, the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 rotate to a first angle position, the first angle position corresponds to the storage state of the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212, i.e. the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are in the storage state, and the track socket is in the power-off state. With the rotation of the rotating shell 1 in the clockwise direction, the third rotating protrusion 4113C slides along one side of the flexible elastic member 5B to the second limit point P2, and the third rotating protrusion 4113C receives the maximum resistance at the second limit point P2. When the rotating shell 1 continues to rotate in the clockwise direction, the third rotating protrusion 4113C slides past the second limit point P2 to the third limit point P3, the driving rotating member 41C drives the conductive rotating body 420 to rotate, and then drives the conductive arm 421 to rotate, so that the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 rotate to a second angle position, the second angle position corresponds to the unfolded state of the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212, i.e. the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are in the unfolded state, and the track socket is in the power-on state. When the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are rotated from the unfolded state to the storage state by the rotation of the rotating shell 1, the above-mentioned operation mode can be reversed, and the details are not described herein. In addition, in the embodiments shown in FIGS. 5 to 7, the third rotating protrusion 414, 413A, 4112B of the driving rotating member 41, 41A, 41B cooperates with the flexible elastic member 5, 5A, 5B in the same way as described above, and the details are not described herein.

[0148] As a preferred embodiment, a limiting spring 6 and a fixing member 22 for fixing the limiting spring 6 are further arranged on the base 2, one end of the limiting spring 6 is fixed on the fixing member 22, and the other end of the limiting spring 6 abuts against the other side of the flexible elastic member 5, 5A or 5B.

[0149] In the embodiment shown in FIGS. 5 to 8, the fixing member 22 is a fixed column, one end of the limiting spring 6 is sleeved and fixed on the fixing member 22, and the other end of the limiting spring 6 abuts against the other side of the flexible elastic member 5, 5A or 5B, and the limiting spring 6 is used to provide a resistance when the third rotating protrusion 414, 413A, 4112B or 4113C slides along one side of the flexible elastic member 5, 5A or 5B. It should be noted that the shape of the fixing member 22 can also be other shapes, and the present application is not limited thereto.

[0150] In the embodiment of the present application, when the rotating shell 1 is rotated to make the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 rotate between the storage state and the unfolded state, the third rotating protrusion 414, 413A, 4112B or 4113C can receive a resistance at the second limiting point P2, so that the track socket cannot be opened or closed due to accidental opening or accidental touch, causing a safety hazard. Only when the user actively applies force to rotate the rotating shell 1, the third rotating protrusion 414, 413A, 4112B or 4113C can break through the resistance received at the second limiting point P2, thereby improving the safety of the track socket, and when the flexible elastic member 5, 5A or 5B is a special-shaped spring, the user's use feeling when rotating can also be increased. Further, by arranging the limiting spring 6 on the opposite side of the flexible elastic member 5, 5A or 5B and the third rotating protrusion 414, 413A, 4112B or 4113C, the resistance received by the third rotating protrusion 414, 413A, 4112B or 4113C at the second limiting point P2 can be further increased, avoiding accidental opening or accidental touch by children, and further enhancing the user's use feeling.

[0151] As a preferred embodiment, the conductive rotating body 420 is a lever, the upper part of the lever is located in the rotating shell 1, the lower part of the lever is located at the plug-in member 3 and is fixedly connected with the conductive arm 421; wherein the upper part of the lever is further provided with a levering member 422, and the active rotating member 41, 41A, 41B or 41C drives the lever to rotate through the levering member 422.

[0152] Please refer to FIG. 1 to FIG. 3, FIG. 5, FIG. 7 to FIG. 8 and FIG. 10, which is a schematic diagram of the conductive rotating body in one embodiment of the present application. In one specific embodiment, the conductive rotating body 420 is a lever, the upper part of which is located in the rotating shell 1 and is used to be electrically connected with the socket structure, and the lower part of which is located at the plug-in part 3 and is fixedly connected with 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 vertically inserted into the conductive track. In addition, the upper part of the lever is further provided with a levering piece 422, which is an A-shaped levering piece and is perpendicular to the lever, and the levering piece 422 is located in the rotating shell 1 and cooperates with the driving rotating part 41, 41B, 41C to rotate the conductive arm 421. Further, when the rotating shell 1 is rotated, the first rotating protrusion 412, 4101B, 4101C and the second rotating protrusion 413, 4111B, 4112C of the driving rotating part 41, 41B, 41C are rotated with the rotating shell 1, thereby driving the levering piece 422 to rotate. At the same time, the levering piece 422 drives the conductive rotating body 420 and the conductive arm 421 to rotate, so that the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are rotated between the storage state and the unfolded state. It should be noted that the shape of the levering piece 422 can also be other shapes, and the present application is not limited thereto.

[0153] As a preferred embodiment, the upper part of the lever is further provided with a back-type levering piece 422B, the levering piece 422A and the back-type levering piece 422B are oppositely arranged with respect to the lever, and the driving rotating part 41A drives the lever to rotate through the levering piece 422, 422A and the back-type levering piece 422B.

[0154] Please refer to Figs. 6 and 10. In one embodiment, the difference from the above embodiment is that the active rotating member 41A is a one-piece structure and has an end portion 410A fixedly connected with the rotating shell 1. In addition, like the above embodiment, the conductive rotating body 420A of the passive rotating member 42A is a lever, the upper portion of the lever is located in the rotating shell 1 and is used to electrically connect with the socket structure, the lower portion of the lever is located at the plug-in member 3 and is fixedly connected with the conductive arm 421, and the upper portion of the lever is provided with a pushing member 422A. In order to enable the active rotating member 41A to drive the conductive rotating body 420, 420A to rotate, the difference from the above embodiment is that the upper portion of the lever of the passive rotating member 42A is further provided with a back pushing member 422B, and the pushing member 422A and the back pushing member 422B are oppositely arranged with respect to the lever. Specifically, when the rotating 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 shell 1, and then the first rotating protrusion 411A drives the back pushing member 422B of the passive rotating member 42A to rotate, and the second rotating protrusion 412A drives the pushing member 422 of the passive rotating member 42 to rotate. At the same time, the pushing member 422 and the back pushing member 422B drive the respective conductive rotating body 420, 420A and the conductive arm 421 to rotate, so that the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 rotate between the storage state and the unfolded state. Among them, the back pushing member 422B is composed of two obtuse angle arranged pushing sheets and is perpendicular to the lever, and the pushing member 422A is an A-shaped pushing sheet and is perpendicular to the lever, but the present application is not limited to this. It should be noted that the structure of the passive rotating member 42, 42A in the above embodiment can be correspondingly arranged as the same structure or different structure according to the structure of the active rotating member 41, 41A, 41B, 41C, so that the active rotating member 41, 41A, 41B, 41C can drive the conductive rotating body 420, 420A to rotate. Further, as shown in Figs. 5, 7 and 8, the present application can be provided with the passive rotating member 42 with the same structure; as shown in Fig. 6, the present application can be provided with the passive rotating member 42 and the passive rotating member 42A with different structures; in addition, the present application can also be provided with the passive rotating member 42A with the same structure, the first rotating protrusion 411A of the active rotating member 41A drives the back pushing member 422B to rotate, and the second rotating protrusion 412A of the active rotating member 41A drives the pushing member 422A to rotate, and the present application is not limited to this.

[0155] In the embodiment of the present application, the conductive rotating body 420 and the actuating member 422 are arranged to rotate with the active rotating member 41, 41A, 41B, 41C, so that the passive rotating member 42 can be adapted to different structures of the active rotating member, further optimizing the structural arrangement and space inside the rotating shell 1, and different elements can be added inside the rotating shell 1 according to the actual application requirements, further improving the applicability of the track socket.

[0156] As a preferred embodiment, the conductive arm 421 includes at least a first conductive arm 421a provided with an N-pole conductive sheet 4211 and a second conductive arm 421b provided with an L-pole conductive sheet 4212.

[0157] Please refer to FIGS. 1-5. In one specific embodiment, the passive rotating member 42 is two, and the conductive arm 421 is two and includes a first conductive arm 421a and a second conductive arm 421b. The first conductive arm 421a is provided with an N-pole conductive sheet 4211, and the second conductive arm 421b is provided with an L-pole 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 plug-in member 3, and then the rotating shell 1 is rotated to drive the first conductive arm 421a and the second conductive arm 421b to rotate, so that the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are in an unfolded state, and the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are connected to the zero line and the live line in the conductive track for power supply; when the rotating shell 1 is rotated in the opposite direction to drive the first conductive arm 421a and the second conductive arm 421b to rotate, the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are in a storage state, and the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are disconnected from the zero line and the live line in the conductive track for power-off.

[0158] As a preferred embodiment, the adapter further includes an E-pole conductive member 7 arranged on the base 2, the E-pole conductive member 7 penetrates the base 2 and the plug-in member 3 along the direction parallel to the rotation axis direction of the rotating shell 1 and extends out of the plug-in member 3 in the direction away from the base 2; and the E-pole conductive member 7 is located between the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212.

[0159] Referring to FIG. 1 to FIG. 5 and FIG. 11, FIG. 11 is a schematic diagram of an E pole conducting piece in an embodiment of the present application. In a specific embodiment, the base 2 is further provided with an E pole conducting piece 7, which penetrates the base 2 and the plug-in piece 3 along a direction parallel to the rotation axis of the rotating shell 1 and extends out of the plug-in piece 3 in a direction away from the base 2. Specifically, in the embodiment of the present application, the E pole conducting piece 7 penetrates the base 2 and the plug-in piece 3 along a direction perpendicular to the base 2, and the E pole conducting piece 7 is located between the N pole conducting sheet 4211 and the L pole conducting sheet 4212, which are asymmetrically arranged with respect to the E pole conducting piece 7, but the present application is not limited thereto. When the plug-in piece 3 is inserted into the conducting track, the E pole conducting piece 7 is used to connect with the ground wire in the conducting track, preventing the risk of electric shock and ensuring the safety of electricity use. Further, as shown in FIG. 11, the upper part of the E pole conducting piece 7 is located in the rotating shell 1 and has a cylindrical structure, and the lower part of the E pole conducting piece 7 extends out of the plug-in piece 3 and has a cuboid structure. The structure of the E pole conducting piece 7 in the embodiment facilitates the electrical connection of the upper part thereof with the plug-in sleeve structure and the insertion of the lower part thereof into the conducting track to connect with the ground wire, but the present application is not limited thereto.

[0160] In the embodiment of the present application, the asymmetrically arranged N pole conducting sheet 4211 and L pole conducting sheet 4212 not only meet the creepage distance requirement between the poles, but also make the arrangement of the rotating upper power supply assembly 4 more concentrated, the arrangement of the internal elements and components of the track socket more free and convenient, and the size of the socket smaller, thereby reducing the production cost. The problem of the size of the socket being too large and being prone to wear during use is avoided, which is caused by the passive rotating member 42 and the conducting arm 421 provided with the N pole conducting sheet and the L pole conducting sheet being centrally penetrated and arranged in the middle of the plug-in piece 3, or being symmetrically arranged on the two sides of the plug-in piece 3 and closely contacting the two side edges of the plug-in piece 3.

[0161] As a preferred embodiment, the plug-in piece 3 is further provided with a first accommodating space S1 for accommodating the N pole conducting sheet 4211 and the L pole conducting sheet 4212, and when the N pole conducting sheet 4211 and the L pole conducting sheet 4212 are in the storage state with respect to the plug-in piece 3, the N pole conducting sheet 4211 and the L pole conducting sheet 4212 are respectively stored in the first accommodating space S1.

[0162] Please refer to FIG. 1 to FIG. 3. In one embodiment, the first accommodation space S1 is provided on the plug-in part 3 corresponding to the N-pole conducting sheet 4211 and the L-pole conducting sheet 4212, and is used to accommodate the N-pole conducting sheet 4211 and the L-pole conducting sheet 4212 when the N-pole conducting sheet 4211 and the L-pole conducting sheet 4212 are in the storage state relative to the plug-in part 3. Further, the second accommodation space S2 is also provided on the plug-in part 3 corresponding to the conducting rotating body 420, the first conducting arm 421a and the second conducting arm 421b. The second accommodation space S2 is used to accommodate the conducting rotating body 420, and the conducting rotating body 420 rotates in the second accommodation space S2. When the N-pole conducting sheet 4211 and the L-pole conducting sheet 4212 are in the storage state relative to the plug-in part 3, the second accommodation space S2 is used to accommodate the first conducting arm 421a and the second conducting arm 421b. The first accommodation space S1 and the second accommodation space S2 can or can not pass through the plug-in part 3, and the present application is not limited in this regard.

[0163] In the embodiment of the present application, the first accommodation space S1 and the second accommodation space S2 are provided, so that the conducting rotating body 420, the first conducting arm 421a, the second conducting arm 421b, the N-pole conducting sheet 4211 and the L-pole conducting sheet 4212 do not protrude from both sides of the plug-in part 3 when they are in the storage state, thereby facilitating the insertion of the plug-in part 3 into the conducting rail, and avoiding the N-pole conducting sheet 4211 and the L-pole conducting sheet 4212 from being accidentally contacted with the zero line and the live line during the insertion process, and thus avoiding the safety hazard caused by accidental conduction.

[0164] As a preferred embodiment, the adapter further comprises a lock bracket 9 provided on the base 2, and the lock bracket 9 comprises:

[0165] The locking part 91 penetrates the base 2 along the direction parallel to the rotation axis direction of the rotating shell 1 and is located above the conducting arm 421. When the driving rotating part 41, 41A, 41B, 41C drives the lock bracket 9 to rotate, the locking part 91 is accommodated or protrudes relative to the plug-in part 3, so as to unlock or lock the lock bracket 9 to the conducting rail.

[0166] Please refer to FIG. 1 to FIG. 5 and FIG. 12, which is a structural diagram of the base in the embodiment shown in FIG. 1.

[0167] In one embodiment, the adapter further comprises a lock bracket 9 provided on the base 2. Specifically, the lock bracket 9 is provided on the base 2, and the lock bracket 9 further comprises a locking part 91. The locking part 91 penetrates the base 2 along the direction parallel to the rotation axis direction of the rotating shell 1, and the locking part 91 is located at the plug-in part 3 and above the conducting arm 421. When the driving rotating part 41 drives the lock bracket 9 to rotate, the locking part 91 is accommodated or protrudes relative to the plug-in part 3, so as to unlock or lock the lock bracket 9 to the conducting rail, and the rotation of the locking part 91 does not interfere with the rotation of the conducting arm 421.

[0168] Further, in one embodiment, the adapter further comprises a card seat 8 disposed on the base 2. The card seat 8 penetrates the base 2 along a direction parallel to the rotation axis of the rotating shell 1 and is located above the conductive arm 421. Specifically, the card seat 8 penetrates the base 2 vertically, but the present application is not limited thereto. The card seat 8 is used to support and mount the passive rotating member 42 on the base 2, and at least a part of the passive rotating member 42 is disposed on the card seat 8. It should be noted that, as shown in FIG. 12, the card seat 8 disposed on the base 2 can be two and used to support and mount two passive rotating members 42 respectively, and at least a part of the lock bracket 9 can also be disposed on one of the card seats 8, which is also used to support and mount the lock bracket 9 on the base 2. In addition, only one card seat 8 can be provided to support and mount the lock bracket 9 and one of the passive rotating members 42, and the present application is not limited thereto. During installation, the card seat 8 is first mounted on the conductive rotating member body 420 of the passive rotating member 42, and the card seat 8 is mounted between the conductive arm 421 and the actuating member 422, then the card seat 8 and the passive rotating member 42 are penetrated and disposed on the base 2, and finally the lock bracket 9 is disposed on the base 2.

[0169] As a preferred embodiment, the lock bracket 9 further comprises: a first extension arm 93 and a second extension arm 94 disposed on both sides of the connecting portion 92 respectively, and the first extension arm 93 and the second extension arm 94 are respectively provided with locking portions 91 facing opposite directions; wherein the locking portions 91 of the first extension arm 93 and the second extension arm 94 are received or protrude relative to the plug-in member 3.

[0170] Please refer to FIG. 13 and FIG. 14, FIG. 13 is a front view of the locking bracket of one embodiment of the present application, and FIG. 14 is an oblique view of the locking bracket of one embodiment of the present application. In one embodiment, the locking bracket 9 comprises a connecting portion 92, a first extending arm 93 and a second extending arm 94, the first extending arm 93 and the second extending arm 94 are respectively connected with the connecting portion 92 and disposed on two sides of the connecting portion 92, and the connecting portion 92, the first extending arm 93 and the second extending arm 94 of the locking bracket 9 are disposed on the base 2 and located in the rotating shell 1. The first extending arm 93 and the second extending arm 94 are respectively provided with locking portions 91 which are opposite to each other. Please refer to FIG. 2 to FIG. 4 and FIG. 12 again, when the driving rotating member 41 drives the locking bracket 9 to rotate, the locking portions 91 of the first extending arm 93 and the second extending arm 94 protrude relative to the plug-in member 3, the two locking portions 91 protrude towards different sides of the plug-in member 3 respectively and the protruding openings are opposite to each other, so that the locking bracket 9 is locked in the conductive track. When the driving rotating member 41 drives the locking bracket 9 to rotate reversely, the locking portions 91 of the first extending arm 93 and the second extending arm 94 are accommodated relative to the plug-in member 3, so that the locking bracket 9 is unlocked from the conductive track. Further, in another embodiment of the present application, at least a part of the locking bracket 9 is disposed on one of the clamping seats 8. When the driving rotating member 41 drives the locking bracket 9 to rotate, the locking portion 91 of the first extending arm 93 protrudes relative to the plug-in member 3, and the locking portion 91 of the second extending arm 94 protrudes relative to the corresponding clamping seat 8. When the driving rotating member 41 drives the locking bracket 9 to rotate reversely, the locking portion 91 of the first extending arm 93 is accommodated relative to the plug-in member 3, and the locking portion 91 of the second extending arm 94 is accommodated relative to the corresponding clamping seat 8, so that the locking bracket 9 is unlocked from the conductive track. The angles of the two locking portions 91 protruding are acute angles.

[0171] Please refer to FIG. 13 and FIG. 14 again, the locking portion 91 further comprises a locking end 911 and a penetrating body 912, the lower end of the penetrating body 912 is connected with the locking end 911, and the upper end of the penetrating body 912 penetrates the base 2. Among them, the first extension arm 93 and the second extension arm 94 are respectively provided with the locking portion 91 which faces opposite directions, the upper end of the penetrating body 912 of one of the locking portions 91 is connected with the first extension arm 93, and the upper end of the penetrating body 912 of the other locking portion 91 is connected with the second extension arm 94, but the present application is not limited thereto. In addition, the plug-in part 3 is also provided with an avoiding slot S3 for accommodating the penetrating body 912 and the locking end 911. When the locking portion 91 is accommodated relative to the plug-in part 3, the penetrating body 912 and the locking end 911 are accommodated into the avoiding slot S3. Please refer to FIG. 2 and FIG. 3 again, further speaking, in another embodiment of the present application, at least a part of the lock bracket 9 is arranged on one of the clamping seats 8, when the lock bracket 9 is rotated by the driving rotating part 41, the locking portion 91 of the first extension arm 93 protrudes or is accommodated relative to the plug-in part 3, and the locking portion 91 of the second extension arm 94 protrudes or is accommodated relative to the corresponding clamping seat 8. The avoiding slot S3 for accommodating the locking portion 91 is respectively arranged on the clamping seat 8 and the plug-in part 3 corresponding to the locking portion 91. When the locking portion 91 of the first extension arm 93 is accommodated relative to the plug-in part 3, and the locking portion 91 of the second extension arm 94 is accommodated relative to the corresponding clamping seat 8, the penetrating body 912 and the locking end 911 are accommodated into the avoiding slot S3, so as to avoid the obstruction when the track socket is inserted into or pulled out of the conductive track. The avoiding slot S3 can or can not penetrate the plug-in part 3 and the clamping seat 8, and the present application is not limited thereto.

[0172] As a preferred embodiment, the connecting portion 92 is further provided with a torsional elastic part 95, one end of the torsional elastic part 95 is fixedly arranged on the base 2, and the other end of the torsional elastic part 95 is in abutment with the first abutment portion 415, 414A, 4113B, 4114C arranged on the driving rotating part 41, 41A, 41B, 41C;

[0173] The first extension arm 93 or the second extension arm 94 is further provided with a reset portion 96 which faces opposite directions with the locking portion 91, and the driving rotating part 41, 41A, 41B, 41C is further provided with the second abutment portion 416, 415A, 4114B, 4115C corresponding to the reset portion 96; and,

[0174] The base 2 is further provided with a reset spring 6S, one end of the reset spring 6S is mounted on the reset portion 96, and the other end of the reset spring 6S is mounted on the base 2.

[0175] Please refer to FIG. 5 to FIG. 8 and FIG. 12 to FIG. 14. In one embodiment, the connecting portion 92 of the lock bracket 9 is further provided with a torsion spring 95. One end of the torsion spring 95 is fixedly arranged on the base 2, and the other end of the torsion spring 95 abuts against the first abutting portion 415, 414A, 4113B, 4114C arranged on the driving rotating member 41, 41A, 41B, 41C. Specifically, the torsion spring 95 is arranged around the E pole conductor 7, and the torsion spring 95 is a torsion spring, but the present application is not limited thereto. The second extending arm 94 is further provided with a reset portion 96 which is opposite to the locking portion 91, and the driving rotating member 41, 41A, 41B, 41C is further provided with a second abutting portion 416, 415A, 4114B, 4115C corresponding to the reset portion 96. In addition, the base 2 is further provided with a reset spring 6S, one end of the reset spring 6S is mounted on the reset portion 96, and the other end of the reset spring 6S is mounted on the base 2.

[0176] As a preferred embodiment, the reset portion 96 further comprises:

[0177] a connecting plate 961, one side of the connecting plate 961 towards the reset spring 6S is further provided with a spring seat 962, and one end of the reset spring 6S is mounted on the spring seat 962;

[0178] the base 2 is further provided with a reset space S4 for accommodating the reset spring 6S; and,

[0179] the driving rotating member 41 is further provided with a third abutting portion 417 corresponding to the first extending arm 93 and / or the second extending arm 94; wherein the driving rotating member 41 drives the lock bracket 9 to rotate through the first abutting portion 415, the second abutting portion 416 and the third abutting portion 417.

[0180] Please refer to Figs. 5-8 and 13-14. In one embodiment, the reset portion 96 further comprises a connecting plate 961, which is rotated by the second abutting portion 416, 415A, 4114B, 4115C when the rotating shell 1 is rotated counterclockwise, thereby rotating the lock bracket 9 and allowing the locking portion 91 to be received relative to the plug 3. The side of the connecting plate 961 facing the reset spring 6S is further provided with a spring seat 962 for mounting the reset spring 6S, which is a cylindrical structure, and one end of the reset spring 6S is sleeved on the spring seat 962, but the present application is not limited thereto. In addition, the base 2 is further provided with a reset space S4 for accommodating the reset spring 6S. Specifically, the reset space S4 is a spring mounting channel, and the other end of the reset spring 6S is arranged in the spring mounting channel, but the present application is not limited thereto. Please refer to Fig. 15, which is a structural diagram of the rotating shell and the lock bracket in the embodiment shown in Fig. 1. Further, the driving rotating member 41 is further provided with a third abutting portion 417 corresponding to the second extension arm 94. When the user applies force to rotate the rotating shell 1 counterclockwise, the first abutting portion 415 of the driving rotating member 41 drives one end of the torsion spring 95 to rotate counterclockwise, the second abutting portion 416 drives the connecting plate 961 to rotate counterclockwise, and the third abutting portion 417 drives the second extension arm 94 to rotate counterclockwise, thereby offsetting the torsion of the torsion spring 95 and the elastic force of the reset spring 6S to allow the locking portion 91 of the lock bracket 9 to be received relative to the plug 3, so that the track socket can be inserted into the conductive track or unlocked and pulled out of the conductive track. When the track socket has been inserted into the conductive track or has been pulled out of the conductive track, and the user stops applying force to rotate the rotating shell 1, the lock bracket 9 is reset to rotate clockwise by the torsion of the torsion spring 95 and the elastic force of the reset spring 6S, so that the locking portion 91 protrudes relative to the plug 3, so that the track socket is locked in the conductive track or prevented from being mistakenly inserted into the conductive track to be powered. It should be noted that the above specific embodiments are described with reference to the embodiments shown in Figs. 5, 12 and 15, and the specific embodiments and beneficial technical effects of the driving rotating member 41A, 41B, 41C, the lock bracket 9, the reset spring 6S and the torsion spring 95 in the embodiments shown in Figs. 6-8 are the same as those described above, and the present application will not be described here.

[0181] In the embodiment of the present application, the track socket is locked or unlocked by rotating the track through the setting of the lock bracket 9, the driving rotating member 41, 41A, 41B, 41C cooperating with the lock bracket 9. By canceling the traditional key switch unlocking structure in the existing track socket, the operation logic of the track socket of the present application is simpler, the product is more integrated, and the foreign matter can be effectively prevented from entering the inside of the machine. In addition, by setting the torsional elastic member 95 and the reset spring 6S for resetting the lock bracket 9, the locking or unlocking of the track socket can only be realized when the user actively applies force to rotate the rotating shell 1, thereby avoiding the track socket from being pulled out or mistakenly inserted into the conductive track during use due to accidental touch or accidental contact or child misuse, and further improving the safety protection of the track socket.

[0182] As a preferred embodiment, the sleeve structure further comprises: a USB insulating plate 11 arranged on the base 2; and a USB circuit board 12 arranged on the USB insulating plate 11; wherein the USB circuit board 12 is provided with a conductive sleeve 121 corresponding to the conductive rotating member body 420, and the conductive rotating member body 420 is electrically connected with the conductive sleeve 121; and the USB circuit board 12 is further provided with a USB interface 122.

[0183] Please refer to FIGS. 16-18, FIG. 16 is a structural schematic diagram of the rotating shell and the sleeve structure of an embodiment of the present application, FIG. 17 is a top view of the sleeve structure in the embodiment shown in FIG. 16, and FIG. 18 is a structural schematic diagram of the sleeve structure in the embodiment shown in FIG. 16.

[0184] In one specific embodiment, the sleeve structure further comprises a USB insulating plate 11 arranged on the base 2, and a USB circuit board 12 arranged on the USB insulating plate 11. The USB circuit board 12 is provided with a conductive sleeve 121 corresponding to the passive rotating member body 420, and the upper part of the conductive rotating member body 420 is electrically connected with the conductive sleeve 121. In addition, the USB circuit board 12 is further provided with a USB interface 122. It should be noted that the USB insulating plate 11 is further provided with other elements or devices for realizing the socket function, which is the existing technology in the art, and will not be described here in the present application.

[0185] Further, the USB circuit board 12 further comprises a first USB circuit board 12a disposed on the USB insulating board 11, and the conductive bushing 121 is disposed on the first USB circuit board 12a and corresponds to the conductive rotating body 420. The conductive rotating body 420 is disposed through the USB insulating board 11 and the first USB circuit board 12a in a direction parallel to the rotation axis of the rotating shell 1. Specifically, the conductive rotating body 420 vertically penetrates the USB insulating board 11 and the first USB circuit board 12a and is electrically connected to the conductive bushing 121 at the upper portion. As shown in FIGS. 16-18, two conductive bushings 121 are disposed on the first USB circuit board 12a corresponding to the two conductive rotating bodies 420, respectively. In addition, the second USB circuit board 12b is further disposed on the first USB circuit board 12a, and the USB signal connecting board 13 is inserted and connected between the first USB circuit board 12a and the second USB circuit board 12b. The USB interface 122 further comprises a Type-A interface 1221 and a Type-C interface 1222 disposed on the second USB circuit board 12b. The USB interface 122 can also be other combinations or only Type-A interface 1221 or Type-C interface 1222, and the present application is not limited thereto. Further, since the track socket in which the USB interface 122 is disposed has a low working voltage, there is no need to process the ground wire, so there is no need to set the E pole conductive part 7 in the present embodiment.

[0186] Please refer to FIG. 19, which is a schematic structural diagram of the Type-A jack and the Type-C jack in the embodiment shown in FIG. 16. In a specific embodiment, the adapter further comprises a jack panel 14 disposed on the first USB circuit board 12a, and the jack panel 14 is provided with a Type-A jack 141 and a Type-C jack 142 corresponding to the Type-A interface 1221 and the Type-C interface 1222. As a preferred embodiment, the jack panel 14 is also provided with an indicator light 143, and the outer side of the rotating shell 1 near the jack panel 14 is provided with an indicating notch 145 for assisting 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 indicating notch 145 is a strip-shaped notch, but the present application is not limited thereto.

[0187] As a preferred embodiment, the bushing structure further comprises:

[0188] The insulating board 11A is disposed on the base 2, and the socket bushing 111A and the conductive bushing 112A are further disposed on the insulating board 11A, the conductive bushing 112A is disposed corresponding to the socket bushing 111A and is electrically connected to the socket bushing 111A; and

[0189] The protection door 12A is arranged on the insulating plate 11A and has a protection door insertion hole 121A corresponding to the socket insertion sleeve 111A. The protection door 12A further has a shielding part for shielding the protection door insertion hole 121A.

[0190] The conductive rotating main body 420 is electrically connected with the conductive insertion sleeve 112A, and the E-pole conductive part 7 is electrically connected with the socket insertion sleeve 111A.

[0191] Please refer to FIG. 20 to FIG. 23. FIG. 20 is a structural schematic diagram of the rotating shell and the insertion sleeve structure in the embodiment shown in FIG. 1. FIG. 21 is a top view of the protection door in the embodiment shown in FIG. 1. FIG. 22 is a top view of the insertion sleeve structure in the embodiment shown in FIG. 1. FIG. 23 is a structural schematic diagram of the insertion sleeve structure in the embodiment shown in FIG. 1.

[0192] In one specific embodiment, the insertion sleeve structure further comprises the insulating plate 11A arranged on the base 2. The insulating plate 11A further has the socket insertion sleeve 111A and the conductive insertion sleeve 112A arranged thereon. The conductive insertion sleeve 112A is arranged corresponding to the socket insertion sleeve 111A, and the conductive insertion sleeve 112A is electrically connected with the socket insertion sleeve 111A. Specifically, the socket insertion sleeve 111A is a five-hole socket insertion sleeve. The five-hole socket insertion sleeve further comprises two L-pole insertion sleeves 1111A, two N-pole insertion sleeves 1112A and one E-pole insertion sleeve 1113A. The conductive insertion sleeve 112A further comprises a first conductive insertion sleeve 1121A and a second conductive insertion sleeve 1122A. The first conductive insertion sleeve 1121A is fixedly connected with the two L-pole insertion sleeves 1111A, and the second conductive insertion sleeve 1122A is fixedly connected with the two N-pole insertion sleeves 1112A. The conductive insertion sleeve 112A is electrically connected with the socket insertion sleeve 111A through a copper band, but the present application is not limited thereto. In addition, the insertion sleeve structure further comprises the protection door 12A arranged on the insulating plate 11A and having the protection door insertion hole 121A corresponding to the socket insertion sleeve 111A. The protection door 12A further has a shielding part for shielding the protection door insertion hole 121A. The shielding part further comprises a first shielding part 122A and a second shielding part 123A. It should be noted that the insulating plate 11A further has other elements or devices for realizing the socket function, which are prior art in the field and will not be described herein.

[0193] Further, the conductive rotating main body 420 is electrically connected with the conductive bush 112A. Specifically, the conductive rotating main body 420 penetrates the insulating plate 11A along the direction parallel to the rotating axis direction of the rotating shell 1 and is electrically connected with the first conductive bush 1121A and the second conductive bush 1122A. As shown in FIGS. 21-23, two conductive rotating main bodies 420 are vertically arranged through the insulating plate 11A, and the upper portions of the two conductive rotating main bodies 420 are electrically connected with the first conductive bush 1121A and the second conductive bush 1122A, respectively. The E-pole conductive member 7 is electrically connected with the socket bush 111A. Specifically, the E-pole conductive member 7 penetrates the insulating plate 11A along the direction parallel to the rotating axis direction of the rotating shell 1 and is electrically connected with the E-pole bush 1113A. As shown in FIGS. 5-8, 12, and 22, the E-pole conductive member 7 is further sleeved with a conductive member spring 71, the conductive member spring 71 is sleeved on the upper portion of the E-pole conductive member 7, and one end of the conductive member spring 71 is in abutment with the E-pole bush 1113A. The conductive member spring 71 is used to provide a counteracting force when the electronic device is inserted into the track socket, so as to avoid the plug of the electronic device from damaging the bush structure of the track socket, thereby playing a buffering protection role and improving the user's use feeling.

[0194] Please refer to FIG. 24, which is a structural schematic view of the five-hole jack in the embodiment shown in FIG. 1. In one specific embodiment, the adapter further comprises a jack panel 14A, and the jack panel 14A is provided with a five-hole jack 141A corresponding to the socket bush 111A. As a preferred embodiment, the jack panel 14A is further provided with an indicator lamp 142A, and the outer side of the rotating shell 1 is provided with an indicating notch 143A near the jack panel 14A, which is used to assist the installation and use of the track socket. The indicator lamp 142A is a circular indicator lamp, and the indicating notch 143A is a strip-shaped notch, but the present application is not limited thereto.

[0195] As a preferred embodiment, the bush structure further comprises:

[0196] an insulating plate 11B arranged on the base 2, the insulating plate 11B is further provided with a socket bush 111B and a conductive bush 112B, the conductive bush 112B is arranged corresponding to the socket bush 111B and is electrically connected with the socket bush 111B; and

[0197] a protection door 12B arranged on the insulating plate 11B and provided with a protection door jack 121B corresponding to the socket bush 111B, the protection door 12B is further provided with a shielding portion for shielding the protection door jack 121B; wherein,

[0198] the conductive rotating main body 420 is electrically connected with the conductive bush 112B, and the E-pole conductive member 7 is electrically connected with the socket bush 111B.

[0199] Please refer to FIG. 25 to FIG. 28, FIG. 25 is a structural schematic diagram of the rotating shell and the socket structure of another embodiment of the present application, FIG. 26 is a top view of the protection door in the embodiment shown in FIG. 25, FIG. 27 is a top view of the socket structure in the embodiment shown in FIG. 25, and FIG. 28 is a structural schematic diagram of the socket structure in the embodiment shown in FIG. 25.

[0200] In one specific embodiment, the socket structure further comprises an insulating plate 11B arranged on the base 2, and the insulating plate 11B is further provided with a socket socket 111B and a conductive socket 112B corresponding to the socket socket 111B. The conductive socket 112B is arranged on the second PCB board 114B corresponding to the socket socket 111B, and the conductive socket 112B and the socket socket 111B are electrically connected. Specifically, the insulating plate 11B further comprises a first PCB board 113B arranged on the base 2, and a second PCB board 114B arranged on the first PCB board 113B, and the second PCB board 114B is arranged on the first PCB board 113B through a plurality of pin needles 115B, and the first PCB board 113B and the second PCB board 114B are electrically connected through the plurality of pin needles 115B. The second PCB board 114B is provided with a conductive socket 112B corresponding to the socket socket 111B and the conductive rotating main body 420, and the second PCB board 114B is further provided with a WiFi intelligent module 116B.

[0201] Further, the socket socket 111B is a five-hole strong current socket, and the five-hole strong current socket is electrically connected to the conductive socket 112B through the second PCB board 114B. Specifically, the five-hole strong current socket further comprises two L-pole sockets 1111B, two N-pole sockets 1112B and one E-pole socket 1113B, the two L-pole sockets 1111B and the two N-pole sockets 1112B are arranged on the second PCB board 114B and are electrically connected to the conductive socket 112B respectively. The bottom of the protection door 12B is provided with a mounting groove, and the E-pole socket 1113B is arranged in the mounting groove at the bottom of the protection door 12B. Among them, the conductive socket 112B is electrically connected to the L-pole socket 1111B and the N-pole socket 1112B through a copper strip, but the present application is not limited thereto.

[0202] In addition, the socket structure further comprises a protection door 12B arranged on the insulating plate 11B. The protection door 12B is arranged on the second PCB board 114B and is provided with a protection door jack 121B corresponding to the socket socket 111B, and the protection door 12B is further provided with a shielding part for shielding the protection door jack 121B, and the shielding part further comprises a first shielding part 122B and a second shielding part 123B. It should be noted that the insulating plate 11B is further provided with other elements or devices for realizing the socket function, which is the prior art in the field, and the present application will not be described here.

[0203] Further, the conductive rotating body 420 is electrically connected with the conductive bush 112B. Specifically, the conductive rotating body 420 penetrates the first PCB board 113B and the second PCB board 114B along the direction parallel to the rotating axis direction of the rotating shell 1, and is electrically connected with the conductive bush 112B. As shown in FIGS. 26-28, the number of the conductive rotating body 420 is two, the number of the conductive bush 112B is two, and the conductive bush 112B is arranged on the second PCB board 114B corresponding to the two conductive rotating bodies 420 and the socket bush 111B. The two conductive rotating bodies 420 are arranged vertically penetrating the first PCB board 113B and the second PCB board 114B, and the upper parts of the two conductive rotating bodies 420 are electrically connected with the corresponding conductive bush 112B. The E pole conductive member 7 is electrically connected with the socket bush 111B. Specifically, the E pole conductive member 7 penetrates the first PCB board 113B along the direction parallel to the rotating axis direction of the rotating shell 1, and is electrically connected with the E pole bush 1113B. The E pole conductive member 7 is arranged vertically penetrating the first PCB board 113B, and the upper part of the E pole conductive member 7 is electrically connected with the E pole bush 1113B. In addition, as shown in FIG. 27, the E pole conductive member 7 is further sleeved with a conductive member spring 71, the conductive member spring 71 is sleeved on the upper part of the E pole conductive member 7, and one end of the conductive member spring 71 abuts against the E pole bush 1113B. The conductive member spring 71 is used to provide a reverse force when the electronic device is inserted into the track socket, so as to avoid the plug of the electronic device damaging the bush structure of the track socket, and plays a buffering protection role, and can improve the user's use feeling.

[0204] Please further refer to FIG. 29, which is a structural schematic view of the five-hole jack in the embodiment shown in FIG. 25. In one specific embodiment, the adapter further comprises a jack panel 14B, and the jack panel 14B is provided with a five-hole jack 141B corresponding to the socket bush 111B. As a preferred embodiment, the jack panel 14B is further provided with an indicator lamp 142B, and the outer side of the rotating shell 1 is provided with an indicating notch 143B near the jack panel 14B, which is used to assist the installation and use of the track socket. The indicator lamp 142B is a circular indicator lamp, and the indicating notch 143B is a strip-shaped notch, but the present application is not limited thereto. Further, the rotating shell 1 is further provided with a button 15B, and the first PCB board 113B is further provided with a switch element 16B corresponding to the button 15B. The switch element 16B is electrically connected with the WiFi smart module 116B through the first PCB board 113B and the second PCB board 114B, and the user triggers the switch element 16B by pressing the button 15B on the rotating shell 1, so as to turn on or off the WiFi smart module 116B.

[0205] Please refer to Fig. 30 again, which is a perspective assembly view of the track socket adapter of the embodiment shown in Fig. 1. In one specific embodiment, the layers and components of the track socket adapter are stacked on the base 2 and connected by screws 23, but the present application is not limited thereto. It should be noted that the stacking structure in other embodiments of the present application is the same as that shown in Fig. 30, which will not be described here.

[0206] In the embodiment of the present application, the rotating shell 1 is sleeved on the base 2, and the jack panel 14, 14A, 14B, the bushing structure, the insulating plate, the passive rotating part 42, the lock catch bracket 9 and the base 2 are sequentially stacked in the rotating shell 1 and connected layer by layer by long screws, thereby achieving a track socket structure with simpler structure and more convenient installation, and avoiding the complex structure mode of mixing the drive assembly and the bushing in the prior art track socket.

[0207] The specific operation mode and working principle of the present application will be further described below in one embodiment of the present application in combination with Figs. 4-5, 15 and 31-34. Fig. 31 is a bottom view of the track socket adapter in a power-off state in the embodiment shown in Fig. 1, Fig. 32 is an internal structure schematic view of the track socket adapter in a power-on state in the embodiment shown in Fig. 1, Fig. 33 is an internal structure schematic view of the track socket adapter in an unlocked state in the embodiment shown in Fig. 1, and Fig. 34 is a bottom view of the track socket adapter in an unlocked state in the embodiment shown in Fig. 1.

[0208] Please refer to FIG. 5 and FIG. 31, the track socket is in the power-off state, the protruding locking portion 91 makes the track socket locked in the conductive track, the third rotating protrusion 414 is located at the first limiting point P1 of the flexible elastic member 5, the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are in the storage state and are located at the first angle position. Please refer to FIG. 32 and FIG. 4, when it is needed to open the track socket to take power, the rotating 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, wherein the angle of the clockwise rotation is 15 degrees, but the present application is not limited thereto. By the elastic force provided by the limiting spring 6 and the elastic force of the flexible elastic member 5, the third rotating protrusion 414 is subjected to the maximum resistance at the second limiting point P2, if the user does not actively rotate the rotating shell 1, the third rotating protrusion 414 will be limited by the resistance at the second limiting point P2 to return to the first limiting point P1, so that the track socket will not be opened to take power. If the user actively rotates the rotating 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. At the same time, the first rotating protrusion 412 and the second rotating protrusion 413 of the active rotating member 41 also drive the toggle member 422 of the conductive rotating body 420 to rotate clockwise, thereby making the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 on the first conductive arm 421a and the second conductive arm 421b respectively unfolded towards different sides of the plug-in member 3, wherein the opening of the unfolded angles of the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 faces the same direction. At this time, the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are in contact with the zero line and the live wire in the conductive track to take power, the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 are in the unfolded state and are located at the second angle position, wherein the unfolded angle of the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 relative to the plug-in member 3 is 30 degrees at the second angle position, but the present application is not limited thereto. When the user needs to close the track socket to cut off the power, the reverse operation according to the above method can be performed, which will not be described here. It should be noted that when the track socket switches between the power-off state and the power-on state, the locking portion 91 of the locking bracket 9 is always in the protruding state.

[0209] Please refer to FIG. 15, FIG. 33 and FIG. 34, when the track socket is in the power-off state, the user unlocks and takes out the track socket from the conductive track or unlocks and inserts the track socket into the conductive track, the rotating shell 1 is rotated counterclockwise at an angle, the third rotating protrusion 414 slides along one side of the flexible elastic piece 5 away from the limiting spring 6, and the angle of counterclockwise rotation is 15 degrees, but the present application is not limited thereto. At the same time, the first abutting part 415 of the driving rotating piece 41 drives one end of the torsion elastic piece 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 extension arm 94 to rotate counterclockwise, so as to offset the torsion of the torsion elastic piece 95 and the elastic force of the reset spring 6S to make the locking part 91 of the locking bracket 9 accommodated in the plug-in piece 3, so that the track socket can be inserted into the conductive track or unlocked and taken out of the conductive track. When the track socket has been inserted into the conductive track or taken out of the conductive track, and the user stops applying force to rotate the rotating shell 1, the locking bracket 9 is reset to rotate clockwise by the torsion of the torsion elastic piece 95 and the elastic force of the reset spring 6S, so that the locking part 91 protrudes relative to the plug-in piece 3, so that the track socket is locked in the conductive track or prevented from being mistakenly inserted into the conductive track to be powered on. In the above process, the first rotating protrusion 412 and the second rotating protrusion 413 of the driving rotating piece 41 are all disengaged from the pushing piece 422, that is, the driving rotating piece 41 and the passive rotating piece 42 do not cooperate in movement.

[0210] The track socket provided by the present application realizes the functions of rotating to take power and rotating to cut off power by the arrangement of the rotating shell 1 and the rotating power-on assembly 4. In addition, by arranging the openings that are developed towards different sides of the plug-in piece 3 and have the same opening direction of the conductive arm 421, the contact distance of the N-pole conductive sheet and the L-pole conductive sheet on the conductive arm 421 with the track conductive sheet in the conductive track is increased, and the use safety of the track socket is improved. In contrast, the conductive arm of the track socket in the prior art is usually arranged in the middle or on both sides of the bottom of the track socket and close to the edges of the two sides, which causes the contact distance of the N-pole conductive sheet and the L-pole conductive sheet on the conductive arm with the track conductive sheet in the conductive track to be too small, and there is a safety hazard. At the same time, the track socket usually has a traditional switch button, which has the problems of inconvenient use, limited service life and inability to effectively perform safety protection. Therefore, the track socket provided by the present application further improves the use convenience and safety of the track socket, increases the contact distance of the conductive arm with the track conductive sheet in the conductive track, and improves the use safety of the track socket on the basis of realizing the basic functions of taking power and cutting off power of the track socket.

[0211] Referring to FIGS. 35-38, FIG. 35 is a front view of a track socket adapter according to an embodiment of the present application, FIG. 36 is a left view of the track socket adapter shown in FIG. 35, FIG. 37 is a right view of the track socket adapter shown in FIG. 35, and FIG. 38 is a bottom view of the track socket adapter shown in FIG. 35.

[0212] To better achieve the object of the present application, the present application further provides a track socket comprising an adapter, the adapter comprising a rotating shell 1' and a base 2', the rotating shell 1' being provided with a rotating power-on assembly 4' electrically connected with a sleeve structure and a driving assembly driving the rotating power-on assembly 4' to rotate, the base 2' being fixedly connected with a plug-in piece 3' below, the rotating power-on assembly 4' comprising a conductive arm 421' movably connected with an external conductive track, the conductive arm 421' being movably connected on a side of the plug-in piece 3' opposite to the sleeve structure. The driving assembly drives the conductive arm 421' to be retracted or unfolded relative to the plug-in piece 3', the unfolding angle of the conductive arm 421' being an acute angle, and the unfolding angle openings of the conductive arm 421' being the same.

[0213] In one specific embodiment, as shown in FIGS. 35-38, the track socket provided by the present application comprises an adapter, the adapter comprising a rotating shell 1' and a base 2', the rotating shell 1' being movably sleeved on the base 2' and being rotatable clockwise or counterclockwise relative to the base 2'. The plug-in piece 3' is arranged below the base 2' and is fixedly connected with the base 2', the rotating shell 1' being further provided with a rotating power-on assembly 4' electrically connected with a sleeve structure and a driving assembly driving the rotating power-on assembly 4' to rotate, the specific structure of the driving assembly and the sleeve structure being described in detail below and not described herein again. The rotating power-on assembly 4' further comprises a conductive arm 421', the conductive arm 421' being movably connected with an external conductive track of the track socket, the track socket being powered or powered off by the conductive arm 421' being in contact or not in contact with the conductive track. Specifically, the conductive arm 421' is movably connected on a side of the plug-in piece 3' opposite to the sleeve structure, i.e. the conductive arm 421' is located on a side of the plug-in piece 3' away from the base 2', and the conductive arm 421' is rotatable relative to the plug-in piece 3' to realize the power-on or power-off of the track socket. The driving assembly drives the conductive arm 421' to be retracted or unfolded relative to the plug-in piece 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 unfolded state, the track socket is in the power-on state, the unfolding angle of the conductive arm 421' being an acute angle, and the unfolding angle openings of the conductive arm 421' being the same. It should be noted that the unfolding angle openings of the conductive arm 421' being the same means that the unfolding angle opening angles are the same and the directions of the unfolding angle opening are the same, or that the unfolding angle opening angles are different and the directions of the unfolding angle opening are the same, and the present application is not limited in this way.

[0214] In the embodiment of the present application, the same direction expansion of the conductive arms 421' increases the contact distance of the conductive arms 421' with the conductive strips in the conductive track, and the plug-in part 3 and the conductive arms 421' form a stable triangular connection, which enhances the connection stability of the conductive arms 421' with the conductive track, and further improves the use safety of the track socket. In addition, the rotation of the shell 1' and the rotation of the upper power assembly 4' realize the functions of rotating power supply and power-off of the track socket, further improving the use convenience and safety of the track socket.

[0215] As a preferred embodiment, the plug-in part 3' is also centrally provided with an E pole conductive part 7', which is located between the conductive arms 421', and the fixed connection ends 4213', 4214' of the conductive arms 421' are not equidistant from the E pole conductive part 7'.

[0216] Please refer to FIGS. 35-38 and FIG. 39, which is a schematic diagram of the E pole conductive part in an embodiment of the present application. In a specific embodiment, the base 2' is also provided with an E pole conductive part 7', which penetrates the base 2' and the plug-in part 3' along the direction parallel to the rotation axis of the rotating shell 1' and extends out of the plug-in part 3' in the direction away from the base 2'. Specifically, in the embodiment of the present application, the E pole conductive part 7' penetrates the base 2' and the plug-in part 3' along the direction perpendicular to the base 2', and the E pole conductive part 7' is centrally and penetratively arranged on the base 2' and the plug-in part 3'. The E pole conductive part 7' is located between the conductive arms 421', and the fixed connection ends 4213', 4214' of the conductive arms 421' are not equidistant from the E pole conductive part 7', i.e., the conductive arms 421' are asymmetrically arranged relative to the E pole conductive part 7', but the present application is not limited thereto. When the plug-in part 3' is inserted into the conductive track, the E pole conductive part 7' is used to connect with the ground wire in the conductive track, preventing electric shock and ensuring the safety of electricity use. Further, as shown in FIG. 39, the upper part of the E pole conductive part 7' is located in the rotating shell 1' and has a cylindrical structure, and the lower part of the E pole conductive part 7' extends out of the plug-in part 3' and has a rectangular column structure. The structure of the E pole conductive part 7' in the present embodiment facilitates the electrical connection of the upper part with the plug-in sleeve structure and the insertion of the lower part into the conductive track to connect with the ground wire, but the present application is not limited thereto.

[0217] In the embodiment of the present application, the asymmetrically arranged conductive arms 421' not only meet the creepage distance requirement between the electrodes, but also avoid the problem that the conductive arms 421' are centrally and penetratively arranged in the middle of the plug-in part 3' or symmetrically arranged on both sides of the plug-in part 3' close to the two side edges of the plug-in part 3' in the existing track socket, which leads to the problem of oversize of the socket and easy abrasion during use.

[0218] As a preferred embodiment, the rotating power-on assembly 4' further comprises a rotating lever 420' arranged in the plug-in piece 3', the bottom end of the rotating lever 420' is connected with the conductive arm 421' respectively; the two sides of the plug-in piece 3' are provided with a lever slot S2' for accommodating the rotating lever 420', and the bottom of the lever slot S2' is provided with a conductive arm slot S1' for accommodating the conductive arm 421'.

[0219] Please refer to FIG. 35 to FIG. 37. In one embodiment, the rotating power-on assembly 4' further comprises a rotating lever 420' arranged in the plug-in piece 3', the upper part of the rotating lever 420' is located in the rotating shell 1' and is used for electrical connection with the plug-in sleeve structure, and the bottom end of the rotating lever 420' is located at the plug-in piece 3' and is fixedly connected with the fixed connection end 4213', 4214' of the conductive arm 421'. In the embodiment of the present application, the E pole conductive piece 7' is an E pole conductive column, the rotating lever 420' is located on both sides of the E pole conductive column and is not equidistant from the E pole conductive column. Specifically, the extension direction of the rotating 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 rotating lever 420' is vertically inserted into the conductive track. When the rotating shell 1' is rotated, the rotating shell 1' drives the rotating lever 420' to rotate so as to rotate the conductive arm 421', and then rotate the conductive arm 421' between the storage state and the unfolded state.

[0220] The two sides of the plug-in piece 3' are provided with a lever slot S2' for accommodating the rotating lever 420', and the bottom of the lever slot S2' is provided with a conductive arm slot S1' for accommodating the conductive arm 421'. When the conductive arm 421' is in the storage state relative to the plug-in piece 3', the conductive arm slot S1' is used for accommodating the conductive arm 421'. The conductive arm slot S1' is used for accommodating the conductive arm 421' when the conductive arm 421' is in the storage state relative to the plug-in piece 3'. Wherein, the conductive arm slot S1' and the lever slot S2' can completely penetrate, partially penetrate or not penetrate the plug-in piece 3', and the conductive arm slot S1' and the lever slot S2' are communicated, but the present application is not limited thereto.

[0221] In the embodiment of the present application, by arranging the conductive arm slot S1' and the lever slot S2', the rotating lever 420' and the conductive arm 421' do not protrude from the two sides of the plug-in piece 3' when they are in the storage state, so as to facilitate the insertion of the plug-in piece 3' into the conductive track, and avoid the conductive arm 421' from being accidentally contacted with the zero line and the live line during the insertion process, thereby avoiding the safety hazard caused by accidental conduction.

[0222] As a preferred embodiment, the base 2' is further provided with a locking assembly 9', the locking part 91' of the locking assembly 9' is movably connected to the plug-in piece 3', when the locking assembly 9' is driven by the outside, the locking part 91' is stored in the plug-in piece 3', and in the natural state of the locking assembly 9', the locking part 91' protrudes from the surface of the plug-in piece.

[0223] Please refer to FIGS. 35-38 and FIG. 40, which is a schematic diagram of the structure on the base in the embodiment shown in FIG. 35.

[0224] In one specific embodiment, the base 2' is provided with a locking assembly 9', which further comprises a locking portion 91' movably connected to the plug-in piece 3'. Specifically, the locking portion 91' penetrates the base 2' along a direction parallel to the rotation axis direction of the rotating shell 1', and is located at the plug-in piece 3' and above the conductive arm 421'. When the rotating shell 1' drives the locking assembly 9' to rotate, the locking portion 91' is accommodated or protruded relative to the plug-in piece 3' to unlock or lock the locking assembly 9' to the conductive track, and the rotation of the locking portion 91' does not interfere with the rotation of the conductive arm 421'. In addition, the plug-in piece 3' is further provided with a relief groove S3' for accommodating the locking portion 91'. When the locking assembly 9' is externally driven, i.e., the rotating shell 1' is rotated to drive the locking assembly 9' to rotate, the locking portion 91' is accommodated relative to the plug-in piece 3', and the locking portion 91' is retracted and accommodated into the relief groove S3', so that the locking assembly 9' is unlocked to the conductive track, avoiding hindering the track socket from being inserted into or pulled out of the conductive track. When the locking assembly 9' is in a natural state without external driving, the locking portion 91' protrudes from the surface of the plug-in piece, and the locking assembly 9' is locked to the conductive track for subsequent power taking work. It should be noted that the relief groove S3' can or can not penetrate the plug-in piece 3', and the present application is not limited thereto.

[0225] As a preferred embodiment, the bushing structure is installed on the insulating plate 11A', and the insulating plate 11A' is provided with a mounting through hole corresponding to the position of the E-pole bushing 1113A', and an E-pole conductive column electrically connected to the E-pole bushing 1113A' is installed in the mounting through hole. The E-pole conductive column extends downward from the bottom of the base 2', and the E-pole conductive column is externally provided with an elastic member 71', and the bottom end of the E-pole conductive column protrudes from the end face of the plug-in piece 3'.

[0226] Please refer to FIGS. 41 and 42, FIG. 41 is a top view of the bushing structure in the embodiment shown in FIG. 35, and FIG. 42 is a schematic diagram of the structure of the bushing structure in the embodiment shown in FIG. 35.

[0227] In one specific embodiment, the socket structure further comprises an insulating plate 11A' arranged on the base 2', and the insulating plate 11A' is further provided with a socket socket 111A' and a conductive socket 112A', the conductive socket 112A' is arranged 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 comprises two L-pole sockets 1111A', two N-pole sockets 1112A' and an E-pole socket 1113A'. The conductive socket 112A' further comprises a first conductive socket 1121A' and a second conductive socket 1122A', the first conductive socket 1121A' is fixedly connected with the two L-pole sockets 1111A', and the second conductive socket 1122A' is fixedly connected with the two N-pole sockets 1112A'. Among them, the conductive socket 112A' is electrically connected with the socket socket 111A' through a copper strip, but the present application is not limited to this. It should be noted that the insulating plate 11A' is also provided with other elements or devices for realizing the function of socket, which is the existing technology in the art, and the present application will not be described here.

[0228] Further, the insulating plate 11A' is provided with a mounting through hole corresponding to the position of the E-pole socket 1113A', and the E-pole conductive member 7' in the embodiment of the present application is an E-pole conductive column, which penetrates the insulating plate 11A' along the direction parallel to the rotation axis of the rotating shell 1' and is electrically connected with the E-pole socket 1113A'. Among them, the upper part of the E-pole conductive column penetrates the insulating plate 11A' vertically through the mounting through hole and is electrically connected with the E-pole socket 1113A'. The lower part of the E-pole conductive column penetrates the base 2' and the plug-in member 3' and extends in the direction away from the insulating plate 11A', and the bottom end of the E-pole conductive column protrudes from the end face of the plug-in member 3'.

[0229] In addition, as shown in FIGS. 40 and 41, the E-pole conductive column is further sleeved with an elastic member 71', and the elastic member 71' is a conductive spring, but the present application is not limited to this. The elastic member 71' is sleeved on the upper part of the E-pole conductive column, and the top end of the elastic member 71' abuts against the E-pole socket 1113A'. Specifically, please refer to FIG. 39 again, the outside of the E-pole conductive member 7' is further provided with an annular boss 72', the lower end of the elastic member 71' abuts against the insulating plate 11A', and the upper end of the elastic member 71' is sleeved on the annular boss 72'. In the embodiment of the present application, the outside of the E-pole conductive member 7' is provided with an annular boss 72', but the present application is not limited to this, and the outside of the E-pole conductive member 7' can also be provided with an annular groove, as long as the elastic member 71' can be sleeved. The elastic member 71' is used to provide a reverse force when the electronic device is inserted into the track socket, so as to avoid the plug of the electronic device damaging the socket structure of the track socket, and plays a buffering protection role, and can improve the user's use feeling.

[0230] In addition, the push rod 420' is electrically connected with the conductive bush 112A'. Specifically, the push rod 420' penetrates the insulating plate 11A' along the rotation axis direction of the rotating shell 1' and is electrically connected with the first conductive bush 1121A' and the second conductive bush 1122A'. As shown in FIGS. 41 and 42, two push rods 420' are vertically arranged in the insulating plate 11A' and the upper parts of the two push rods 420' are electrically connected with the first conductive bush 1121A' and the second conductive bush 1122A', respectively. The power taking function of the track socket is realized by the conductive arm 421', the push rod 420' and the first conductive bush 1121A' and the second conductive bush 1122A'.

[0231] The bush structure in the embodiment realizes a track socket structure with simpler structure and more convenient installation, avoiding the complex structure mode of mixing the drive assembly and the bush in the prior art track socket.

[0232] As a preferred embodiment, the rotating power supply assembly 4" includes a driving rotating part 41", 41A", 41B", 41C" and a passive connecting part 43" rotatably sleeved on the base 2'. The driving rotating part 41", 41A", 41B", 41C" includes a first rotating protrusion 412", 411A", 4101B", 4101C" and a second rotating protrusion 413", 412A", 4111B", 4112C". The passive connecting part 43" includes a push rod 430" rotatably sleeved on the base 2' and a conductive arm 431" connected with the push rod 430" at a right angle. The upper part of the push rod 430" is connected with a push piece 432" matched with the first rotating protrusion 412", 411A", 4101B", 4101C" and the second rotating protrusion 413", 412A", 4111B", 4112C". The driving rotating part 41", 41A", 41B", 41C" is configured to drive the push rod 430" to drive the conductive arm 431" to expand or be accommodated by the cooperation of the rotating protrusion and the push piece 432".

[0233] Please refer to FIGS. 43 and 44. FIG. 43 is a schematic view of the passive connecting part of an embodiment of the application. FIG. 44 is a schematic view of the internal structure of the track socket adapter in a power-off state of an embodiment of the application.

[0234] In one embodiment, the rotating power-on assembly 4" is arranged on the rotating shell 1' and below the socket structure, and the rotating power-on assembly 4" comprises a driving assembly. The driving assembly further comprises a driving rotating member 41" fixedly connected with the rotating shell 1', and a passive connecting member 43" rotatably sleeved on the base 2'. Specifically, the passive connecting member 43" comprises a push rod 430" arranged through the base 2' and electrically connected with the socket structure. The upper portion of the push rod 430" is electrically connected with the socket structure, and the lower portion of the push rod 430" is connected with a conductive arm 431" at the plug-in connector 3'. The conductive arm 431" is connected with the push rod 430" at a right angle, but the present application is not limited thereto. The user can rotate the driving rotating member 41" by rotating the rotating shell 1', and then the driving rotating member 41" drives the push rod 430" to rotate, so that the conductive arm 431" rotates to achieve the storage or expansion of the conductive arm 431" relative to the plug-in connector 3'.

[0235] In the embodiments of the present application, the rotating shell 1' and the rotating power-on assembly 4" are arranged, the traditional key switch structure is cancelled, the power-on and power-off are realized by rotating operation, and a more convenient use mode is provided. Further, the pressure distribution of the rotating operation on the base 2' is more uniform, and compared with the wear caused by the pressing force and frequency of the traditional key switch structure, the rotating operation of the rotating shell 1' and the rotating power-on assembly 4" can prolong the service life of the track socket. In addition, the switch mode of the rotating operation needs the user to exert a certain force or accurate rotation angle to operate and realize, which avoids the risk of mistaken opening or mistaken touch of children, and further improves the use safety.

[0236] As a preferred embodiment, the driving rotating member 41", 41A" is an integral structure, and has at least one end portion fixedly connected with the rotating shell 1.

[0237] Please refer to Fig. 44, in one embodiment, the driving rotating member 41" is an integral structure and has two end portions fixedly connected with the rotating shell 1'. Specifically, one end portion 411" on the left side of the driving rotating member 41" is fixedly connected with the rotating shell 1', and the other end portion 410" on the right side of the driving rotating member 41" is fixedly connected with the rotating shell 1'.

[0238] Please refer to Fig. 45, which is a schematic view of the internal structure of the track socket adapter in the power-off state according to another embodiment of the present application. In one embodiment, the driving rotating member 41A" is an integral structure and has one end portion 410A" fixedly connected with the rotating shell 1'.

[0239] As a preferred implementation, the active rotating member 41B" and 41C" at least comprises a first active rotating member 410B" and 410C" and a second active rotating member 411B" and 411C", the first active rotating member 410B" and 410C" and the second active rotating member 411B" and 411C" are in a split structure, and one end of the first active rotating member 410B" and 410C" and at least one end of the second active rotating member 411B" and 411C" are respectively fixedly connected with the rotating shell 1'.

[0240] Please refer to FIG. 46, which is a schematic diagram of the internal structure of the track socket adapter of another embodiment of the present application in a power-off state. In one specific embodiment, the active rotating member 41B" comprises a first active rotating member 410B" and a second active rotating member 411B", and the first active rotating member 410B" and the second active rotating member 411B" are in a split structure. Specifically, one end 4100B" of the first active rotating member 410B" is fixedly connected with the rotating shell 1' and arranged on the left side of the rotating shell 1', and the second active rotating member 411B" has an end 4110B" fixedly connected with the rotating shell 1' and arranged on the right side of the rotating shell 1'.

[0241] Please refer to FIG. 47, which is a schematic diagram of the internal structure of the track socket adapter of another embodiment of the present application in a power-off state. In one specific embodiment, the active rotating member 41C" comprises a first active rotating member 410C" and a second active rotating member 411C", and the first active rotating member 410C" and the second active rotating member 411C" are in a split structure. Specifically, one end 4100C" of the first active rotating member 410C" is fixedly connected with the rotating shell 1' and arranged on the left side of the rotating shell 1'. The second active rotating member 411C" has two ends 4110C" and 4111C" fixedly connected with the rotating shell 1', wherein the end 4111C" of the second active rotating member 411C" is arranged on the front side of the rotating shell 1', and the end 4110C" of the second active rotating member 411C" is arranged on the right side of the rotating shell 1'. It should be noted that the positions of the active rotating members 41", 41A", 41B", and 41C" fixedly connected with the rotating shell 1' can also be other positions, and the present application is not limited in this regard.

[0242] In the embodiments of the present application, through the structures of the different active rotating members 41", 41A", 41B", and 41C" and the fixed connection modes of the active rotating members 41", 41A", 41B", and 41C" with the rotating shell 1', the internal space structure of the rotating shell 1' can be further reasonably optimized, the rotating power-on assembly 4" can be adapted to different adapter structures, and the applicability of the rotating power-on assembly 4" can be improved.

[0243] As shown in the embodiments of Figs. 44-47, the active rotating member 41", 41A", 41B", 41C" is provided with first rotating protrusions 412", 411A", 4101B", 4101C" and second rotating protrusions 413", 412A", 4111B", 4112C" corresponding to the push rod 430". When the user rotates the rotating shell 1', the active rotating member 41", 41A", 41B", 41C" rotates with the rotating shell 1', and in turn drives the push rod 430" to rotate through the first rotating protrusions 412", 411A", 4101B", 4101C" and the second rotating protrusions 413", 412A", 4111B", 4112C", so that the conductive arm 431" rotates and is in the stowed or deployed state relative to the plug-in member 3'.

[0244] Please refer to Figs. 45, 46 and 47, in a specific embodiment, the upper part of the push rod 430" is located in the rotating shell 1' and is used to electrically connect with the socket structure, and the lower part of the push rod 430" is located at the plug-in member 3' and is fixedly connected with the conductive arm 431". Specifically, the extension direction of the push rod 430" is perpendicular to the extension direction of the conductive track, so that when the track socket is inserted into the conductive track, the push rod 430" is vertically inserted into the conductive track. In addition, the upper part of the push rod 430" is further provided with a push piece 432", which is in an A-shaped structure and is perpendicular to the push rod 430', and the push piece 432" is located in the rotating shell 1' and cooperates with the active rotating member 41", 41B", 41C" to rotate the conductive arm 431". Further, the upper part of the push rod 430" and the push piece 432" are sleeved on the base 2', and the lower part of the push rod 430" penetrates through the base 2' and is located at the plug-in member 3'. When the rotating shell 1' is rotated, the first rotating protrusions 412", 4101B", 4101C" and the second rotating protrusions 413", 4111B", 4112C" of the active rotating member 41", 41B", 41C" rotate with the rotating shell 1', and in turn drive the push piece 432" to rotate. At the same time, the push piece 432" drives the push rod 430" and the conductive arm 431" to rotate, so that the conductive arm 431" rotates between the stowed state and the deployed state. It should be noted that the shape of the push piece 432" can also be other shapes, and the present application is not limited thereto.

[0245] As a preferred embodiment, the upper part of the push rod 430A" is further provided with a back push piece 432B", and the push piece 432A" and the back push piece 432B" are oppositely arranged relative to the push rod 430A", and the active rotating member 41A" drives the push rod 430", 430A" to rotate through the push piece 432", 432A" and the back push piece 432B".

[0246] Please refer to Fig. 45. In one embodiment, the difference from the above embodiment is that the active rotating member 41A" is a one-piece structure and has an end portion 410A" fixedly connected with the rotating shell 1'. In addition, similar to the above embodiment, the upper portion of the push rod 430A" of the passive connecting member 43A" is located in the rotating shell 1' and is used to electrically connect with the plug sleeve structure, the lower portion of the push rod 430A" is located at the plug-in member 3' and is fixedly connected with the conductive arm, and the upper portion of the push rod 430A" is provided with a push piece 432A". In order to enable the active rotating member 41A" to drive the push rod 430" and 430A" to rotate, the difference from the above embodiment is that the upper portion of the push rod 430A" of the passive connecting member 43A" is further provided with a back push piece 432B", and the push piece 432A" and the back push piece 432B" are oppositely arranged with respect to the push rod 430A". Specifically, when the rotating 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 shell 1', and then the first rotating protrusion 411A" drives the back push piece 432B" of the passive connecting member 43A" to rotate, and the second rotating protrusion 412A" drives the push piece 432" of the passive connecting member 43" to rotate. At the same time, the push piece 432" and the back push piece 432B" drive the respective push rod 430" and 430A" and the conductive arm to rotate, so that the conductive arm rotates between the storage state and the unfolded state. Among them, the back push piece 432B" is composed of two obtuse angle arranged push pieces and is perpendicular to the push rod 430A", and the push piece 432" is an A-shaped push piece and is perpendicular to the push rod 430", but the present application is not limited thereto. It should be noted that the structure of the passive connecting member 43" and 43A" in the above embodiment can be correspondingly arranged as the same structure or different structure according to the structure of the active rotating member 41", 41A", 41B" and 41C", so that the active rotating member 41", 41A", 41B" and 41C" can drive the push rod 430" and 430A" to rotate. Further, as shown in Figs. 44, 46 and 47, the present application can be provided with the passive connecting member 43" with the same structure; as shown in Fig. 45, the present application can be provided with the passive connecting member 43" and the passive connecting member 43A" with different structures; in addition, the present application can also be provided with the passive connecting member 43A" with the same structure, the first rotating protrusion 411A" of the active rotating member 41A" drives the back push piece 432B" to rotate, and the second rotating protrusion 412A" of the active rotating member 41A" drives the push piece 432A" to rotate, but the present application is not limited thereto.

[0247] In the embodiment of the present application, the driving rod 430'', 430A'', the driving piece 432'', 432A'', and the back driving piece 432B'' are arranged to rotate with the driving rotating member 41'', 41A'', 41B'', 41C'', so that the passive connecting member 43'', 43A'' can be adapted to the structure of different driving rotating members, the structure arrangement and space inside the rotating shell 1' are further optimized, different elements can be added inside the rotating shell 1' according to the actual application requirements and the structure of different driving rotating members, and the applicability of the track socket is further improved.

[0248] As a preferred embodiment, the rotating power supply assembly 4'' further comprises a limiting member, the limiting member comprises a special-shaped snap spring 5', 5A' arranged on the base 2' and a first spring 6' connected with the special-shaped snap spring 5', 5A', the first spring 6' is installed in the installation channel 22' of the base 2', the first fixed end 51', 51A' of the special-shaped snap spring 5', 5A' is L-shaped and extends into the spring free end 61', and the second fixed end 52', 52A' of the special-shaped snap spring 5', 5A' is inserted into the fixing member 21' provided with an L-shaped clamping position on the base 2'.

[0249] As shown in the embodiment of FIGS. 44-47, the base 2' is further provided with a special-shaped snap spring 5', 5A' and a first spring 6' connected with the special-shaped snap spring 5', 5A'. The base 2' is further provided with an installation channel 22', one end of the first spring 6' is fixedly sleeved on the installation channel 22', and the other end of the first spring 6' is a spring free end 61'. Specifically, the installation channel 22' is a fixed column, but the present application is not limited thereto. The special-shaped snap spring 5', 5A' has a first fixed end 51', 51A' located on the base 2, and the first fixed end 51', 51A' is L-shaped and extends into the spring free end 61'. Specifically, the special-shaped snap spring 5', 5A' is a plate structure, the bottom of the special-shaped snap spring 5', 5A' extends into the spring free end 61' of the first spring 6', and the special-shaped snap spring 5', 5A' is movably connected with the spring free end 61', and the first spring 6' provides a resistance for the special-shaped snap spring 5', 5A'. The special-shaped snap spring 5', 5A' further has a second fixed end 52', 52A' fixedly arranged on the base 2'. Further, the base 2' is further provided with a fixing member 21', the fixing member 21' is an L-shaped clamping position fixing groove, and the second fixed end 52', 52A' of the special-shaped snap spring 5', 5A' is L-shaped and is inserted and fixed in the fixing groove. It should be noted that the shape of the special-shaped snap spring 5', 5A', the shape of the fixing member 21', and the shape of the installation channel 22' can also be other, and the present application is not limited thereto.

[0250] Please refer to FIG. 46 to FIG. 47, which are different from the above-mentioned embodiments in that the special-shaped clasp 5B' does not extend into the first spring 6', and the spring free end 61' of the first spring 6' abuts against the first fixed end 51B' of the special-shaped clasp 5B'. The structure and connection relationship between the second fixed end 52B' of the special-shaped clasp 5B' and the fixed part 21' are the same as those of the special-shaped clasp 5', 5A' in the above-mentioned embodiments, and will not be described here.

[0251] In addition, the active rotating part 41", 41A", 41B", 41C" is also provided with a third rotating protrusion 414", 413A", 4112B", 4113C", which abuts against the side of the special-shaped clasp 5', 5A', 5B' away from the first spring 6'. When the rotating shell 1' is rotated to rotate the active rotating part 41", 41A", 41B", 41C", the third rotating protrusion 414", 413A", 4112B", 4113C" slides along the side of the special-shaped clasp 5', 5A', 5B' away from the first spring 6', and the special-shaped clasp 5', 5A', 5B' is provided with a limiting point corresponding to the accommodation state and the unfolded state of the conductive arm. When the third rotating protrusion 414", 413A", 4112B", 4113C" slides between the limiting points of the special-shaped clasp 5', 5A', 5B', the active rotating part 41", 41A", 41B", 41C" drives the push rod 430", 430A" to rotate, and in turn drives the conductive arm to rotate and be in the accommodation or unfolded state relative to the plug-in part 3'. When the third rotating protrusion 414", 413A", 4112B", 4113C" slides along the side of the special-shaped clasp 5', 5A', 5B', the first spring 6' is used to provide a resistance.

[0252] As a preferred embodiment, the special-shaped clasp comprises a first limiting point P1', a second limiting point P2' and a third limiting point P3'; the first rotating protrusion of the active rotating part has the maximum resistance on the active rotating part at the second limiting point P2', the first limiting point P1' corresponds to the position of the conductive arm rotating to the first angle, and the third limiting point P3' corresponds to the position of the conductive arm rotating to the second angle. When the conductive arm rotates to the position of the second angle, the electrically conductive head of the conductive arm abuts against the conductive sheet of the track.

[0253] Please refer to FIG. 47 and FIG. 48, FIG. 48 is a schematic diagram of the profiled spring in one embodiment of the present application. In one specific embodiment, the profiled spring 5B' has a first limit point P1', a second limit point P2' and a third limit point P3', the second limit point P2' is between the first limit point P1' and the third limit point P3'. Please refer to FIG. 47 again, when the third rotating protrusion 4113C" abuts against the first limit point P1', the conductive arm is rotated to a first angular position, the first angular position corresponds to the storage state of the conductive arm, i.e. the conductive arm is stored in the plug-in piece 3', the track socket is in the power-off state. With the rotation of the rotating shell 1' in the clockwise direction, the third rotating protrusion 4113C" slides along the side of the profiled spring 5B' which is away from the first spring 6' to the second limit point P2', the third rotating protrusion 4113C" receives the maximum resistance at the second limit point P2', at this time, the first rotating protrusion 4101C" and the second rotating protrusion 4112C" receive the maximum resistance in the process of rotating the push piece 432". When the rotating shell 1' is continuously rotated in the clockwise direction, the third rotating protrusion 4113C" slides past the second limit point P2' to the third limit point P3', the driving rotating piece 41C" rotates the push rod 430", and then rotates the conductive arm to a second angular position, the second angular position corresponds to the unfolded state of the conductive arm, i.e. the conductive arm is unfolded relative to the plug-in piece 3', the track socket is in the power-on state, the electrically-conductive head of the conductive arm abuts against the track conductive sheet of the track. When the conductive arm is rotated from the unfolded state to the storage state by rotating the rotating shell 1', the reverse operation of the above-mentioned operation mode can be performed, which will not be described here. In addition, in the embodiments shown in FIG. 44 to FIG. 46, the third rotating protrusions 414", 413A" and 4112B" of the driving rotating pieces 41", 41A" and 41B" and the profiled springs 5', 5A' and 5B' cooperate in the same way as described above, which will not be described here.

[0254] In the embodiment of the present application, through the third rotating protrusions 414", 413A", 4112B", 4113C" of the active rotating member 41", 41A", 41B", 41C" and the special-shaped snap spring 5', 5A', 5B' arranged on the base 2', when the rotating shell 1' is rotated to rotate the conductive arm between the storage state and the unfolded state, the resistance that the third rotating protrusions 414", 413A", 4112B", 4113C" receive at the second limiting point P2' can prevent the track socket from being opened or closed due to accidental opening or accidental touch, and only when the user actively applies force to rotate the rotating shell 1', the third rotating protrusions 414", 413A", 4112B", 4113C" can break through the resistance received at the second limiting point P2', thereby improving the safety of the track socket, and the special-shaped snap spring 5', 5A', 5B' can also increase the user's feeling when rotating. Further, by arranging the first spring 6' on the opposite side of the special-shaped snap spring 5', 5A', 5B' and the third rotating protrusions 414", 413A", 4112B", 4113C", the resistance that the third rotating protrusions 414", 413A", 4112B", 4113C" receive at the second limiting point P2' can be further increased, avoiding accidental opening or accidental touch by children, and further enhancing the user's feeling when using.

[0255] As a preferred embodiment, the rotating power supply assembly 4" further comprises a lock catch assembly, the lock catch assembly comprises a lock catch support 9" arranged on the card seat 8", the lock catch support 9" comprises a sleeve ring 92" sleeved on the outside of the E-pole conductive rod, extension arms connected on both sides of the sleeve ring 92", and a locking portion 91" connected perpendicularly with the extension arms, the locking portion 91" is a hook structure; wherein a first compression portion 96" is arranged in the opposite direction of the hook on any extension arm, the first compression portion 96" is provided with a connecting plate 961", the connecting plate 961" is centrally provided with a positioning column 962" for placing a second spring 6S', the base 2' is further provided with a mounting channel S4' of the second spring 6S' along the extension direction of the first compression portion 96", and the active rotating member 41" is further provided with three limiting ribs corresponding to the lock catch support 9" for controlling the lock catch support 9" to protrude from the card seat 8".

[0256] Please refer to FIGS. 44-47 and FIGS. 49-53, FIG. 49 is a left view of the track socket adapter of an embodiment of the present application, FIG. 50 is a bottom view of the track socket adapter in the embodiment shown in FIG. 49, FIG. 51 is a structural schematic view of the rotating shell and the lock catch support in the embodiment shown in FIG. 49, FIG. 52 is a front view of the lock catch support of an embodiment of the present application, and FIG. 53 is an oblique view of the lock catch support of an embodiment of the present application.

[0257] In one embodiment, the adapter further comprises a locking bracket 9" arranged on the base 2'. Specifically, the locking bracket 9" is arranged on the base 2' and further comprises a locking portion 91" penetrating the base 2' along a direction parallel to the rotation axis of the rotating housing 1', the locking portion 91" being located at the plug-in piece 3' and above the conductive arm 431". When the driving rotating piece 41" drives the locking bracket 9" to rotate, the locking portion 91" is accommodated in or protrudes from the plug-in piece 3' to unlock or lock the locking bracket 9" on the conductive rail, and the rotation of the locking portion 91" does not interfere with the rotation of the conductive arm 431". The locking portion 91" is in the form of a hook, but the present application is not limited thereto.

[0258] Further, in one embodiment, the adapter further comprises a clamping seat 8' arranged on the base 2'. The clamping seat 8' penetrates the base 2' along a direction parallel to the rotation axis of the rotating housing 1' and is located above the conductive arm 431". Specifically, the clamping seat 8' vertically penetrates the base 2', but the present application is not limited thereto. The clamping seat 8' is used to support and mount the passive connecting piece 43" on the base 2', at least a portion of the passive connecting piece 43" being arranged on the clamping seat 8'. It should be noted that, as shown in FIG. 44, the clamping seat 8' arranged on the base 2' can be two and used to support and mount two passive connecting pieces 43", and at least a portion of the locking bracket 9" can also be arranged on one of the clamping seats 8' which is also used to support and mount the locking bracket 9" on the base 2'. In addition, only one clamping seat 8' can be arranged to support and mount the locking bracket 9" and one of the passive connecting pieces 43", and the present application is not limited thereto. During installation, the clamping seat 8' is first mounted on the lever 430" of the passive connecting piece 43", and the clamping seat 8' is mounted between the conductive arm 431" and the push piece 432", then the clamping seat 8' and the passive connecting piece 43" are arranged together on the base 2', and finally the locking bracket 9" is arranged on the base 2'.

[0259] Please refer to FIG. 52 and FIG. 53, in one embodiment, the lock bracket 9" includes a collar 92", the E pole conducting member 7' is an E pole conducting rod, but the present application is not limited thereto. The E pole conducting rod penetrates the base 2' and the adapter 3' in the direction perpendicular to the base 2', the E pole conducting rod penetrates the base 2' and the adapter 3' centrally, and the collar 92" is sleeved on the E pole conducting rod. The collar 92" is connected with extension arms on both sides, 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 with the collar 92" and arranged on both sides of the collar 92", and the collar 92", the first extension arm 93" and the second extension arm 94" of the lock bracket 9" are arranged on the base 2' and located in the rotating shell 1'. The first extension arm 93" and the second extension arm 94" are respectively provided with locking portions 91" facing opposite directions, and the locking portions 91" are connected with the first extension arm 93" and the second extension arm 94" perpendicularly. Please refer to FIG. 49 to FIG. 50, when the driving rotating member 41" drives the lock bracket 9" to rotate, the locking portions 91" of the first extension arm 93" and the second extension arm 94" protrude relative to the adapter 3', the two locking portions 91" protrude towards different sides of the adapter 3' respectively and the protruding openings face opposite directions, so that the lock bracket 9" is locked in the conducting rail. When the driving rotating member 41" drives the lock bracket 9" to rotate reversely, the locking portions 91" of the first extension arm 93" and the second extension arm 94" are accommodated relative to the adapter 3', so that the lock bracket 9" is unlocked from the conducting rail. Further, in another embodiment of the present application, at least part of the lock bracket 9" is arranged on one of the clamping seats 8'. When the driving rotating member 41" drives the lock bracket 9" to rotate, the locking portion 91" of the first extension arm 93" protrudes relative to the adapter 3', and the locking portion 91" of the second extension arm 94" protrudes relative to the corresponding clamping seat 8'. When the driving rotating member 41" drives the lock bracket 9" to rotate reversely, the locking portion 91" of the first extension arm 93" is accommodated relative to the adapter 3', and the locking portion 91" of the second extension arm 94" is accommodated relative to the corresponding clamping seat 8', so that the lock bracket 9" is unlocked from the conducting rail. The angles of the two locking portions 91" protruding are acute angles.

[0260] Please refer to FIG. 52 and FIG. 53, the locking portion 91” further comprises a locking end 911” and a penetrating body 912”, the lower end of the penetrating body 912” is connected with the locking end 911”, and the upper end of the penetrating body 912” penetrates the base 2’. Wherein, the first extension arm 93” and the second extension arm 94” are respectively provided with the locking portion 91” facing opposite directions, the upper end of the penetrating body 912” of one of the locking portions 91” is connected with the first extension arm 93”, and the upper end of the penetrating body 912” of the other locking portion 91” is connected with the second extension arm 94”, but the present application is not limited thereto. In addition, the plug-in part 3’ is further provided with an avoiding slot S3’ for accommodating the penetrating body 912” and the locking end 911”. When the locking portion 91” is accommodated relative to the plug-in part 3’, the penetrating body 912” and the locking end 911” are accommodated into the avoiding slot S3’. Please refer to FIG. 44 to FIG. 50, further speaking, in another embodiment of the present application, at least a part of the locking bracket 9” is arranged on one of the clamping seats 8’, when the locking bracket 9” is rotated by the driving rotating part 41”, the locking portion 91” of the first extension arm 93” protrudes or is accommodated relative to the plug-in part 3’, and the locking portion 91” of the second extension arm 94” protrudes or is accommodated relative to the corresponding clamping seat 8’. The clamping seat 8’ and the plug-in part 3’ are respectively provided with an avoiding slot S3’ for accommodating the locking portion 91” corresponding to the locking portion 91”. When the locking portion 91” of the first extension arm 93” is accommodated relative to the plug-in part 3’, and the locking portion 91” of the second extension arm 94” is accommodated relative to the corresponding clamping seat 8’, the penetrating body 912” and the locking end 911” are accommodated into the avoiding slot S3’, avoiding the obstruction when the track socket is inserted into or pulled out of the conductive track. The avoiding slot S3’ can or can not penetrate the plug-in part 3’ and the clamping seat 8’, and the present application is not limited thereto. In addition, the driving rotating part 41” is further provided with three limiting ribs corresponding to the locking bracket 9” for controlling the locking bracket 9” at the position that the clamping hook protrudes from the clamping seat 8’, the three limiting ribs are the first abutting portion 415”, 414A”, 4113B”, 4114C”, the second abutting portion 416”, 415A”, 4114B”, 4115C”, and the third abutting portion 417”. The working principle of the limiting ribs will be further explained in the following embodiments.

[0261] Please refer to FIGS. 44-47. In one embodiment, the locking bracket 9" is further provided with a torsion spring 95" in the loop 92". One end of the torsion spring 95" is fixedly arranged on the base 2', and the other end of the torsion spring 95" is in abutment with the first abutment portion 415", 414A", 4113B", 4114C" arranged on the driving rotary member 41", 41A", 41B", 41C". Specifically, the torsion spring 95" is arranged around the E pole conductor 7', and the torsion spring 95" is a torsion spring, but the present application is not limited thereto. The second extension arm 94" is further provided with a first compression portion 96" opposite to the locking portion 91", and the driving rotary member 41", 41A", 41B", 41C" is further provided with a second abutment portion 416", 415A", 4114B", 4115C" corresponding to the first compression portion 96". In addition, the base 2' is further provided with a second spring 6S', one end of the second spring 6S' is mounted on the first compression portion 96", and the other end of the second spring 6S' is mounted on the base 2'.

[0262] In one embodiment, the first compression part 96” further comprises a connecting plate 961”, when the rotating shell 1’ is rotated counterclockwise, the second abutting part 416”, 415A”, 4114B”, 4115C” drives the connecting plate 961” to rotate, and then the lock bracket 9” rotates and the locking part 91” is accommodated 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 further provided with a positioning column 962” for mounting the second spring 6S’, the positioning column 962” is centrally arranged on the connecting plate 961”, and one end of the second spring 6S’ is sleeved on the positioning column 962”, but the present application is not limited thereto. In addition, the base 2’ is further provided with a mounting channel S4’ for accommodating the second spring 6S’, and the mounting channel S4’ is arranged along the extension direction of the first compression part 96”. Specifically, the other end of the second spring 6S’ is arranged in the mounting channel S4’, but the present application is not limited thereto. Please refer to FIG. 51 again. Further, the driving rotating part 41” is further provided with a third abutting part 417” corresponding to the second extension arm 94”. When the user applies force to rotate the rotating shell 1’ counterclockwise, the first abutting part 415” of the driving rotating part 41” drives one end of the torsion spring 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 extension arm 94” to rotate counterclockwise, thereby offsetting the torsion of the torsion spring 95” and the elastic force of the second spring 6S’ to accommodate the locking part 91” of the lock bracket 9” relative to the plug-in part 3’ and / or the card seat 8’, so that the track socket can be inserted into the conductive track or unlocked and pulled out of the conductive track. When the track socket has been inserted into the conductive track or has been pulled out of the conductive track, and the user stops applying force to rotate the rotating shell 1’, the lock bracket 9” rotates clockwise by the torsion of the torsion spring 95” and the elastic force of the second spring 6S’, so that the locking part 91” protrudes relative to the plug-in part 3’ and / or the card seat 8’, so that the track socket is locked in the conductive track or prevented from being mistakenly inserted into the conductive track to be electrified. It should be noted that the above embodiment is described in FIGS. 44 and 51, and the specific embodiments and beneficial technical effects of the driving rotating part 41A”, 41B”, 41C”, the lock bracket 9”, the second spring 6S’ and the torsion spring 95” in the embodiments shown in FIGS. 45-47 are the same as above, and the present application will not be described here.

[0263] In the embodiment of the present application, the track socket is locked or unlocked by rotating through the setting of the lock bracket 9" and the driving rotating part 41", 41A", 41B", 41C" matched with the lock bracket 9". By canceling the traditional key switch unlocking structure in the existing track socket, the operation logic of the track socket of the present application is simpler, the product integrity is stronger, and the foreign matter entering the inside of the machine body can be effectively prevented. In addition, by setting the torsional elastic part 95" and the second spring 6S' for resetting the lock bracket 9", only when the user actively applies force to rotate the rotating shell 1' can the locking or unlocking of the track socket be realized, which avoids the track socket being pulled out or mistakenly inserted into the conductive track to cause safety hazards due to accidental touch or accidental contact or child misuse during use, and further improves the safety protection of the track socket.

[0264] As a preferred embodiment, the plug sleeve structure is a strong current structure. The strong current structure further comprises: a conductive plug sleeve 112B" corresponding to the five-hole jack 141B" mounted on the first PCB board 117B", and a second PCB board 118B" is further arranged below the first PCB board 117B", and the first PCB board 117B" and the second PCB board 118B" are electrically connected through the plug pin 115B" welded between the first PCB board 117B" and the second PCB board 118B"; the second PCB board 118B" is provided below the insulating plate 11B", and the insulating mounting plate is provided with a mounting hole for mounting an E pole conductive column, the E pole conductive column extends downward from the bottom of the base 2', and a torsional spring is sleeved outside the E pole conductive column to elastically abut on the E pole conductive sheet of the adaptive track panel.

[0265] Please refer to FIG. 54 and FIG. 55, FIG. 54 is a structure schematic diagram of the plug sleeve structure in an embodiment of the present application, and FIG. 55 is a structure schematic diagram of the five-hole jack in the embodiment shown in FIG. 54.

[0266] In one specific embodiment, the socket structure is a strong current structure, which further comprises an insulating plate 11B" arranged on the base 2', and the insulating plate 11B" is further provided with a socket socket 111B" and a conductive socket 112B", the conductive socket 112B" is arranged corresponding to the socket socket 111B", and the conductive socket 112B" and the socket socket 111B" are electrically connected. Specifically, the insulating plate 11B" is further provided with a second PCB board 118B", and a first PCB board 117B" arranged on the second PCB board 118B", the second PCB board 118B" is arranged below the first PCB board 117B" through a plurality of pins 115B", and the first PCB board 117B" and the second PCB board 118B" are electrically connected through the plurality of pins 115B". The first PCB board 117B" is provided with a conductive socket 112B" corresponding to the socket socket 111B" and the lever 430", and the first PCB board 117B" is further provided with a WiFi smart module 116B". It should be noted that the insulating plate 11B" is further provided with other elements or devices for realizing the function of the socket, which is the prior art in the field, and will not be described here.

[0267] Further, the socket socket 111B" is a five-hole strong current socket, and the five-hole strong current socket is electrically connected with the conductive socket 112B" through the first PCB board 117B". Specifically, the five-hole strong current socket further comprises two L-pole sockets 1111B", two N-pole sockets 1112B" and an E-pole socket 1113B", the two L-pole sockets 1111B" and the two N-pole sockets 1112B" are arranged on the first PCB board 117B" and are electrically connected with the conductive socket 112B" respectively. The bottom of the track panel is provided with a mounting groove (not shown in the figure), and the E-pole socket 1113B" is arranged in the mounting groove, and the E-pole socket 1113B" is further provided with an E-pole conductive sheet. Among them, the conductive socket 112B" is electrically connected with the L-pole socket 1111B" and the N-pole socket 1112B" through a copper strip, but the present application is not limited thereto.

[0268] Further, the push rod 430" is electrically connected with the conductive bush 112B". Specifically, the push rod 430" penetrates the first PCB plate 117B" and the second PCB plate 118B" along the direction parallel to the rotation axis direction of the rotating shell 1', and is electrically connected with the conductive bush 112B". As shown in FIG. 54, the number of the push rod 430" is two, the number of the conductive bush 112B" is two and the bush 112B" is arranged on the first PCB plate 117B" corresponding to the two push rods 430". The two push rods 430" are arranged vertically penetrating the first PCB plate 117B" and the second PCB plate 118B", and the upper parts of the two push rods 430" are electrically connected with the corresponding conductive bush 112B" respectively. The E pole conductive piece 7' is electrically connected with the bush 111B", specifically, the E pole conductive piece 7' penetrates the second PCB plate 118B" along the direction parallel to the rotation axis direction of the rotating shell 1' and is electrically connected with the E pole bush 1113B". The E pole conductive piece 7' is arranged vertically penetrating the second PCB plate 118B" and the upper part of the E pole conductive piece 7' is electrically connected with the E pole bush 1113B". The middle part of the insulating plate 11B" is provided with a mounting hole for mounting the E pole conductive piece 7', and the E pole conductive piece 7' extends downward out of the bottom of the base 2'. The E pole conductive piece 7' is an E pole conductive column and the insulating plate 11B" is an insulating mounting plate, but the present application is not limited thereto. In addition, the E pole conductive piece 7' is further sleeved with a torsion spring (not shown in the figure), the torsion spring is sleeved on the upper part of the E pole conductive piece 7' and one end of the torsion spring is elastically abutted with the E pole conductive piece of the E pole bush 1113B". The torsion spring is used to provide a reverse force when the electronic device is inserted into the track socket, so as to avoid the plug of the electronic device from damaging the bush structure of the track socket, and plays a buffering protection role, and can improve the user's use feeling.

[0269] Please further refer to FIG. 55, in a specific embodiment, the track panel of the adapter further comprises a jack panel 14B", the jack panel 14B" is provided with five-hole jacks 141B" corresponding to the bush 111B" and the conductive bush 112B". As a preferred embodiment, the jack panel 14B" is further provided with an indicating lamp 142B", and the outer side of the rotating shell 1' is provided with an indicating notch 143B" near the jack panel 14B", which is used to assist the installation and use of the track socket. The indicating lamp 142B" is a circular indicating lamp and the indicating notch 143B" is a strip-shaped notch, but the present application is not limited thereto. Further, the rotating shell 1' is further provided with a button 15B", and the second PCB plate 118B" is further provided with a switch element 16B" corresponding to the button 15B". The switch element 16B" is electrically connected with the WiFi smart module 116B" through the first PCB plate 117B" and the second PCB plate 118B". The user triggers the switch element 16B" by pressing the button 15B" on the rotating shell 1', so as to turn on or off the WiFi smart module 116B".

[0270] As a preferred embodiment, the plug sleeve structure is a strong current structure. The strong current structure further comprises: a conductive plug sleeve 112A" mounted on the insulating plate 11A", the insulating mounting plate is provided with a mounting hole for mounting an E pole conductive column, the E pole conductive column extends downward out of the bottom of the base 2', and the E pole conductive column is externally sleeved with a torsion spring to enable the E pole conductive column to elastically abut against an E pole conductive sheet of an adapter track panel.

[0271] Please refer to FIG. 56 and FIG. 57, FIG. 56 is a structural schematic diagram of a plug sleeve structure in an embodiment of the present application, and FIG. 57 is a structural schematic diagram of a five-hole jack in the embodiment shown in FIG. 56.

[0272] In one specific embodiment, the plug sleeve structure further comprises an insulating plate 11A" provided on the base 2', and the insulating plate 11A" is further provided with a socket plug sleeve 111A" and a conductive plug sleeve 112A", the conductive plug sleeve 112A" is provided corresponding to the socket plug sleeve 111A", and the conductive plug sleeve 112A" and the socket plug sleeve 111A" are electrically connected. Specifically, the socket plug sleeve 111A" is a five-hole socket plug sleeve, and the five-hole socket plug sleeve further comprises two L pole plug sleeves 1111A", two N pole plug sleeves 1112A" and one E pole plug sleeve 1113A". The conductive plug sleeve 112A" further comprises a first conductive plug sleeve 1121A" and a second conductive plug sleeve 1122A", the first conductive plug sleeve 1121A" is fixedly connected with the two L pole plug sleeves 1111A", and the second conductive plug sleeve 1122A" is fixedly connected with the two N pole plug sleeves 1112A". Among them, the conductive plug sleeve 112A" is electrically connected with the socket plug sleeve 111A" through a copper strip, and the E pole plug sleeve 1113A" is further provided with an E pole conductive sheet inside, but the present application is not limited thereto. It should be noted that the insulating plate 11A" is further provided with other elements or devices for realizing the socket function, which is the prior art in the field, and the present application will not be described here.

[0273] Further, the push rod 430" is electrically connected with the conductive bush 112A". Specifically, the push rod 430" penetrates the insulating plate 11A" along the direction parallel to the rotation axis of the rotating shell 1' and is electrically connected with the first conductive bush 1121A" and the second conductive bush 1122A". As shown in FIG. 56, two push rods 430" are vertically arranged through the insulating plate 11A" and the upper parts of the two push rods 430" are electrically connected with the first conductive bush 1121A" and the second conductive bush 1122A", respectively. The E-pole conductive member 7' is electrically connected with the socket bush 111A". Specifically, the E-pole conductive member 7' penetrates the insulating plate 11A" along the direction parallel to the rotation axis of the rotating shell 1' and is electrically connected with the E-pole bush 1113A". The E-pole conductive member 7' is vertically arranged through the insulating plate 11A" and the upper part of the E-pole conductive member 7' is electrically connected with the E-pole bush 1113A". The middle part of the insulating plate 11A" is provided with a mounting hole for mounting the E-pole conductive member 7' and the E-pole conductive member 7' extends downwardly out of the bottom of the base 2'. The E-pole conductive member 7' is an E-pole conductive column and the insulating plate 11A" is an insulating mounting plate, but the present application is not limited thereto. In addition, a torsion spring (not shown) is further sleeved on the E-pole conductive member 7'. The torsion spring is sleeved on the upper part of the E-pole conductive member 7' and one end of the torsion spring is in elastic abutment with the E-pole conductive sheet of the E-pole bush 1113A". The torsion spring is used to provide a reverse force when the electronic device is inserted into the track socket, so as to avoid the plug of the electronic device from damaging the bush structure of the track socket, thereby playing a buffering protection role and improving the user's use feeling.

[0274] Please further refer to FIG. 57, the track panel of the adapter further comprises a jack panel 14A", the jack panel 14A" is provided with five-hole jacks 141A" corresponding to the socket bush 111A". As a preferred embodiment, the jack panel 14A" is further provided with an indicating lamp 142A" and the outer side of the rotating shell 1' is provided with an indicating notch 143A" near the jack panel 14A", which is used to assist the installation and use of the track socket. The indicating lamp 142A" is a circular indicating lamp and the indicating notch 143A" is a strip-shaped notch, but the present application is not limited thereto.

[0275] As a preferred embodiment, the bush structure is a USB interface structure. The USB interface structure further comprises: a first USB circuit board 12a" and a second USB circuit board 12b", and a USB signal connecting plate 13" inserted between the first USB circuit board 12a" and the second USB circuit board 12b"; the second USB circuit board 12b" is further provided with a USB insulating plate 11" below and the first USB circuit board 12a" is provided with a Type-A interface 1221" and a Type-C interface 1222".

[0276] Please refer to FIGS. 58-60 again, FIG. 58 is a top view of the socket structure in an embodiment of the present application, FIG. 59 is a structural schematic view of the socket structure in the embodiment shown in FIG. 58, and FIG. 60 is a structural schematic view of Type-A and Type-C sockets in the embodiment shown in FIG. 58.

[0277] In one specific embodiment, the socket structure further comprises a USB insulating plate 11" provided on the base 2', and a USB circuit board 12" is further provided 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 further provided with a USB interface 122". It should be noted that the USB insulating plate 11" is further provided with other elements or devices for realizing the socket function, which is the prior art in the field, and will not be described here again.

[0278] Further, the USB circuit board 12" further comprises a second USB circuit board 12b" provided on the USB insulating plate 11", and the conductive socket 121" is provided on the second USB circuit board 12b" and corresponds to the lever 430". The lever 430" penetrates the USB insulating plate 11" and the second USB circuit board 12b" in a direction parallel to the rotation axis of the rotating shell 1'. Specifically, the lever 430" penetrates the USB insulating plate 11" and the second USB circuit board 12b" vertically and the upper part is connected to the conductive socket 121". As shown in FIG. 58, two conductive sockets 121" are provided on the second USB circuit board 12b" corresponding to two levers 430" respectively. In addition, the second USB circuit board 12b" is further provided with a first USB circuit board 12a", and the first USB circuit board 12a" and the second USB circuit board 12b" are connected by a USB signal connecting plate 13" and are electrically connected through the USB signal connecting plate 13". The USB interface 122" further comprises a Type-A interface 1221" and a Type-C interface 1222" provided on the first USB circuit board 12a", and the USB interface 122" can also be other combinations or only a Type-A interface 1221" or a Type-C interface 1222", which is not limited by the present application. Further, since the track socket with the USB interface 122" has a low working voltage, it does not need to be grounded, so the E pole conductive part 7' is not needed in this embodiment.

[0279] Please refer to Fig. 60 again, in one embodiment, the track panel of the adapter further comprises a jack panel 14", the jack panel 14" is arranged on the second USB circuit board 12b", and the jack panel 14" is provided with a Type-A jack 141" and a Type-C jack 142" corresponding to the Type-A interface 1221" and the Type-C interface 1222". As a preferred embodiment, the jack panel 14" is further provided with an indicator light 143", and an indicating notch 145" is arranged on the outer side of the rotating shell 1' close to the jack panel 14" for assisting the installation and use of the track socket. Among them, the indicator light 143" is a circular indicator light and is electrically connected with the first USB circuit board 12a", and the indicating notch 145" is a strip-shaped notch, but the present application is not limited thereto.

[0280] In the embodiment of the present application, the layers and components of the track socket adapter are stacked on the base 2' and connected by screws 23, but the present application is not limited thereto. By sleeving the rotating shell 1' on the base 2', the jack panel 14", 14A", 14B", the sleeve structure, the insulating plate, the passive connecting piece 43", the lock bracket 9" and the base 2' are sequentially stacked in the rotating shell 1', and are connected layer by layer by long screws, thereby realizing a track socket structure with simpler structure and more convenient installation, and avoiding the complex structure mode of mixing and matching the drive assembly and the sleeve in the existing track socket. The specific operation mode and working principle of the track socket in the embodiment of the present application are the same as described above, and will not be repeated here.

[0281] Please refer to Figs. 61 and 62 again, Fig. 61 is a structure schematic diagram of the track socket adapter of one embodiment of the present application being locked on the conductive track, and Fig. 62 is a structure schematic diagram of the track socket adapter of one embodiment of the present application being unlocked on the conductive track.

[0282] In order to better achieve the purpose of the present application, the present application also provides a conductive track CT for installing a track socket. The track socket is any one of the track sockets described above. In one specific embodiment, the conductive track is provided with a track conductive sheet CS for contacting the conductive arm 421. When the track socket is in the power-off state and the locking portion 91 is accommodated relative to the plug-in part 3, that is, the locking portion 91 is accommodated in the plug-in part 3, the adapter is unlocked from the conductive track CT, so the adapter can move in the conductive track CT, and the conductive arm 421 does not contact the track conductive sheet CS; when the track socket is in the power-on state, the locking portion 91 protrudes relative to the plug-in part 3 and is clamped in the clamping groove G of the conductive track CT, the adapter is locked in the conductive track CT and cannot move, and the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 on the conductive arm 421 can be expanded relative to the plug-in part 3 by rotating the rotating shell 1, so that the N-pole conductive sheet 4211 and the L-pole conductive sheet 4212 on the conductive arm 421 are in elastic contact with the track conductive sheet CS in the conductive track CT to take power. The extension direction of the clamping groove G is parallel to the extension direction of the conductive track, but the present application is not limited thereto. In addition, the working principles of the locking assembly 9' and the locking bracket 9" in other embodiments of the present application are the same as described above, and will not be described here.

[0283] The track socket and the conductive track for installing the track socket provided by the present application are described in detail above. Each embodiment in the specification is described in a progressive manner, and each embodiment focuses on the differences from other embodiments. The same or similar parts between each embodiment can be referred to each other. For the conductive track disclosed by the embodiments, since it corresponds to the track socket disclosed by the embodiments, the description is relatively simple, and the relevant parts can be referred to the description of the track socket.

[0284] Industrial applicability

[0285] In summary, the track socket and the conductive track for installing the track socket provided by the present application realize the functions of rotating power-on and power-off of the track socket through the arrangement of the rotating shell and the power-on assembly. In addition, by arranging the conductive arm that is expanded towards different sides of the plug-in part and the opening of the expanded angle faces the same direction, the contact distance between the N-pole conductive sheet and the L-pole conductive sheet on the conductive arm and the track conductive sheet in the conductive track is increased, and the use safety of the track socket is improved. The problems of the prior art, such as the small contact distance between the N-pole conductive sheet and the L-pole conductive sheet on the conductive arm of the track socket and the track conductive sheet in the conductive track, the safety hazard, the inconvenience of using the traditional switch key, the limited service life, and the inability to effectively perform safety protection, are solved. Therefore, the track socket and the conductive track for installing the track socket provided by the present application further improve the use convenience and safety of the track socket, increase the contact distance between the conductive arm and the track conductive sheet in the conductive track, and improve the use safety of the track socket on the basis of realizing the basic functions of power-on and power-off of the track socket.

[0286] Of course, the present application can have other various embodiments, and it will be understood that various omissions and substitutions of equivalents are contemplated as circumstances can suggest or render expedient, but such omissions and substitutions are to be considered within the scope of the application.

Claims

1. A track socket comprising an adapter, the adapter comprising a rotating housing and a base, characterized in that, The rotating shell is provided with a rotating power supply assembly electrically connected with the plug sleeve structure, a driving assembly driving the rotating power supply assembly to rotate, and a plug connector fixedly connected below the base.

2. The track socket of claim 1, wherein, The rotating power supply assembly includes a conductive arm movably connected with an external conductive track, and the conductive arm is movably connected on one side of the plug connector away from the plug sleeve direction.

3. Rail socket according to claim 1 or 2, characterized in that The driving assembly drives the conductive arm to be received or unfolded relative to the plug connector, and the unfolding angle of the conductive arm is an acute angle, and the unfolding angle openings of the conductive arms are the same.

4. The track socket of claim 3, wherein, The plug connector is also provided with an E pole conductive member in the middle, the E pole conductive member is located between the conductive arms, and the fixed connection end of the conductive arm is not equidistant from the E pole conductive member.

5. A track socket according to claim 1 or 2, characterized in that The rotating power supply assembly further includes a lever rotatably arranged in the plug connector, and the lever is connected with the conductive arm at the bottom end.

6. The track socket of claim 2, wherein, The lever is located on both sides of the E pole conductive column and is not equidistant from the E pole conductive column.

7. The track socket of claim 6, wherein, The base is also provided with a locking assembly, and the locking part of the locking assembly is movably connected to the plug connector.

8. The track socket of claim 1 or 2, wherein, The plug sleeve structure is installed on an insulating plate, and the insulating plate is provided with a mounting through hole corresponding to the position of the E pole plug sleeve.

9. The track socket of claim 8, wherein, The E pole conductive column is electrically connected with the E pole plug sleeve and extends downward from the bottom of the base. The E pole conductive member is also provided with an annular groove / annular boss, and one end of the elastic member abuts against the insulating plate and the other end is sleeved in the annular groove / annular boss. The rotating power supply assembly includes a driving rotating member and a passive connecting member rotatably sleeved on the base. The rotating power supply assembly further includes a limiting member, the limiting member includes a special-shaped clamp spring arranged on the base and a first spring connected with the special-shaped clamp spring. The first fixed end of the special-shaped clamp spring is L-shaped and extends into the free end of the spring, and the second fixed end of the special-shaped clamp spring is plugged into the fixing member provided with an L-shaped clamping position on the base.

10. The track socket of claim 9, wherein, The special-shaped clamp spring comprises a first limiting point, a second limiting point and a third limiting point; the first rotating protrusion of the driving rotating piece has the maximum resistance on the second limiting point, the first limiting point corresponds to the position where the conductive arm is turned to the first angle, and the third limiting point corresponds to the position where the conductive arm is turned to the second angle, and when the conductive arm is turned to the second angle, the electric contact head of the conductive arm abuts against the conductive sheet of the track.

11. The track socket of claim 10, wherein, The rotating power-on assembly further comprises a lock catch assembly, the lock catch assembly comprises a lock catch support arranged on the clamping seat, the lock catch support comprises a sleeve ring sleeved outside the E-pole conductive rod, extension arms connected on both sides of the sleeve ring, and a locking portion perpendicularly connected with the extension arms, and the locking portion is in the form of a hook; a first compression portion is arranged on any extension arm in the opposite direction of the hook, the first compression portion is provided with a connecting plate, the connecting plate is centrally provided with a positioning column for placing a second spring, and the base is further provided with a mounting channel of the second spring along the extension direction of the first compression portion; the driving rotating piece is further provided with three limiting ribs corresponding to the lock catch support, and the three limiting ribs are used for controlling the lock catch support to protrude from the clamping seat.

12. The track socket of claim 1, wherein, The sleeve structure is a strong current structure or a USB interface structure.

13. The track socket of claim 12, wherein, The strong current structure further comprises: A conductive sleeve corresponding to the five-hole jack is mounted on the first PCB board, a second PCB board is further arranged below the first PCB board, and the first PCB board and the second PCB board are electrically connected through a plug pin welded between the first PCB board and the second PCB board; an insulating plate is arranged below the second PCB board, the middle part of the insulating mounting plate is provided with a mounting hole for mounting an E-pole conductive column, the E-pole conductive column extends downward from the bottom of the base, and a torsional spring is sleeved outside the E-pole conductive column to elastically abut against the E-pole conductive sheet of the adaptive track panel.

14. The track socket of claim 12, wherein, The strong current structure further comprises: a conductive sleeve mounted on the insulating plate, the middle part of the insulating mounting plate is provided with a mounting hole for mounting an E-pole conductive column, the E-pole conductive column extends downward from the bottom of the base, and a torsional spring is sleeved outside the E-pole conductive column to elastically abut against the E-pole conductive sheet of the adaptive track panel.

15. The track socket of claim 12, wherein, The USB interface structure further comprises: a first USB circuit board and a second USB circuit board, and a USB signal connecting plate inserted between the first USB circuit board and the second USB circuit board; a USB insulating plate is further arranged below the second USB circuit board, and a Type-A interface and a Type-C interface are arranged on the first USB circuit board.

16. A track socket comprising an adapter with a socket structure, the adapter comprising 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 further includes: A passive rotating component, which further comprises a conductive rotating body and a conductive arm connected to the conductive rotating body, wherein the conductive arm is further provided with an N-polar conductive plate and an L-polar conductive plate, the N-polar conductive plate and the L-polar conductive plate being located at the connector; and... The rotating outer shell drives the conductive rotating body to rotate via the driving assembly, causing the N-pole conductive plate and the L-pole conductive plate to be in a retracted or unfolded state relative to the connector; wherein... The N-pole conductive sheet and the L-pole conductive sheet unfold towards different sides of the connector, and the openings of the unfolding angles of the N-pole conductive sheet and the L-pole conductive sheet face the same direction. The unfolding angles of the N-pole conductive sheet and the L-pole conductive sheet are acute angles.

17. The track socket of claim 16, wherein, 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; wherein, The conductive rotating body is disposed through the base and electrically connected to the plug structure. The active rotating component drives the conductive rotating body to rotate, thereby causing the conductive arm to rotate.

18. The track socket of claim 17, wherein, 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.

19. The track socket of claim 17, wherein, 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.

20. A track socket according to claim 17, 18 or 19, characterised in that, The active rotating component is provided with a first rotating protrusion and a second rotating protrusion. The active rotating component drives the conductive rotating body to rotate through the first rotating protrusion and the second rotating protrusion, thereby causing the conductive arm to rotate.

21. The track socket of claim 20, wherein, 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.

22. The track socket of claim 21, wherein, 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.

23. The track socket of claim 22, wherein, 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 N-pole conducting sheet and the L-pole conducting sheet rotate to a first angle position, the first angle position corresponding to the storage state of the N-pole conducting sheet and the L-pole conducting sheet; and When the third rotating protrusion abuts against the third limiting point, the N-pole conducting sheet and the L-pole conducting sheet rotate to a second angle position, the second angle position corresponding to the unfolded state of the N-pole conducting sheet and the L-pole conducting sheet.

24. The track socket of claim 21, wherein, The base is further provided with a limiting spring and a fixing member for fixing the limiting spring, one end of the limiting spring being fixed on the fixing member, and the other end of the limiting spring abutting against the other side of the flexible elastic member.

25. The track socket of claim 17, 18 or 19, wherein, The conducting rotating main body is a lever, the upper part of the lever being located in the rotating shell, the lower part of the lever being located at the plug-in part and being fixedly connected with the conducting arm; wherein, The upper part of the lever is further provided with a levering member, the driving rotating member driving the lever to rotate through the levering member.

26. The track socket of claim 25, wherein, The upper part of the lever is further provided with a back levering member, the levering member and the back levering member being oppositely arranged relative to the lever, the driving rotating member driving the lever to rotate through the levering member and the back levering member.

27. The track socket of claim 25, wherein, The extension direction of the lever is perpendicular to the extension direction of the conducting track, the levering member being a levering sheet in A-shaped structure, the levering member being perpendicular to the lever.

28. The track socket of claims 17, 18, or 19, wherein, The conducting arm at least includes a first conducting arm provided with the N-pole conducting sheet and a second conducting arm provided with the L-pole conducting sheet.

29. The track socket of claim 28, wherein, The adapter further includes an E-pole conducting member arranged on the base, the E-pole conducting member penetrating through the base and the plug-in part along the rotation axial direction of the rotating shell and extending out of the plug-in part in the direction away from the base; and The E-pole conducting member is located between the N-pole conducting sheet and the L-pole conducting sheet.

30. The track socket of claim 29, wherein, The N-pole conducting sheet and the L-pole conducting sheet are asymmetrically arranged relative to the E-pole conducting member.

31. The track socket of claim 29, wherein, The upper part of the E-pole conducting member is in cylindrical structure and located in the rotating shell, and the lower part of the E-pole conducting member is in cuboid structure and extends out of the plug-in part.

32. The track socket of claim 28, wherein, The plug-in part is further provided with a first accommodating space for accommodating the N-pole conducting sheet and the L-pole conducting sheet, the N-pole conducting sheet and the L-pole conducting sheet being accommodated into the first accommodating space respectively when the N-pole conducting sheet and the L-pole conducting sheet are in the storage state relative to the plug-in part.

33. The track socket of claims 17, 18, or 19, wherein, The adapter further includes a lock bracket arranged on the base, the lock bracket including: a locking part penetrating through the base along the rotation axial direction of the rotating shell and being located above the conducting arm; wherein, when the driving rotating member drives the lock bracket to rotate, the locking part is accommodated into or protrudes out of the plug-in part, so as to unlock or lock the lock bracket on the conducting track.

34. The track socket of claim 33, wherein, The lock bracket further includes: First and second extension arms are respectively arranged on both sides of the connecting portion, and the first and second extension arms are respectively provided with the locking portions facing opposite directions; wherein the locking portions of the first and second extension arms are received or protrude relative to the plug-in part.

35. The track socket of claim 34, wherein, A torsional elastic member is further arranged in the connecting portion, one end of the torsional elastic member is fixedly arranged on the base, and the other end of the torsional elastic member is in abutment with a first abutment portion arranged on the driving rotator; A reset portion opposite to the locking portion is further arranged on the first or second extension arm, and a second abutment portion corresponding to the reset portion is further arranged on the driving rotator; and A reset spring is further arranged on the base, one end of the reset spring is mounted on the reset portion, and the other end of the reset spring is mounted on the base.

36. The track socket of claim 35, wherein, The reset portion further comprises: A connecting plate, one side of the connecting plate facing the reset spring is further provided with a spring seat, and one end of the reset spring is mounted on the spring seat; The base is further provided with a reset space for accommodating the reset spring; and The driving rotator is further provided with a third abutment portion corresponding to the first and / or second extension arm; wherein the driving rotator drives the lock bracket to rotate through the first, second and third abutment portions.

37. The track socket of claim 33, wherein, The adapter further comprises a clamping seat arranged on the base, the clamping seat penetrates through the base along the direction parallel to the rotation axis direction of the rotating shell and is located above the conductive arm; The locking portion further comprises a locking end and a penetrating body, the lower end of the penetrating body is connected with the locking end, and the upper end of the penetrating body penetrates through the base; and The plug-in part is further provided with an avoiding groove for accommodating the penetrating body and the locking end.

38. The track socket of claim 29, wherein, The plug-in structure further comprises: An insulating plate arranged on the base, the insulating plate is further provided with a socket plug-in sleeve and a conductive plug-in sleeve, the conductive plug-in sleeve is arranged corresponding to the socket plug-in sleeve and is electrically connected with the socket plug-in sleeve; and A protection door arranged on the insulating plate and provided with a protection door insertion hole corresponding to the socket plug-in sleeve, the protection door is further provided with a shielding portion for shielding the protection door insertion hole; wherein The conductive rotating body is electrically connected with the conductive plug-in sleeve, and the E-pole conductive part is electrically connected with the socket plug-in sleeve.

39. The track socket of claim 38, wherein, The socket plug-in sleeve is a five-hole socket plug-in sleeve, and the five-hole socket plug-in sleeve further comprises: Two L-pole plug-in sleeves, two N-pole plug-in sleeves and one E-pole plug-in sleeve; and The conductive plug-in sleeve further comprises a first conductive plug-in sleeve fixedly connected with the two L-pole plug-in sleeves and a second conductive plug-in sleeve fixedly connected with the two N-pole plug-in sleeves; The conductive rotating body penetrates through the insulating plate along the direction parallel to the rotation axis direction of the rotating shell and is electrically connected with the first and second conductive plug-in sleeves; and The E-pole conductive part penetrates through the insulating plate along the direction parallel to the rotation axis direction of the rotating shell and is electrically connected with the E-pole plug-in sleeve, and the E-pole conductive part is further provided with a conductive part spring.

40. The track socket of claim 38, wherein, The insulating plate further comprises: A first PCB board is arranged on the base; A second PCB board is arranged on the first PCB board through a pin and is electrically connected with the first PCB board, the second PCB board is provided with the conductive sleeve corresponding to the conductive rotating body, and the second PCB board is further provided with a WiFi intelligent module; The socket sleeve is a five-hole strong current socket sleeve, the five-hole strong current socket sleeve is electrically connected with the conductive sleeve through the second PCB board, and the five-hole strong current socket sleeve further comprises: Two L-pole sleeves and two N-pole sleeves arranged on the second PCB board; and An E-pole sleeve arranged at the bottom of the protection door; wherein The conductive rotating body penetrates the first PCB board and the second PCB board along the rotation axial direction parallel to the rotating shell and is electrically connected with the conductive sleeve; and The E-pole conductive piece penetrates the first PCB board along the rotation axial direction parallel to the rotating shell and is electrically connected with the E-pole sleeve, and a conductive piece spring is further sleeved on the E-pole conductive piece.

41. A conductive track for mounting a track socket, characterized in that The track socket is the track socket according to any one of claims 1-40, the conductive track is provided with a track conductive sheet, and the track conductive sheet is used to contact the conductive arm; wherein, When the locking part of the lock catch support or the locking part of the locking assembly of the track socket is accommodated relative to the plug-in part, the adapter can move in the conductive track; and When the locking part of the lock catch support or the locking part of the locking assembly protrudes relative to the plug-in part, the adapter is locked in the conductive track.

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