A magic cube converter
By optimizing the socket layout and improving the assembly structure, the problems of messy circuits and cumbersome assembly in the Rubik's Cube converter were solved, resulting in cleaner circuits, improved safety, simplified assembly process, and reduced production costs.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- 江叶挺
- Filing Date
- 2025-07-24
- Publication Date
- 2026-05-29
AI Technical Summary
The existing Rubik's Cube converter has an unreasonable socket layout, resulting in messy wiring, and the multi-piece isolation bracket is cumbersome to assemble.
A single integrated isolation bracket is used to optimize the socket layout, so that the five-socket orientation of the first and third surfaces is consistent, and the assembly process is simplified by using a drawer-type electrode conductive sheet assembly method.
It effectively avoids wire tangling, improves the cleanliness and safety of the usage environment, simplifies the assembly process, and reduces production costs.
Smart Images
Figure CN224305123U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of electrical conversion equipment technology, and in particular to a Rubik's Cube converter. Background Technology
[0002] With the widespread use of electronic devices, converters, as an important electrical accessory, are widely used in homes, offices, and other places. Currently, the cube-shaped converters on the market have several shortcomings: in terms of socket layout, the flat five-hole sockets on the left face downwards while those on the right face upwards. This layout easily leads to messy wiring after plugging in cables, affecting convenience and safety; in terms of isolation brackets, most use a combination of 2, 3, or 4 pieces, making assembly cumbersome. Utility Model Content
[0003] The purpose of this utility model is to address the shortcomings of the existing technology by providing a Rubik's Cube converter that solves the problem of messy wiring caused by unreasonable socket layout and the cumbersome assembly of multi-piece isolation brackets.
[0004] To solve the above problems, the technical solution adopted by this utility model is as follows:
[0005] A Rubik's Cube converter includes a housing, an isolation bracket disposed inside the housing, an L-polar conductive sheet, and an N-polar conductive sheet. The isolation bracket is internally divided into a first mounting portion and a second mounting portion by a first partition. The first mounting portion is further divided from top to bottom into a first L-polar mounting groove and a first N-polar mounting groove by a second partition. The second mounting portion is further divided from top to bottom into a second N-polar mounting groove and a second L-polar mounting groove by a third partition. The L-polar conductive sheet includes a first L-polar conductive portion, a second L-polar conductive portion, and an L-polar connecting portion connecting the first L-polar conductive portion and the second L-polar conductive portion. The N-polar conductive sheet includes a first N-polar conductive portion. The device comprises an L-polar conductive part, a second N-polar conductive part, and an N-polar connecting part connecting the first N-polar conductive part and the second N-polar conductive part. A clearance groove is formed on the first, second, and third partitions. The first L-polar conductive part is located in a first L-polar mounting groove, and the second L-polar conductive part is located in a second L-polar mounting groove. The L-polar connecting part passes through the clearance groove to connect the first L-polar conductive part and the second L-polar conductive part. The first N-polar conductive part is located in the first N-polar mounting groove, and the second N-polar conductive part is located in the second N-polar mounting groove. The N-polar connecting part passes through the clearance groove to connect the first N-polar conductive part and the second N-polar conductive part.
[0006] A further technical solution includes an E-polar conductive sheet, and the isolation bracket is also provided with an E-polar mounting groove that penetrates the first partition, with the E-polar conductive sheet disposed in the E-polar mounting groove.
[0007] A further technical solution is that at least one surface of the housing is provided with a socket, the first L-polar conductive part and the second L-polar conductive part are provided with L-polar sleeves, the first N-polar conductive part and the second N-polar conductive part are provided with N-polar sleeves, the E-polar conductive sheet is provided with E-polar sleeves, and the L-polar sleeves, N-polar sleeves and E-polar sleeves are respectively provided with L-polar sockets, N-polar sockets and E-polar sockets of the socket.
[0008] A further technical solution is that the housing includes a housing body with an opening at one end and a cover that fits onto the housing body. The housing body and the cover are fixed by snap-fit fasteners, making installation convenient and the connection firm, preventing loosening and ensuring the overall structural stability of the converter.
[0009] A further technical solution is that the first and third surfaces of the housing body are provided with five-hole sockets, the second and fourth surfaces of the housing body are provided with two-hole sockets, the first L-polar conductive part is provided with four L-polar sleeves, one of which corresponds to the L-polar socket of the two-hole socket on the second surface, two of which correspond to the L-polar socket of the five-hole socket on the first surface, and the last of which corresponds to the L-polar socket of the two-hole socket on the fourth surface; the second L-polar conductive part is provided with two L-polar sleeves, and the two L-polar sleeves correspond to the L-polar socket of the five-hole socket on the third surface; the first... The first N-pole conductive part has four N-pole sockets, one of which corresponds to the N-pole socket of the two-hole socket on the second surface, two of which correspond to the N-pole socket of the five-hole socket on the first surface, and the last one corresponds to the N-pole socket of the two-hole socket on the fourth surface; the second N-pole conductive part has two N-pole sockets, and the two N-pole sockets correspond to the N-pole socket of the five-hole socket on the third surface; the E-pole conductive sheet has two E-pole sockets, one of which corresponds to the E-pole socket of the five-hole socket on the first surface, and the other corresponds to the E-pole socket of the five-hole socket on the third surface.
[0010] A further technical solution includes a pin assembly located between the isolation bracket and the fifth surface of the housing body. The pin assembly is equipped with three electrode pins, which are electrically connected to the L-polar conductive plate, the N-polar conductive plate, and the E-polar conductive plate, respectively.
[0011] A further technical solution includes a first protective door assembly, a second protective door assembly, a third protective door assembly, and a fourth protective door assembly. The first protective door assembly is a five-hole protective door assembly disposed between the first surface of the housing body and the isolation bracket. The second protective door assembly is a two-hole protective door assembly disposed between the second surface of the housing body and the isolation bracket. The third protective door assembly is a five-hole protective door assembly disposed between the third surface of the housing body and the isolation bracket. The fourth protective door assembly is a two-hole protective door assembly disposed between the fourth surface of the housing body and the isolation bracket.
[0012] A further technical solution is that the five-hole sockets on the first and third surfaces are oriented in the same direction.
[0013] A further technical solution is that the first partition is perpendicular to the second partition, and the second partition is parallel to the third partition.
[0014] A further technical solution is that both the second and third partitions are double-layered structures.
[0015] The beneficial effects of adopting the above technical solution are as follows:
[0016] This utility model of a cube converter optimizes the socket layout and improves the assembly structure, ensuring that the five-prong sockets on the first and third surfaces are oriented in the same direction. This layout effectively prevents wires from becoming tangled during actual use, making it easier for users to organize their cables. The consistent direction of the wires after insertion into the five-prong sockets on both the first and third surfaces avoids wire clutter, resulting in a cleaner working environment and improved safety.
[0017] A single, integrated isolation bracket replaces the traditional multi-piece isolation bracket, simplifying the assembly process and improving the isolation effect between the conductive electrode sheets, thus ensuring safe use. The drawer-style assembly method for the conductive electrode sheets simplifies the assembly process, improves production efficiency, and reduces production costs. Attached Figure Description
[0018] Figure 1 This is a schematic diagram of the present invention;
[0019] Figure 2 This is an exploded view of this utility model;
[0020] Figure 3 This is a schematic diagram showing the L-polar conductive plate, N-polar conductive plate, and E-polar conductive plate installed inside the isolation bracket;
[0021] Figure 4 yes Figure 3 A diagram showing the other direction;
[0022] Figure 5 This is a schematic diagram of the main body of the casing;
[0023] Figure 6 This is a schematic diagram of the isolation bracket;
[0024] Figure 7 This is a schematic diagram of the L-polar conductive plate;
[0025] Figure 8 This is a schematic diagram of the N-pole conductive plate;
[0026] Figure 9 This is a schematic diagram of the E-polar conductive plate;
[0027] Figure 10 This is a diagram showing the wiring after the wires are connected.
[0028] In the figure: 1. Isolation bracket; 111. First partition; 112. Second partition; 113. Third partition; 114. Clearance groove; 2. L-polar conductive sheet; 211. First L-polar conductive part; 212. Second L-polar conductive part; 213. L-polar connecting part; 214. L-polar sleeve; 3. N-polar conductive sheet; 311. First N-polar conductive part; 312. Second N-polar conductive part; 313. N-polar connecting part; 314. N-polar sleeve; 4. E-polar conductive sheet; 411. E-polar sleeve; 5. Housing; 511. Housing body; 5111. First surface; 5112. Second surface; 5113. Third surface; 5114. Fourth surface; 5115. Fifth surface; 512. Cover; 6. Pin assembly; 611. Electrode pin; 7. First protective door assembly; 8. Second protective door assembly; 9. Third protective door assembly; 10. Fourth protective door assembly. Detailed Implementation
[0029] The embodiments of this utility model will be described in further detail below with reference to the accompanying drawings and examples. The following examples are for illustrative purposes only and should not be construed as limiting the scope of this utility model.
[0030] In the description of this utility model, it should be noted that the terms "center," "upper," "lower," "left," "right," "vertical," "horizontal," "inner," and "outer," etc., indicating the orientation or positional relationship, are based on the orientation or positional relationship shown in the accompanying drawings and are only for the convenience of describing this utility model and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of this utility model. Furthermore, the terms "first," "second," and "third" are used for descriptive purposes only and should not be construed as indicating or implying relative importance.
[0031] like Figure 1-10As shown, a Rubik's Cube converter includes a housing 5, an isolation bracket 1 disposed inside the housing 5, an L-polar conductive sheet 2, and an N-polar conductive sheet 3. The isolation bracket 1 is divided into a first mounting part and a second mounting part by a first partition 111. The first mounting part is divided from top to bottom into a first L-polar mounting groove and a first N-polar mounting groove by a second partition 112. The second mounting part is divided from top to bottom into a second N-polar mounting groove and a second L-polar mounting groove by a third partition 113. The first partition 111 is perpendicular to the second partition 112, and the second partition 112 is parallel to the third partition 113. The L-polar conductive sheet 2 includes a first L-polar conductive portion 211, a second L-polar conductive portion 212, and an L-polar connecting portion 213 connecting the first L-polar conductive portion 211 and the second L-polar conductive portion 212. The N-polar conductive sheet 3 includes a first N-polar conductive portion 311, a second N-polar conductive portion 312, and an N-polar connecting portion 313 connecting the first N-polar conductive portion 311 and the second N-polar conductive portion 312. The first partition 111, the second partition 112, and the third partition 113 are provided with clearance grooves 114. An L-pole conductive part 211 is located in a first L-pole mounting groove, and a second L-pole conductive part 212 is located in a second L-pole mounting groove. An L-pole connecting part 213 passes through a clearance groove 114 to connect the first L-pole conductive part 211 and the second L-pole conductive part 212. A first N-pole conductive part 311 is located in a first N-pole mounting groove, and a second N-pole conductive part 312 is located in a second N-pole mounting groove. An N-pole connecting part 313 passes through a clearance groove 114 to connect the first N-pole conductive part 311 and the second N-pole conductive part 312.
[0032] Preferably, the cube converter further includes an E-polar conductive sheet 4, and the isolation bracket 1 is also provided with an E-polar mounting groove that penetrates the first partition 111, with the E-polar conductive sheet 4 disposed within the E-polar mounting groove. One end of the second partition 112 and the third partition 113 is connected to the side wall of the E-polar mounting groove.
[0033] A single, integrated isolation bracket replaces the traditional multi-piece isolation bracket, simplifying the assembly process and improving the isolation effect between the conductive electrode sheets, thus ensuring safe use. The drawer-style assembly method for the conductive electrode sheets simplifies the assembly process, improves production efficiency, and reduces production costs.
[0034] At least one surface of the housing 5 is provided with a socket, the first L-polar conductive part 211 and the second L-polar conductive part 212 are provided with L-polar sleeves 214, the first N-polar conductive part 311 and the second N-polar conductive part 312 are provided with N-polar sleeves 314, and the E-polar conductive sheet 4 is provided with an E-polar sleeve 411. The L-polar sleeves 214, N-polar sleeves 314 and E-polar sleeves 411 are respectively provided with L-polar sockets, N-polar sockets and E-polar sockets of the socket.
[0035] The housing 5 includes a housing body 511 with one end open and a cover 512 that covers the housing body 511. In this embodiment, the housing body 511 and the cover 512 are fixed by snap-fit, which makes installation convenient and the connection firm and not easy to loosen, thus ensuring the overall structural stability of the converter.
[0036] The first surface 5111 and the third surface 5113 of the housing body 511 are provided with five-hole sockets, and the second surface 5112 and the fourth surface 5114 of the housing body 511 are provided with two-hole sockets. The first L-polar conductive part 211 is provided with four L-polar sleeves 214, one of which corresponds to the L-polar socket of the two-hole socket on the second surface 5112, two of which correspond to the L-polar socket of the five-hole socket on the first surface 5111, and the last of which corresponds to the L-polar socket of the two-hole socket on the fourth surface 5114. The second L-polar conductive part 212 is provided with two L-polar sleeves 214, and the two L-polar sleeves 214 are provided with the L-polar sockets of the five-hole socket on the third surface 5113. The N-pole conductive part 311 is provided with four N-pole sockets 314, one of which corresponds to the N-pole socket of the two-hole socket on the second surface 5112, two of which correspond to the N-pole socket of the five-hole socket on the first surface 5111, and the last one corresponds to the N-pole socket of the two-hole socket on the fourth surface 5114; the second N-pole conductive part 312 is provided with two N-pole sockets 314, and the two N-pole sockets 314 correspond to the N-pole socket of the five-hole socket on the third surface 5113; the E-pole conductive sheet 4 is provided with two E-pole sockets 411, one of which corresponds to the E-pole socket of the five-hole socket on the first surface 5111, and the other corresponds to the E-pole socket of the five-hole socket on the third surface 5113.
[0037] Preferably, the cube converter further includes a pin assembly 6, which is located between the isolation bracket 1 and the fifth surface 5115 of the housing body 511. The pin assembly 6 is equipped with three electrode pins 611, which are electrically connected to the L-polar conductive sheet 2, the N-polar conductive sheet 3 and the E-polar conductive sheet 4, respectively.
[0038] Preferably, the Rubik's Cube converter further includes a first protective door assembly 7, a second protective door assembly 8, a third protective door assembly 9, and a fourth protective door assembly 10. The first protective door assembly 7 is a five-hole protective door assembly disposed between the first surface 5111 of the housing body 511 and the isolation bracket 1. The second protective door assembly 8 is a two-hole protective door assembly disposed between the second surface 5112 of the housing body 511 and the isolation bracket 1. The third protective door assembly 9 is a five-hole protective door assembly disposed between the third surface 5113 of the housing body 511 and the isolation bracket 1. The fourth protective door assembly 10 is a two-hole protective door assembly disposed between the fourth surface 5114 of the housing body 511 and the isolation bracket 1.
[0039] The five-prong sockets on the first surface 5111 and the third surface 5113 are oriented in the same direction. This layout effectively prevents wires from tangling during actual use, making it easier for users to organize their wiring. The consistent orientation of the wires after insertion into the five-prong sockets on both surfaces avoids messy wiring, resulting in a cleaner working environment and improved safety.
[0040] Preferably, both the second partition 112 and the third partition 113 are double-layer structures, which can improve the isolation effect.
[0041] During assembly, follow these steps:
[0042] Hold the N-pole conductive sheet 3 and align the first N-pole conductive part 311 and the second N-pole conductive part 312 with the first N-pole mounting groove and the second N-pole mounting groove of the isolation bracket 1, and align the N-pole connecting part 313 with the clearance groove 114. Push it into place using a drawer-type push-in method.
[0043] Similarly, push the L-polar conductive plate 2 into place;
[0044] Then push the E-polar conductive plate 4 into place;
[0045] Take the first protective door assembly 7, the second protective door assembly 8, the third protective door assembly 9, and the fourth protective door assembly 10, and put them on the positioning post of the isolation bracket 1 to ensure accurate positioning;
[0046] Insert the pin assembly 6 onto the positioning post of the isolation bracket 1, and then firmly connect each conductive sheet to the pin assembly 6 by welding;
[0047] Place the assembled structure into the housing;
[0048] Finally, cover 512 is placed on top and secured with a snap-fit mechanism to complete the assembly of the entire Rubik's Cube converter.
[0049] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of this utility model, and not to limit it; although the utility model has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some of the technical features; and these modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of this utility model.
Claims
1. A Rubik's Cube converter, comprising a housing (5), an isolation bracket (1) disposed inside the housing (5), an L-polar conductive sheet (2), and an N-polar conductive sheet (3), characterized in that: The isolation bracket (1) is internally divided into a first mounting part and a second mounting part by a first partition (111). The first mounting part is divided from top to bottom into a first L pole mounting groove and a first N pole mounting groove by a second partition (112). The second mounting part is divided from top to bottom into a second N pole mounting groove and a second L pole mounting groove by a third partition (113). The L pole conductive sheet (2) includes a first L pole conductive part (211), a second L pole conductive part (212), and an L pole connecting part (213). The N pole conductive sheet (3) includes a first N pole conductive part (311), a second N pole conductive part (312), and an N pole connecting part (313). The first partition (111), the first L pole conductive part (211), the second L pole conductive part (212), and the third L pole connecting part (213) are all part of the first partition (111). The second partition (112) and the third partition (113) are provided with clearance grooves (114). The first L-pole conductive part (211) is located in the first L-pole mounting groove, and the second L-pole conductive part (212) is located in the second L-pole mounting groove. The L-pole connecting part (213) passes through the clearance groove (114) to connect the first L-pole conductive part (211) and the second L-pole conductive part (212). The first N-pole conductive part (311) is located in the first N-pole mounting groove, and the second N-pole conductive part (312) is located in the second N-pole mounting groove. The N-pole connecting part (313) passes through the clearance groove (114) to connect the first N-pole conductive part (311) and the second N-pole conductive part (312).
2. A Rubik's Cube converter according to claim 1, characterized in that: It also includes an E-polar conductive sheet (4), and the isolation bracket (1) is also provided with an E-polar mounting groove that penetrates the first partition (111), and the E-polar conductive sheet (4) is disposed in the E-polar mounting groove.
3. A Rubik's Cube converter according to claim 2, characterized in that: At least one surface of the housing (5) is provided with a socket, the first L-polar conductive part (211) and the second L-polar conductive part (212) are provided with L-polar sleeves (214), the first N-polar conductive part (311) and the second N-polar conductive part (312) are provided with N-polar sleeves (314), the E-polar conductive sheet (4) is provided with E-polar sleeves (411), and the L-polar sleeves (214), N-polar sleeves (314) and E-polar sleeves (411) are respectively provided with L-polar sockets, N-polar sockets and E-polar sockets of the socket.
4. A Rubik's Cube converter according to claim 3, characterized in that: The housing (5) includes a housing body (511) with one end open and a cover (512) covering the housing body (511).
5. A Rubik's Cube converter according to claim 4, characterized in that: The first surface (5111) and the third surface (5113) of the housing body (511) are provided with five-hole sockets, and the second surface (5112) and the fourth surface (5114) of the housing body (511) are provided with two-hole sockets. The first L-polar conductive part (211) is provided with four L-polar sleeves (214), one of which corresponds to the L-polar socket of the two-hole socket on the second surface (5112), two of which correspond to the L-polar socket of the five-hole socket on the first surface (5111), and the last one corresponds to the L-polar socket of the two-hole socket on the fourth surface (5114). The second L-polar conductive part (212) is provided with two L-polar sleeves (214), and the two L-polar sleeves (214) correspond to the L-polar socket of the five-hole socket on the third surface (5113). The first N-pole conductive part (311) is provided with four N-pole sockets (314), one of which corresponds to the N-pole socket of the two-hole socket on the second surface (5112), two of which correspond to the N-pole socket of the five-hole socket on the first surface (5111), and the last one corresponds to the N-pole socket of the two-hole socket on the fourth surface (5114); the second N-pole conductive part (312) is provided with two N-pole sockets (314), and the two N-pole sockets (314) correspond to the N-pole socket of the five-hole socket on the third surface (5113); the E-pole conductive sheet (4) is provided with two E-pole sockets (411), one of which corresponds to the E-pole socket of the five-hole socket on the first surface (5111), and the other corresponds to the E-pole socket of the five-hole socket on the third surface (5113).
6. A Rubik's Cube converter according to claim 5, characterized in that: It also includes a pin assembly (6), which is located between the isolation bracket (1) and the fifth surface (5115) of the housing body (511). The pin assembly (6) is equipped with three electrode pins (611), which are electrically connected to the L-polar conductive sheet (2), the N-polar conductive sheet (3) and the E-polar conductive sheet (4) respectively.
7. A Rubik's Cube converter according to claim 5, characterized in that: It also includes a first protective door assembly (7), a second protective door assembly (8), a third protective door assembly (9), and a fourth protective door assembly (10). The first protective door assembly (7) is disposed between the first surface (5111) of the housing body (511) and the isolation bracket (1). The second protective door assembly (8) is disposed between the second surface (5112) of the housing body (511) and the isolation bracket (1). The third protective door assembly (9) is disposed between the third surface (5113) of the housing body (511) and the isolation bracket (1). The fourth protective door assembly (10) is disposed between the fourth surface (5114) of the housing body (511) and the isolation bracket (1).
8. A Rubik's Cube converter according to claim 5, characterized in that: The five-hole sockets on the first surface (5111) and the third surface (5113) are oriented in the same direction.
9. A Rubik's Cube converter according to claim 1, characterized in that: The first partition (111) is perpendicular to the second partition (112), and the second partition (112) is parallel to the third partition (113).
10. A Rubik's Cube converter according to claim 1, characterized in that: The second partition (112) and the third partition (113) are both double-layer structures.