A portable multi-interface data cable

Abstract

The present invention discloses a portable multi-interface data cable, which relates to the technical field of data cable manufacturing, and aims to solve the technical problem of insufficient functionality of the multi-interface data cable. The portable multi-interface data cable comprises a mounting seat, a lifting and plugging mechanism, and a data cable body. The data cable body comprises a main data cable, six Type-C branch units, two Micro-B branch units, and two Lightning branch units, and the output end of the branch data cable is connected with a Type-C interface A. The present invention controls the activities of six Type-C interfaces A on six branch data cables through the six movable ends of the lifting and plugging mechanism through the design of the mounting seat, the lifting and plugging mechanism, and the data cable body, so that the Type-C interface A can be controlled to be plugged with the Type-C branch unit, the Micro-B branch unit, and the Lightning branch unit according to actual use conditions through the lifting and plugging mechanism, thereby improving the functionality of the data cable, solving the technical problem of insufficient functionality of the multi-interface data cable, and making the multi-interface data cable more convenient to use.

Description

Technical Field

[0001] The present invention relates to the technical field of data cable manufacturing, and more particularly to a portable multi-interface data cable. Background Art

[0002] A mobile phone charging cable, also known as a mobile phone data cable or a charging data cable, is a cable used to connect a mobile phone and a charger or other devices (such as a computer) for data transmission or charging. A multi-interface charging cable is a one-to-many charging cable. This type of charging cable usually has a USB port and multiple mobile phone charging ports. Multi-interface mobile phone charging cables are widely used in homes, offices, travel and other occasions, especially when multiple mobile phones need to be charged at the same time. In addition, multi-interface mobile phone charging cables are also favored by mobile phone repair shops, electronic product sales stores and other businesses, and are sold to consumers as accessories.

[0003] Most of the mobile phones currently on the market are equipped with Micro-B charging interfaces, Type-C charging interfaces and Lightning charging interfaces, among which Type-C charging interfaces are the most widely used. Although existing multi-interface data cables can charge multiple mobile phones at the same time, they are difficult to adapt to complex usage environments. For example, when six mobile phones need to be charged, the types and quantities of Micro-B charging interfaces, Type-C charging interfaces and Lightning charging interfaces of these six mobile phones have various combinations. Existing multi-interface data cables are difficult to charge six mobile phones with various charging interface combinations at the same time, lack functionality, and are still not portable enough. In view of this, we propose a portable multi-interface data cable. Summary of the invention

[0004] The object of the present invention is to provide a portable multi-interface data cable to solve the technical problem of insufficient functionality of the multi-interface data cable.

[0005] In order to solve the above technical problems, the present invention provides the following technical solutions: a portable multi-interface data cable, comprising a mounting seat, a lifting and plugging mechanism and a data cable body;

[0006] The cross-section of the mounting seat is a regular hexagonal structure, a circular groove is provided in the mounting seat, the upper parts of the six sides of the mounting seat are provided with mounting grooves A, and the lower parts of the four adjacent sides of the mounting seat are provided with mounting grooves B; the lifting and plugging mechanism has six movable ends; the data cable body includes a main data cable, six Type-C branch line units, two Micro-B branch line units and two Lightning branch line units, the main data cable is arranged at the bottom of the mounting seat, the output end of the main data cable is connected to six sub-data cables through an integrated chip unit, and the output end of the sub-data cable is connected to a Type- C interface A, six Type-C interfaces A are respectively fixedly connected with six movable ends, six Type-C branch units are respectively movably arranged on six mounting slots A, two Micro-B branch units and two Lightning branch units are respectively movably arranged on four mounting slots B, and two Micro-B branch units and two Lightning branch units are arranged alternately, and each Type-C interface A is plugged and matched with the input ends of six Type-C branch units, two Micro-B branch units and two Lightning branch units. The present invention controls the activities of six Type-C interfaces A on six branch data lines through the six movable ends of the lifting and plugging mechanism through the design of the mounting seat, the lifting and plugging mechanism and the data line body, so that the Type-C interface A can be controlled to be plugged with the Type-C branch unit, the Micro-B branch unit and the Lightning branch unit through the lifting and plugging mechanism according to the actual use situation, thereby improving the functionality of the data line, solving the technical problem of insufficient functionality of the multi-interface data line, and making the multi-interface data line more convenient to use.

[0007] Preferably, a regular hexagonal groove connected to the circular groove is provided on the top of the mounting seat, six movable vertical grooves are provided on the six side positions of the circular groove surface relative to the mounting seat, the bottom ends of the movable vertical grooves are connected through a bus groove, a card slot is provided on one side of the bottom end of the movable vertical groove, the main data line is arranged in the bus groove, the main data line passes through the bus groove and extends to the outside of the card slot and is connected to a USB interface A, the USB interface A is plugged into the card slot, and the bottom end of the circular groove is provided with six card-connecting ball grooves in a ring-shaped equidistant structure.

[0008] Preferably, the lifting and plugging mechanism comprises a rotating column and six plug-in plates, the rotating column is arranged in the circular groove, a rotating shaft is fixedly arranged at the bottom end of the rotating column, the rotating shaft is rotatably connected to the bottom end of the circular groove, a sliding groove with a regular hexagonal cross-section is provided at the top of the rotating column, an adjusting component is arranged in the sliding groove, a plurality of expansion and contraction grooves connected to the sliding groove are provided in a circular equidistant structure on the surface of the rotating column, an expansion and contraction plate is arranged in the expansion and contraction groove, the expansion and contraction plate is movably connected to the bottom end of the adjusting component, the six movable end portions are respectively composed of six plug-in plates, the six plug-in plates are respectively movably arranged in the six movable vertical grooves, and a lifting ball block is fixedly arranged at the eccentric end of the plug-in plate;

[0009] The expansion and contraction plates are adapted to the shape of the rotating column, a lifting guide groove unit is provided on the surface of the column surrounded by the rotating column and the six expansion and contraction plates, and the lifting ball block is movably connected to the lifting guide groove unit.

[0010] Preferably, the adjustment component comprises a hexagonal prism, the hexagonal prism is slidably arranged on the slide groove, the six side bottom ends of the hexagonal prism are fixedly provided with guide blocks, the top of the hexagonal prism is fixedly provided with a connecting shaft, the connecting shaft is movably matched with the regular hexagonal groove, the top of the connecting shaft is fixedly provided with a hexagonal prism-shaped adjustment block, the adjustment block is movably matched with the regular hexagonal groove;

[0011] The expansion and contraction plate is provided with an oblique groove at one end close to the hexagonal prism, and straight grooves are provided at both ends of the oblique groove. The oblique groove is connected with two oblique grooves to form an expansion and contraction guide groove, and the guide block is movably connected with the expansion and contraction guide groove.

[0012] Preferably, the interior of the plug board is hollow to form a branch line slot, and an interface slot A is provided at one end of the plug board away from the hexagonal prism. The interface slot A is connected to the branch line slot, and the branch data line passes through the branch line slot and extends into the interface slot A. The Type-C interface A is fixed on the interface slot A.

[0013] Preferably, the lifting guide groove unit comprises an annular groove and four arc grooves A, wherein the annular groove is provided at the top of the column, wherein two lifting ball blocks are movably connected to the annular groove, and the four arc grooves A are provided on the surface of the column in an equidistant structure, and the four arc grooves A are arranged offset relative to the other four lifting ball blocks, and the arc groove A is connected with a partial thread groove, and the partial thread groove is connected with an arc groove B at one end away from the arc groove A, and the arc groove A, the partial thread groove and the arc groove B are connected to form a lifting groove, and the remaining four lifting ball blocks are movably connected to the four lifting grooves respectively;

[0014] The sum of the rotatable arc of the arc groove A at the top and the rotatable arc of the partial thread groove at the top is less than 60°, and the difference in arc between any two adjacent arc grooves A is 60°.

[0015] Preferably, the bottom end of the rotating column is annular and evenly spaced structure with six column grooves, a movable column is movably arranged in the six column grooves, the top end of the movable column is elastically connected to the top end of the column groove by a spring A, the bottom end of the movable column passes through the column groove and is fixed with a snap-in ball block, and the snap-in ball block is snap-fitted with the snap-in ball groove.

[0016] Preferably, the installation groove A and the installation groove B are arranged in a symmetrical structure, and both the installation groove A and the installation groove B include an adapting groove, and the adapting groove is connected to a hollow groove, and the hollow groove is provided with an interface groove B, and the interface groove B is connected to the movable vertical groove.

[0017] Preferably, the six Type-C branch units, two Micro-B branch units and two Lightning branch units all include a wire receiver, the adapter slot is adapted to the shape of the wire receiver, the wire receiver is plugged into and matched with the adapter slot through a plug-in module, a pull-out data cable is arranged in the wire receiver, one end of the pull-out data cable passes through the wire receiver, extends into the empty slot and is fixedly provided with an adapter, the adapter is fixedly connected to the interface slot B, the adapter is plugged into and matched with the USB interface A, the other end of the pull-out data cable on the Type-C branch unit passes through the wire receiver and is fixedly provided with a Type-C interface B, the other end of the pull-out data cable on the Micro-B branch unit passes through the wire receiver and is fixedly provided with a Micro-B interface B, the other end of the pull-out data cable on the Lightning branch unit passes through the wire receiver and is fixedly provided with a Lightning interface B, and the Type-C interface A is plugged into and matched with the adapter.

[0018] Preferably, the plug-in module includes a plug-in ring block, a connecting shaft and a movable ring block, the plug-in ring block is fixedly arranged at one end of the wire collector close to the adapting groove, a plurality of movable grooves are opened in the plug-in ring block in an annular equidistant structure, a movable block is movably connected in the movable groove, the movable block is elastically connected to the movable groove by a spring B, an inclined guide block is fixedly arranged at one end of the movable block close to the connecting shaft, the connecting shaft is fixedly arranged in the adapting groove, a truncated cone block A is fixedly arranged at one end of the connecting shaft away from the rotating column, a truncated cone block B is sleeved on one end of the connecting shaft close to the rotating column, the inclined guide block passes through the movable groove and extends to the inner cavity of the plug-in ring block and movably cooperates with the truncated cone block A, the inclined guide block movably cooperates with the truncated cone block B, the movable ring block is movably arranged in the adapting groove, and the movable ring block is elastically connected to the adapting groove by a spring C, wherein the volume of the truncated cone block B is larger than that of the truncated cone block A.

[0019] The beneficial effects of the present invention are:

[0020] 1. The present invention controls the activities of six Type-C interfaces A on six branch data cables through the designs of a mounting base, a lifting and plugging mechanism and a data cable body, so that the Type-C interface A can be controlled to be plugged with a Type-C branch unit, a Micro-B branch unit and an ightning branch unit through the lifting and plugging mechanism according to actual usage conditions, thereby improving the functionality of the data cable, solving the technical problem of insufficient functionality of multi-interface data cables, and making the use of multi-interface data cables more convenient.

[0021] 2. The present invention further designs the lifting guide groove unit so that when the two lifting ball blocks move in the annular groove, the positions of the corresponding two plug-in boards remain unchanged, so that when the lifting ball blocks rotate on the arc groove A and the arc groove B, the position of the plug-in board remains unchanged, and when the lifting ball blocks move on the partial thread groove, the corresponding plug-in board performs lifting movement on the movable vertical groove. Four arc grooves A are arranged with an offset position relative to the other four lifting ball blocks, so that the four plug-in boards can be individually controlled to lift and lower, and the sum of the rotatable arc of the arc groove A at the top and the rotatable arc of the partial thread groove at the top is set to be less than 60, and the difference in arc between any two adjacent arc grooves A is 60°. The adjustment block can control the lifting and lowering of one of the plug-in boards every 60° rotation, so that the output combinations of the data cable body are more, which further improves the application range of the data cable body and the functionality of the multi-interface data cable.

[0022] 3. Through further design of the rotating column, the present invention enables the engaging ball block to engage with the corresponding engaging ball groove and another engaging ball groove every time the rotating column rotates 60°, thereby increasing a certain rotational resistance for the rotating column. When the engaging ball grooves engage with each other, the user will have an obvious feeling, so that the user can be more precise when rotating 60°, which is convenient for adjusting the position of Type-C interface A.

[0023] 4. The present invention makes the cable collector easy to take out and put in and portable to use through the design of the plug-in module. BRIEF DESCRIPTION OF THE DRAWINGS

[0024] Figure 1 It is a schematic diagram of the overall structure of the present invention.

[0025] Figure 2 It is a schematic cross-sectional view of the overall structure of the present invention.

[0026] Figure 3 It is a schematic diagram of the cross-sectional structure of the mounting seat of the present invention.

[0027] Figure 4 It is a schematic diagram of the structure of the data cable body of the present invention.

[0028] Figure 5 It is a schematic diagram of the cross-sectional structure of the Type-C branch line unit of the present invention.

[0029] Figure 6 for Figure 5 A-section structure enlarged schematic diagram.

[0030] Figure 7 It is a structural schematic diagram of the lifting and plugging mechanism of the present invention.

[0031] Figure 8 It is a schematic cross-sectional structure diagram of the lifting and plugging mechanism of the present invention.

[0032] Fig. 9 It is a structural schematic diagram of the plug board and the lifting ball block of the present invention.

[0033] Fig.10 It is a schematic diagram of the structure of the rotating column and the expansion and contraction plate of the present invention.

[0034] Fig.11 It is a schematic diagram of the splitting structure of the rotating column of the present invention.

[0035] Fig.12 for Fig.11 An enlarged schematic diagram of the structure of part B.

[0036] Fig.13 It is a schematic diagram of the cross-sectional structure of the adjustment component and the expansion and contraction plate of the present invention.

[0037] Fig.14This is an enlarged schematic diagram of the C-section structure of 13.

[0038] Fig.15 It is a structural schematic diagram of the lifting guide groove unit of the present invention.

[0039] Description of the numbers in the figure:

[0040] 1. Mounting seat; 2. Lifting and plugging mechanism; 3. Data cable body;

[0041] 11. Circular slot; 12. Regular hexagonal slot; 13. Movable vertical slot; 14. Bus slot; 15. Card slot; 16. Card ball slot; 17. Installation slot A; 18. Installation slot B;

[0042] 101, adapter slot; 102, empty slot; 103, interface slot B;

[0043] 21. Rotating column; 22. Rotating shaft; 23. Slideway; 24. Adjusting assembly; 25. Expansion and contraction groove; 26. Expansion and contraction plate; 27. Plug-in plate; 28. Lifting ball block; 29. ​​Lifting guide groove unit;

[0044] 211, column slot; 212, movable column; 213, spring A; 214, clamping ball block;

[0045] 241, hexagonal prism; 242, guide block; 243, connecting shaft; 244, adjustment block;

[0046] 261, inclined slot; 262, straight slot;

[0047] 271, branch line slot; 272, interface slot A;

[0048] 291, annular groove; 292, arc groove A; 293, partial thread groove; 294, arc groove B;

[0049] 31. Main data line; 32. Type-C branch line unit; 33. Micro-B branch line unit; 34. Lightning branch line unit; 35. Sub-data line; 36. Type-C interface A; 37. USB interface A;

[0050] 301, cable collector; 302, plug-in module; 303, pull-out data cable; 304, adapter; 305, Type-C interface B; 306, Micro-B interface B; 307, Lightning interface B;

[0051] 3020, movable block; 3021, plug-in ring block; 3022, movable groove; 3023, spring B; 3024, inclined guide block; 3025, connecting shaft; 3026, truncated cone block A; 3027, truncated cone block B; 3028, movable ring block; 3029, spring C. DETAILED DESCRIPTION

[0052] like Figures 1 to 15 As shown, the present invention relates to a portable multi-interface data cable, comprising a mounting base 1, a lifting and plugging mechanism 2 and a data cable body 3;

[0053] The mounting seat 1 has a regular hexagonal cross section, a circular groove 11 is provided in the mounting seat 1, mounting grooves A17 are provided on the upper portions of the six side surfaces of the mounting seat 1, and mounting grooves B18 are provided on the lower portions of the four adjacent side surfaces of the mounting seat 1;

[0054] The lifting and plugging mechanism 2 has six movable ends;

[0055] The data cable body 3 includes a main data cable 31, six Type-C branch units 32, two Micro-B branch units 33 and two Lightning branch units 34. The main data cable 31 is arranged at the bottom of the mounting seat 1. The output end of the main data cable 31 is connected to six branch data cables 35 through an integrated chip unit. The output end of the branch data cable 35 is connected to a Type-C interface A36. The six Type-C interfaces A36 are respectively fixedly connected to the six movable end portions. The six Type-C branch units 32 are respectively movably arranged on six mounting grooves A17. The two Micro-B branch units 33 and the two Lightning branch units 34 are respectively movably arranged on four mounting grooves B18. The two Micro-B branch units 33 and the two Lightning branch units 34 are arranged in an alternating manner. Each Type-C interface A36 is plugged into and matched with the input ends of the six Type-C branch units 32, the two Micro-B branch units 33 and the two Lightning branch units 34.

[0056] In the embodiment of the present invention, a regular hexagonal groove 12 connected to the circular groove 11 is provided at the top of the mounting seat 1, six movable vertical grooves 13 are provided at six side positions of the circular groove 11 surface relative to the mounting seat 1, the bottom ends of the movable vertical grooves 13 are connected through a bus groove 14, a card slot 15 is provided on one side of the bottom end of the movable vertical groove 13, the main data line 31 is arranged in the bus groove 14, the main data line 31 passes through the bus groove 14 and extends to the outside of the card slot 15 and is connected to a USB interface A37, the USB interface A37 is plugged into the card slot 15, and six card-connecting ball grooves 16 are provided in a ring-shaped equidistant structure at the bottom end of the circular groove 11.

[0057] In the embodiment of the present invention, the lifting and plugging mechanism 2 includes a rotating column 21 and six plug-in plates 27. The rotating column 21 is arranged in the circular groove 11. The bottom end of the rotating column 21 is fixed with a rotating shaft 22, and the rotating shaft 22 is rotatably connected to the bottom end of the circular groove 11. The top of the rotating column 21 is provided with a slide groove 23 with a regular hexagonal cross section, and an adjustment component 24 is arranged in the slide groove 23. The surface of the rotating column 21 is annular and equidistantly spaced structure and is provided with a plurality of expansion and contraction grooves 25 connected to the slide groove 23. The expansion and contraction grooves 25 are arranged in the expansion and contraction grooves 25. An expansion and contraction plate 26 is arranged, and the expansion and contraction plate 26 is movably connected to the bottom end of the adjustment component 24. The six movable end portions are respectively composed of six plug-in plates 27. The six plug-in plates 27 are respectively movably arranged in six movable vertical grooves 13, and a lifting ball block 28 is fixed to the eccentric end of the plug-in plate 27; the expansion and contraction plate 26 is adapted in shape to the rotating column 21, and a lifting guide groove unit 29 is opened on the surface of the column surrounded by the rotating column 21 and the six expansion and contraction plates 26, and the lifting ball block 28 is movably connected to the lifting guide groove unit 29.

[0058] The adjustment component 24 includes a hexagonal prism 241, which is slidably arranged on the slide groove 23. The bottom ends of the six side surfaces of the hexagonal prism 241 are fixed with guide blocks 242. The top of the hexagonal prism 241 is fixed with a connecting shaft 243, which is movably matched with the regular hexagonal groove 12. The top of the connecting shaft 243 is fixed with a hexagonal prism-shaped adjustment block 244, which is movably matched with the regular hexagonal groove 12.

[0059] An inclined groove 261 is formed at one end of the expansion and contraction plate 26 close to the hexagonal prism 241 , and straight grooves 262 are formed at both ends of the inclined groove 261 . The inclined groove 261 is connected with two inclined grooves 261 to form an expansion and contraction guide groove, and the guide block 242 is movably connected to the expansion and contraction guide groove.

[0060] The plug board 27 is hollow inside to form a branch line slot 271. An interface slot A272 is provided at one end of the plug board 27 away from the hexagonal prism 241. The interface slot A272 is connected to the branch line slot 271. The data line 35 passes through the branch line slot 271 and extends into the interface slot A272. The Type-C interface A36 is fixed on the interface slot A272. The present invention adopts the structural design of the lifting and plugging mechanism 2 as mentioned above, so that when the adjustment component 24 is lifted and lowered, the hexagonal prism 241 slides relative to the slide groove 23, and the guide block 242 moves in the expansion and contraction guide groove, so that the expansion and contraction plate 26 expands and contracts in the expansion and contraction groove 25. It is worth mentioning that when the guide block 242 is located at the top of the upper straight groove 262, the connecting shaft 243 enters the regular hexagonal groove 12. At this time, the rotating column 21 and the six expansion and contraction plates 26 form a column. The rotating adjustment block 244 can rotate the entire adjustment component 24, so that the lifting ball block 28 moves on the lifting guide groove unit 29, so that the plug-in board 27 is lifted and lowered to drive the Type-C interface A36 to lift and lower, and adjust the position of the Type-C interface A36. When the guide block 242 is located at the bottom of the lower straight groove 262, the adjustment block 244 is inserted into the regular hexagonal groove 12 and cannot rotate.

[0061] In the embodiment of the present invention, the lifting guide groove unit 29 includes an annular groove 291 and four arc grooves A292. The annular groove 291 is opened at the top of the column, wherein two lifting ball blocks 28 are movably connected to the annular groove 291, and the four arc grooves A292 are opened on the surface of the column in an evenly spaced structure, and the four arc grooves A292 are arranged with an offset position relative to the other four lifting ball blocks 28. A partial thread groove 293 is connected to the arc groove A292, and an arc groove B294 is connected to the end of the partial thread groove 293 away from the arc groove A292. The arc groove A292, the partial thread groove 293 and the arc groove B294 are connected to form a lifting groove, and the remaining four lifting ball blocks 28 are movably connected to the four lifting grooves respectively;

[0062] The sum of the rotatable arc of the arc groove A292 at the top and the rotatable arc of the partial thread groove 293 at the top is less than 60°, and the difference in arc between any two adjacent arc grooves A292 is 60°. The present invention further designs the lifting guide groove unit 29 so that when the two lifting ball blocks 28 move in the annular groove 291, the positions of the corresponding two plug-in boards 27 remain unchanged, so that when the lifting ball block 28 rotates on the arc groove A292 and the arc groove B294, the position of the plug-in board 27 remains unchanged, and when the lifting ball block 28 moves on the partial thread groove 293, the corresponding plug-in board 27 performs lifting movement on the movable vertical groove 13. Four arc grooves A292 are arranged with an offset position relative to the other four lifting ball blocks 28, so that the four plug-in boards 27 can be individually controlled to lift and lower, and the sum of the rotatable arc of the arc groove A292 located at the top and the rotatable arc of the partial thread groove 293 located at the top is set to be less than 60, and the difference in arc between any two adjacent arc grooves A292 is 60°. The adjustment block 244 can control the lifting and lowering of one of the plug-in boards 27 every time it rotates 60°, so that the output combinations of the data cable body 3 are more, the application range of the data cable body 3 is further improved, and the functionality of the multi-interface data cable is improved.

[0063] In the embodiment of the present invention, the bottom end of the rotating column 21 is annular and equidistantly spaced structure with six column slots 211, and movable columns 212 are movably arranged in the six column slots 211. The top of the movable column 212 is elastically connected to the top of the column slot 211 by a spring A213, and the bottom end of the movable column 212 passes through the column slot 211 and is fixed with a snap-in ball block 214, which snaps with the snap-in ball slot 16. The present invention further designs the rotating column 21, so that every time the rotating column 21 rotates 60°, the snap-in ball block 214 snaps with the corresponding snap-in ball slot 16 and another snap-in ball slot 16, thereby increasing a certain rotation resistance for the rotating column 21, and when the snap-in ball slot 16 snaps with the snap-in ball slot 16, the user will have an obvious feeling, so that the user can be more accurate when rotating 60°, which is convenient for adjusting the position of the Type-C interface A36.

[0064] In an embodiment of the present invention, the installation groove A17 and the installation groove B18 are arranged in a symmetrical structure. The installation groove A17 and the installation groove B18 both include an adapter groove 101. The adapter groove 101 is connected to a hollow groove 102. The hollow groove 102 is provided with an interface groove B103. The interface groove B103 is connected to the movable vertical groove 13.

[0065] In an embodiment of the present invention, six Type-C branch units 32, two Micro-B branch units 33, and two Lightning branch units 34 all include a receiver 301, the adapter slot 101 is adapted to the shape of the receiver 301, the receiver 301 is plugged with the adapter slot 101 through a plug-in module 302, and a pull-out data cable 303 is arranged in the receiver 301, one end of the pull-out data cable 303 passes through the receiver 301 and extends into the empty slot 102 and is fixed with an adapter 304, the adapter 304 is fixedly connected to the interface slot B103, and the adapter 304 The other end of the pull-out data cable 303 on the Type-C branch unit 32 passes through the cable receiver 301 and is fixedly provided with a Type-C interface B305, the other end of the pull-out data cable 303 on the Micro-B branch unit 33 passes through the cable receiver 301 and is fixedly provided with a Micro-B interface B306, the other end of the pull-out data cable 303 on the Lightning branch unit 34 passes through the cable receiver 301 and is fixedly provided with a Lightning interface B307, and the Type-C interface A36 is plugged and matched with the adapter 304. The cable receiver 301 of the present invention is used for storing the pull-out data cable 303, which is a prior art and will not be described in detail here.

[0066] In an embodiment of the present invention, the plug-in module 302 includes a plug-in ring block 3021, a connecting shaft 3025 and a movable ring block 3028. The plug-in ring block 3021 is fixedly arranged at one end of the wire take-up device 301 close to the adapting groove 101. A plurality of movable grooves 3022 are provided in a ring-shaped structure with equal spacing in the plug-in ring block 3021. A movable block 3020 is movably connected in the movable groove 3022. The movable block 3020 is elastically connected to the movable groove 3022 through a spring B3023. An inclined guide block 3024 is fixedly arranged at one end of the movable block 3020 close to the connecting shaft 3025. The connecting shaft 3025 is fixedly arranged in the adapting groove 10 1, a truncated cone block A3026 is fixedly arranged at one end of the connecting shaft 3025 away from the rotating column 21, a truncated cone block B3027 is sleeved at one end of the connecting shaft 3025 close to the rotating column 21, the oblique guide block 3024 passes through the movable groove 3022 and extends to the inner cavity of the plug-in ring block 3021 and movably cooperates with the truncated cone block A3026, the oblique guide block 3024 and the truncated cone block B3027 are movably cooperated, the movable ring block 3028 is movably arranged in the adapting groove 101, and the movable ring block 3028 and the adapting groove 101 are elastically connected by a spring C3029, wherein the volume of the truncated cone block B3027 is larger than that of the truncated cone block A3026.The present invention designs the plug-in module 302 so that when the wire take-up device 301 is retracted to the adapter slot 101, the wire take-up device 301 is pressed, and the inclined guide block 3024 drives the movable block 3020 to move in the movable slot 3022 under the reaction force of the truncated cone block A3026, the spring B3023 is compressed, the movable ring block 3028 moves in the adapter slot 101, and the spring C3029 is also compressed. When the inclined guide block 3024 moves to contact the truncated cone block B3027, the belt The movable truncated block B3027 moves on the connecting shaft 3025 toward the side away from the truncated block A3026 until the inclined guide block 3024 moves to the gap between the truncated block A3026 and the truncated block B3027. Under the elastic force of the spring B3023, the movable block 3020 moves to the original position in the movable groove 3022 and no longer presses the wire take-up device 301. Under the elastic force of the spring C3029, the inclined guide block 3024 and the truncated block A3026 are close to the truncated block B The end of the truncated plate 3027 is in contact with the truncated plate 3027, so that the position of the pressing wire take-up device 301 can be kept relatively stable. When the wire take-up device 301 needs to be taken out, the wire take-up device 301 is pressed, and the movable block 3020 is driven to move in the movable groove 3022 under the reaction force of the truncated plate B3027, and the spring B3023 is compressed. When the inclined guide block 3024 moves to the truncated plate surface of the truncated plate B3027, the inclined guide block 3024 and the truncated plate B3027 are in contact with the truncated plate 3027 under the elastic force of the spring B3023. 27, the truncated table surface is in contact, and the wire take-up device 301 is no longer pressed. Under the elastic force of spring C3029, the wire take-up device 301 drives the plug-in ring block 3021 and the inclined guide block 3024 to move, so that the inclined guide block 3024 drives the truncated table block B3027 to move on the connecting shaft 3025, until the truncated table block B3027 contacts the truncated table block A3026, and the inclined guide block 3024 moves to the truncated table block A3026 and pops outward under the elastic force of spring C3029.

[0067] A method for using a portable multi-interface data cable comprises the following steps:

[0068] S1: Adjust the position of Type-C interface A36 according to the charging interfaces of multiple mobile phones;

[0069] For example, there is a Micro-B charging port phone, a Lightning charging port phone, and three Type-C charging port phones that need to be charged;

[0070] The adjusting block 244 is lifted to make the hexagonal column 241 slide upward relative to the slide groove 23, and the guide block 242 enters the top of the straight groove 262 located above from the straight groove 262 and the inclined groove 261 located below in sequence. When the guide block 242 moves upward in the inclined groove 261, the expansion and contraction plate 26 contracts in the expansion and contraction groove 25. When the guide block 242 is located at the top of the straight groove 262 above, the connecting shaft 243 enters the regular hexagonal groove 12. At this time, the rotating column 21 and the six The expansion and contraction plates 26 form a column, the connecting shaft 243 enters the regular hexagonal groove 12, and the rotating adjustment block 244 can make the connecting shaft 243 rotate relative to the regular hexagonal groove 12, thereby making the entire adjustment assembly 24 rotate 120 degrees, so that the lifting ball block 28 moves on the lifting guide groove unit 29, and the two lifting ball blocks 28 move in the annular groove 291, and the corresponding two plug-in plates 27 always remain in the same position. At first, when rotating 60 degrees, due to the arc groove A29 located at the top 2 and the sum of the rotatable arc of the partial thread groove 293 at the top is less than 60°, the lifting ball block 28 on the arc groove A292 at the top enters the corresponding arc groove B294 from the arc groove A292 through the partial thread groove 293, and when the lifting ball block 28 moves inside, it drives the corresponding plug-in board 27 to do a downward movement on the movable vertical groove 13. Since the difference in the arc angle between any two adjacent arc grooves A292 is 60°, the remaining three lifting ball blocks 28 still move in the arc groove A292, and the positions of the corresponding three plug-in boards 27 remain unchanged. After rotating 60° again, the lifting ball block 28 located in the arc groove B294 still continues to move in the arc groove B294, and the position of the corresponding plug-in board 27 remains unchanged. One of the lifting ball blocks 28 enters the corresponding arc groove B294 from the arc groove A292 through the partial thread groove 293, so that the corresponding plug-in board 27 does a downward movement on the movable vertical groove 13;

[0071] Similarly, it can be known that each time the position of a Type-C interface A36 needs to be adjusted, the adjustment block 244 needs to be rotated 60°; and each time the rotating column 21 rotates 60°, the clamping ball block 214 is clamped with the corresponding clamping ball groove 16 and another clamping ball groove 16, which increases a certain rotation resistance for the rotating column 21, and when the clamping ball groove 16 is clamped with the clamping ball groove 16, the user will have an obvious feeling, so that the user can be more accurate when rotating 60°, which is convenient for adjusting the position of the Type-C interface A36;

[0072] S2: Type-C interface A36 plug-in:

[0073] Press the adjustment block 244, the guide block 242 moves to the bottom of the straight groove 262 located below, and the expansion and contraction plate 26 opens in the expansion and contraction groove 25, so that the plug-in board 27 moves on the movable vertical groove 13, and the corresponding two Type-C interfaces A36 are respectively plugged with the adapter 304 on one of the Micro-B branch units 33 and the adapter 304 on one of the Lightning branch units 34, and the remaining four Type-C interfaces A36 are respectively plugged with the adapters 304 on the corresponding four Type-C branch units 32. At this time, the adjustment block 244 is inserted into the regular hexagonal groove 12 and cannot rotate.

[0074] S3: Use of Type-C branch unit 32, Micro-B branch unit 33 and Lightning branch unit 34: Press the corresponding several wire take-ups 301 and take them out. After use, put the wire take-up 301 back into the adapter slot 101, press the wire take-up 301 so that the inclined guide block 3024 contacts the end of the truncated cone block A3026 close to the truncated cone block B3027, so that the position of the pressed wire take-up 301 can remain relatively stable.

[0075] The embodiments of the present invention disclose preferred embodiments, but are not limited thereto. A person skilled in the art can easily understand the spirit of the present invention based on the above embodiments and make different extensions and changes. However, as long as they do not deviate from the spirit of the present invention, they are all within the protection scope of the present invention.

Claims

1. A portable multi-interface data cable, characterized in that: It comprises a mounting seat (1), a lifting and plugging mechanism (2) and a data cable body (3); The mounting seat (1) has a regular hexagonal cross-section, a circular groove (11) is provided in the mounting seat (1), mounting grooves A (17) are provided on the upper portions of the six side surfaces of the mounting seat (1), and mounting grooves B (18) are provided on the lower portions of the four adjacent side surfaces of the mounting seat (1); The lifting and plugging mechanism (2) has six movable ends; The data cable body (3) comprises a main data cable (31), six Type-C branch line units (32), two Micro-B branch line units (33) and two Lightning branch line units (34); the main data cable (31) is arranged at the bottom end of the mounting seat (1); the output end of the main data cable (31) is connected to six branch data cables (35) via an integrated chip unit; the output end of the branch data cable (35) is connected to a Type-C interface A (36); the six Type-C interfaces A (36) are respectively fixedly connected to the six movable end portions; the six Type-C branch line units (33) are connected to the six movable end portions; The line units (32) are movably arranged on the six installation slots A (17), the two Micro-B branch line units (33) and the two Lightning branch line units (34) are movably arranged on the four installation slots B (18), and the two Micro-B branch line units (33) and the two Lightning branch line units (34) are arranged alternately, and each of the Type-C interfaces A (36) is pluggable with the input ends of the six Type-C branch line units (32), the two Micro-B branch line units (33) and the two Lightning branch line units (34); The top of the mounting seat (1) is provided with a regular hexagonal groove (12) connected to the circular groove (11), and the surface of the circular groove (11) is provided with six movable vertical grooves (13) at six side positions relative to the mounting seat (1); The lifting and plugging mechanism (2) comprises a rotating column (21) and six plugging plates (27). The rotating column (21) is arranged in the circular groove (11). A rotating shaft (22) is fixedly provided at the bottom end of the rotating column (21). The rotating shaft (22) is rotatably connected to the bottom end of the circular groove (11). A sliding groove (23) with a regular hexagonal cross section is provided at the top end of the rotating column (21). An adjusting component (24) is arranged in the sliding groove (23). The surface of the rotating column (21) is The annular equidistant structure is provided with a plurality of expansion and contraction grooves (25) connected to the slide groove (23), an expansion and contraction plate (26) is arranged in the expansion and contraction groove (25), the expansion and contraction plate (26) is movably connected to the bottom end of the adjustment component (24), the six movable end portions are respectively composed of six plug-in plates (27), the six plug-in plates (27) are respectively movably arranged in the six movable vertical grooves (13), and the eccentric end of the plug-in plate (27) is fixedly provided with a lifting ball block (28); The expansion and contraction plates (26) are adapted in shape to the rotating column (21); a lifting guide groove unit (29) is provided on the surface of a column surrounded by the rotating column (21) and the six expansion and contraction plates (26); and the lifting ball block (28) is movably connected to the lifting guide groove unit (29).

2. The portable multi-interface data cable according to claim 1, characterized in that: The bottom end of the movable vertical slot (13) is connected via a bus slot (14); a card slot (15) is provided on one side of the bottom end of the movable vertical slot (13); the main data line (31) is provided in the bus slot (14); the main data line (31) passes through the bus slot (14) and extends to the outside of the card slot (15) and is connected to a USB interface A (37); the USB interface A (37) is plugged into the card slot (15); and the bottom end of the circular slot (11) is provided with six card-connecting ball slots (16) in an annular structure with equal spacing.

3. The portable multi-interface data cable according to claim 2, characterized in that: The adjustment component (24) comprises a hexagonal prism (241), the hexagonal prism (241) is slidably arranged on the slide groove (23), the bottom ends of the six side surfaces of the hexagonal prism (241) are all fixedly provided with guide blocks (242), the top end of the hexagonal prism (241) is fixedly provided with a connecting shaft (243), the connecting shaft (243) is movably matched with the regular hexagonal groove (12), the top end of the connecting shaft (243) is fixedly provided with a hexagonal pyramid-shaped adjustment block (244), the adjustment block (244) is movably matched with the regular hexagonal groove (12); The expansion and contraction plate (26) is provided with an oblique groove (261) at one end close to the hexagonal prism (241), and straight grooves (262) are provided at both ends of the oblique groove (261). The oblique groove (261) is connected with two oblique grooves (261) to form an expansion and contraction guide groove, and the guide block (242) is movably connected to the expansion and contraction guide groove.

4. The portable multi-interface data cable according to claim 3, characterized in that: The plug board (27) is hollow inside to form a branch line slot (271); an interface slot A (272) is provided at one end of the plug board (27) away from the hexagonal prism (241); the interface slot A (272) is connected to the branch line slot (271); the branch data line (35) penetrates the branch line slot (271) and extends into the interface slot A (272); and the Type-C interface A (36) is fixedly arranged on the interface slot A (272).

5. The portable multi-interface data cable according to claim 4, characterized in that: The lifting guide groove unit (29) comprises an annular groove (291) and four arc grooves A (292), wherein the annular groove (291) is provided at the top of the column, wherein two lifting ball blocks (28) are movably connected to the annular groove (291), the four arc grooves A (292) are provided on the surface of the column in an equidistant structure, and the four arc grooves A (292) are arranged in an offset position relative to the other four lifting ball blocks (28), the arc groove A (292) is connected to a partial thread groove (293), the partial thread groove (293) is connected to an arc groove B (294) at one end away from the arc groove A (292), the arc groove A (292), the partial thread groove (293) and the arc groove B (294) are connected to form a lifting groove, and the remaining four lifting ball blocks (28) are respectively movably connected to the four lifting grooves; The sum of the rotatable arc of the arc groove A (292) located at the top and the rotatable arc of the partial thread groove (293) located at the top is less than 60°, and the difference in arc between any two adjacent arc grooves A (292) is 60°.

6. The portable multi-interface data cable according to claim 5, characterized in that: The bottom end of the rotating column (21) is provided with six column grooves (211) in an annular structure with equal spacing. A movable column (212) is movably provided in the six column grooves (211). The top end of the movable column (212) is elastically connected to the top end of the column groove (211) via a spring A (213). The bottom end of the movable column (212) passes through the column groove (211) and is fixed with a clamping ball block (214). The clamping ball block (214) is clamped and matched with the clamping ball groove (16).

7. The portable multi-interface data cable according to claim 6, characterized in that: The mounting groove A (17) and the mounting groove B (18) are arranged in a symmetrical structure. The mounting groove A (17) and the mounting groove B (18) both comprise an adapting groove (101). An empty groove (102) is provided on the adapting groove (101). The empty groove (102) is provided with an interface groove B (103). The interface groove B (103) is in communication with the movable vertical groove (13).

8. The portable multi-interface data cable according to claim 7, characterized in that: The six Type-C branch line units (32), two Micro-B branch line units (33) and two Lightning branch line units (34) all include a cable receiver (301), the adapter slot (101) and the cable receiver (301) are adapted in shape, the cable receiver (301) and the adapter slot (101) are plugged together via a plug-in module (302), a pull-out data cable (303) is arranged in the cable receiver (301), one end of the pull-out data cable (303) passes through the cable receiver (301) and extends into the empty slot (102) and is fixedly provided with an adapter (304), the adapter (304) is fixedly connected to the interface slot B (103), and the adapter (304) is connected to the adapter slot B (103). The USB interface A (37) is plugged in and matched, the other end of the pull-out data cable (303) on the Type-C branch line unit (32) passes through the cable receiver (301) and is fixedly provided with a Type-C interface B (305), the other end of the pull-out data cable (303) on the Micro-B branch line unit (33) passes through the cable receiver (301) and is fixedly provided with a Micro-B interface B (306), the other end of the pull-out data cable (303) on the Lightning branch line unit (34) passes through the cable receiver (301) and is fixedly provided with a Lightning interface B (307), and the Type-C interface A (36) is plugged in and matched with the adapter (304).

9. The portable multi-interface data cable according to claim 8, characterized in that: The plug-in module (302) comprises a plug-in ring block (3021), a connecting shaft (3025) and a movable ring block (3028); the plug-in ring block (3021) is fixedly arranged at one end of the cable receiver (301) close to the adapting groove (101); a plurality of movable grooves (3022) are provided in a ring-shaped structure with equal spacing therein; a movable block (3020) is movably connected in the movable groove (3022); the movable block (3020) and the movable groove (3022) are elastically connected via a spring B (3023); an oblique guide block (3024) is fixedly arranged at one end of the movable block (3020) close to the connecting shaft (3025); the connecting shaft (3025) is fixedly arranged in the adapting groove (101 ... A truncated cone block A (3026) is fixedly provided at one end of the connecting shaft (3025) away from the rotating column (21); a truncated cone block B (3027) is sleeved at one end of the connecting shaft (3025) close to the rotating column (21); the inclined guide block (3024) passes through the movable groove (3022) and extends to the inner cavity of the plug-in ring block (3021) and movably cooperates with the truncated cone block A (3026); the inclined guide block (3024) and the truncated cone block B (3027) are movably cooperated; the movable ring block (3028) is movably arranged in the adapting groove (101); the movable ring block (3028) and the adapting groove (101) are elastically connected via a spring C (3029); wherein the volume of the truncated cone block B (3027) is greater than the volume of the truncated cone block A (3026).

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