A square socket

Abstract

The utility model relates to the technical field of socket, specifically relates to a square socket, adopts square casing, insulating assembly component and conductive sheet component, square casing has at least two and is equipped with the socket of inserting surface, socket corresponds with conductive sheet component, and the inserting surface of square casing is equipped with the installation let go of the mouth, and square casing fixedly connects the boss plug -in seat, and socket is equipped with in boss plug -in seat, and square socket still includes the socket fixer of detachable joint in boss plug -in seat. When using, first fix the socket fixer on the carrier such as wall surface, table bottom or shelf side, when receiving, the boss plug -in seat of square casing is detachable and is connected in the socket fixer, so that square socket is hung on the carrier such as wall surface, table bottom or shelf side, avoids occupying more plane space when idling, is favorable for the improvement space utilization ratio, also can remove the joint state between the boss plug -in seat of square casing and socket fixer, and shifts square casing to the designated position and places electrification use.

Description

Technical Field

[0001] This utility model relates to the field of socket technology, specifically to a square socket. Background Technology

[0002] Square sockets have a three-dimensional design (e.g., cuboid or cube). Multiple sockets are provided on multiple sides, so they can accommodate multiple plugs at the same time in a compact size, and the multiple plugs will not interfere with each other during use.

[0003] However, most existing square sockets are placed on desktops or the ground, making it difficult to fix them on walls, the bottom of tables, or the sides of shelves. This occupies more floor space, which is not conducive to flexible storage and use, and the space utilization rate is low. Summary of the Invention

[0004] In order to overcome the shortcomings and deficiencies of the existing technology, the purpose of this utility model is to provide a square socket.

[0005] The objective of this utility model is achieved through the following technical solution: a square socket, comprising a square housing, an insulating assembly installed within the square housing, and a conductive electrode assembly connected within the insulating assembly. The square housing has at least two insertion surfaces with sockets, the sockets corresponding to the conductive electrode assemblies. The insertion surfaces of the square housing have installation clearance openings. The square housing is fixedly connected to a boss insertion seat protruding to the installation clearance opening. The sockets are located on the boss insertion seat. The square socket also includes a socket retainer detachably snapped onto the boss insertion seat, the socket retainer being used to fix it to a carrier.

[0006] Preferably, the boss of the boss connector has an annular groove around its perimeter, and the side of the socket retainer near the boss connector has a buckle that engages with the annular groove. The top surface of the boss of the boss connector has a clearance notch for the buckle to extend into the annular groove.

[0007] Preferably, the socket retainer has a countersunk through hole on the side near the boss connector, the countersunk through hole being used for screws to pass through the socket retainer and be threaded into the screw hole of the carrier.

[0008] Preferably, the insulating assembly includes a first insulating base, a second insulating base, a third insulating base, and a fourth insulating base that are fixedly connected in sequence; the conductive electrode assembly includes a live wire integrated conductive electrode sandwiched between the first insulating base and the second insulating base, a ground wire integrated conductive electrode sandwiched between the second insulating base and the third insulating base, and a neutral wire integrated conductive electrode sandwiched between the third insulating base and the fourth insulating base.

[0009] Preferably, a first electrode limiting block protrudes from the side of the first insulating base near the second insulating base, and a second electrode limiting block protrudes from the side of the second insulating base near the first insulating base. The first electrode limiting block and the second electrode limiting block cooperate to limit the installation of the live wire integrated conductive electrode. A third electrode limiting block protrudes from the side of the third insulating base near the second insulating base to limit the installation of the ground wire integrated conductive electrode. A fourth electrode limiting block protrudes from the side of the fourth insulating base near the third insulating base to limit the installation of the neutral wire integrated conductive electrode.

[0010] Preferably, the integrated live wire conductive electrode sheet has a first clearance through hole, the first insulating seat has a first locking hole, and the second insulating seat has a first connecting post protruding from the side near the first insulating seat, penetrating the first clearance through hole and engaging with the first locking hole; the third insulating seat has a connecting cylinder protruding through the third insulating seat, and the second insulating seat has a second connecting post protruding from the side near the third insulating seat and engaging with the connecting cylinder; the integrated neutral wire conductive electrode sheet has a second clearance through hole, and the fourth insulating seat has a third connecting post protruding through the second clearance through hole and engaging with the connecting cylinder.

[0011] Preferably, an overload mounting base is fixedly connected to the side of the fourth insulating base away from the third insulating base, and an overload protector electrically connected to the integrated conductive electrode sheet of the live wire is sandwiched between the overload mounting base and the fourth insulating base.

[0012] Preferably, the top of one side of the overload mounting base is provided with a first longitudinal reset through hole corresponding to the reset button of the overload protector, and the side of the square housing near the overload mounting base is provided with a second longitudinal reset through hole that connects to the first longitudinal reset through hole. The second longitudinal reset through hole and the first longitudinal reset through hole together form a reset channel, which is used for the rod to extend into and press the reset button of the overload protector.

[0013] Preferably, the square housing has four insertion surfaces with sockets, and one side of the square housing is provided with CD patterns.

[0014] The beneficial effects of this utility model are as follows: The square socket of this utility model adopts a square shell, an insulating assembly installed in the square shell, and a conductive electrode plate assembly connected in the insulating assembly. The square shell has at least two plug-in surfaces with sockets, the sockets correspond to the conductive electrode plate assembly, the plug-in surfaces of the square shell have installation clearance openings, and the square shell is fixedly connected to a boss plug-in seat that protrudes to the installation clearance opening. The socket is opened in the boss plug-in seat. The square socket also includes a socket retainer that can be detachably snapped into the boss plug-in seat. The socket retainer is used to fix it on the carrier. This square socket comes with a socket holder. When in use, first fix the socket holder to a carrier such as a wall, the bottom of a table, or the side of a shelf. When storing, the protruding plug of the square shell can be detachably snapped into the socket holder, allowing the square socket to hang on a carrier such as a wall, the bottom of a table, or the side of a shelf, avoiding taking up more floor space when not in use and improving space utilization. Alternatively, the protruding plug of the square shell can be released from the socket holder, and the square shell can be moved to a designated location for power-on use. Attached Figure Description

[0015] Figure 1 This is a schematic diagram of the structure of this utility model; Figure 2 yes Figure 1 Enlarged diagram of A in the middle; Figure 3 This is a split view of the boss plug-in seat and socket retainer described in this utility model; Figure 4 This is a partially exploded view of the present invention; Figure 5 This is an exploded view of the insulating assembly and conductive electrode assembly described in this utility model; Figure 6 This is an exploded view of the insulating assembly and conductive electrode assembly described in this utility model from another perspective; Figure 7 This is a schematic diagram of another embodiment of the present invention.

[0016] The attached figures are labeled as follows: 1. Square housing; 2. Socket; 3. Socketing surface; 4. Insulation assembly; 41. First insulating base; 42. Second insulating base; 43. Third insulating base; 44. Fourth insulating base; 5. Conductive electrode assembly; 51. Integrated live wire conductive electrode; 52. Integrated ground wire conductive electrode; 53. Integrated neutral wire conductive electrode; 6. Installation clearance opening; 7. Bossed socket; 8. Socket retainer; 9. Annular groove; 10. Buckle; 11. Clearance notch; 2. Countersunk through hole; 13. First electrode limiting block; 14. Second electrode limiting block; 15. Third electrode limiting block; 16. Fourth electrode limiting block; 17. First clearance through hole; 18. First locking hole; 19. First connecting post; 20. Connecting cylinder; 21. Second connecting post; 22. Second clearance through hole; 23. Third connecting post; 24. Overload mounting base; 25. Overload protector; 26. First longitudinal reset through hole; 27. Second longitudinal reset through hole; 28. CD pattern. Detailed Implementation

[0017] To facilitate understanding by those skilled in the art, the present invention will be further described below with reference to embodiments and accompanying drawings. The content mentioned in the embodiments is not intended to limit the present invention.

[0018] like Figure 1-6 As shown, a square socket includes a square housing 1, an insulating assembly 4 installed inside the square housing 1, and a conductive electrode assembly 5 connected to the insulating assembly 4. The square housing 1 has at least two insertion surfaces 3 with sockets 2, the sockets 2 corresponding to the conductive electrode assembly 5. The insertion surfaces 3 of the square housing 1 have installation clearance openings 6. The square housing 1 is fixedly connected to a boss insertion seat 7 that protrudes into the installation clearance opening 6. The sockets 2 are opened in the boss insertion seat 7. The square socket also includes a socket retainer 8 that is detachably snapped into the boss insertion seat 7. The socket retainer 8 is used to fix it to a carrier.

[0019] This square socket is equipped with a socket holder 8. When in use, the socket holder 8 is first fixed to a carrier such as a wall, the bottom of a table, or the side of a shelf. When storing, the protruding plug-in seat 7 of the square housing 1 can be detachably snapped into the socket holder 8, so that the square socket can be hung on a carrier such as a wall, the bottom of a table, or the side of a shelf, avoiding taking up more floor space when not in use and improving space utilization. Alternatively, the snapping state between the protruding plug-in seat 7 of the square housing 1 and the socket holder 8 can be released, and the square housing 1 can be moved to a designated position for power supply.

[0020] Furthermore, the boss of the plug-in base 7 has an annular groove 9 around its boss, and the socket retainer 8 has a buckle 10 extending from the side near the boss of the plug-in base 7 to engage with the annular groove 9. The top surface of the boss of the plug-in base 7 has a clearance notch 11 for the buckle 10 to extend into the annular groove 9. The socket retainer 8 is fixed to a carrier such as a wall, the bottom of a table, or the side of a shelf. The boss of the square housing 1 is then adjusted so that the clearance notch 11 aligns with the buckle 10, allowing the buckle 10 to extend into the annular groove 9. Rotating the square housing 1 then engages the buckle 10 with the annular groove 9, making assembly simple and quick.

[0021] Furthermore, the socket retainer 8 has a countersunk hole 12 on the side near the boss connector 7. The countersunk hole 12 is used for a screw to pass through the socket retainer 8 and be threaded into the screw hole of the carrier. The socket retainer 8 can be fixed to the carrier by means of the screw threaded engagement with the screw hole of the carrier; the countersunk hole 12 helps to accommodate the screw head and prevents the screw head from protruding and occupying space, thus affecting the normal engagement between the socket retainer 8 and the boss connector 7. In other embodiments, the socket retainer 8 and the carrier can also be fixed by adhesive bonding.

[0022] Furthermore, the insulating assembly 4 includes a first insulating base 41, a second insulating base 42, a third insulating base 43, and a fourth insulating base 44 that are fixedly connected in sequence; the conductive electrode assembly 5 includes a live wire integrated conductive electrode 51 sandwiched between the first insulating base 41 and the second insulating base 42, a ground wire integrated conductive electrode 52 sandwiched between the second insulating base 42 and the third insulating base 43, and a neutral wire integrated conductive electrode 53 sandwiched between the third insulating base 43 and the fourth insulating base 44. That is, the first insulating base 41, the live wire integrated conductive electrode 51, the second insulating base 42, the ground wire integrated conductive electrode 52, the third insulating base 43, the neutral wire integrated conductive electrode 53, and the fourth insulating base 44 are stacked and installed in sequence, making assembly more convenient and faster, and improving the production efficiency of square sockets.

[0023] Furthermore, a first electrode limiting block 13 protrudes from the side of the first insulating base 41 near the second insulating base 42, and a second electrode limiting block 14 protrudes from the side of the second insulating base 42 near the first insulating base 41. The first electrode limiting block 13 and the second electrode limiting block 14 cooperate to limit the installation of the integrated live wire conductive electrode 51. A third electrode limiting block 15 protrudes from the side of the third insulating base 43 near the second insulating base 42 to limit the installation of the integrated ground wire conductive electrode 52. A fourth electrode limiting block 16 protrudes from the side of the fourth insulating base 44 near the third insulating base 43 to limit the installation of the integrated neutral wire conductive electrode 53. This helps to improve the connection stability of the integrated live wire conductive electrode 51, integrated ground wire conductive electrode 52, and integrated neutral wire conductive electrode 53 in the insulating assembly 4, and prevents the integrated live wire conductive electrode 51, integrated ground wire conductive electrode 52, and integrated neutral wire conductive electrode 53 from easily becoming displaced and affecting use.

[0024] Furthermore, the integrated live wire conductive electrode 51 has a first clearance through hole 17, the first insulating seat 41 has a first locking hole 18, and the second insulating seat 42 has a first connecting post 19 protruding from the side near the first insulating seat 41, penetrating the first clearance through hole 17 and engaging with the first locking hole 18; the third insulating seat 43 has a connecting cylinder 20 protruding through the third insulating seat 43, and the second insulating seat 42 has a second connecting post 21 protruding from the side near the third insulating seat 43 and engaging with the connecting cylinder 20; the integrated neutral wire conductive electrode 53 has a second clearance through hole 22, and the fourth insulating seat 44 has a third connecting post 23 protruding through the second clearance through hole 22 and engaging with the connecting cylinder 20. This helps to improve the connection stability of the first insulating seat 41, the second insulating seat 42, the third insulating seat 43, and the fourth insulating seat 44, and prevents the insulating assembly 4 from easily loosening and separating.

[0025] Furthermore, an overload mounting base 24 is fixedly connected to the side of the fourth insulating base 44 away from the third insulating base 43. An overload protector 25, which is electrically connected to the integrated conductive electrode plate 51 of the live wire, is sandwiched between the overload mounting base 24 and the fourth insulating base 44. The overload protector 25 is electrically connected to the integrated conductive electrode plate 51 of the live wire. When an overload occurs during the use of the square socket, the overload protector 25 cuts off the circuit, which helps to avoid the danger of overload.

[0026] Furthermore, a first longitudinal reset through-hole 26 corresponding to the reset button of the overload protector 25 is provided on the top side of one side of the overload mounting base 24. A second longitudinal reset through-hole 27 communicating with the first longitudinal reset through-hole 26 is provided on the side of the square housing 1 near the overload mounting base 24. The second longitudinal reset through-hole 27 and the first longitudinal reset through-hole 26 together form a reset channel. The reset channel is used for inserting a rod to press the reset button of the overload protector 25. In actual use, after the overload protector 25 cuts off the circuit and the electrical plug is unplugged from the socket, a rod such as a screwdriver or toothpick can be used to insert into the reset channel and press down the reset button of the overload protector 25 to reuse the square socket.

[0027] Furthermore, the square housing 1 has four plug-in surfaces 3 with sockets 2, and one side of the square housing 1 is provided with a CD pattern 28. The CD pattern 28 helps to enhance the decorative and visual effects of the square socket and attracts the user's attention.

[0028] like Figure 1 As shown, the square socket in this embodiment is an extension cord socket, equipped with a plug and an extension cord. Figure 7 As shown, in another embodiment, the square socket is a straight-plug socket, which is fixedly equipped with a plug.

[0029] The above embodiments are preferred implementations of this utility model. In addition, this utility model can also be implemented in other ways. Any obvious substitutions without departing from the concept of this utility model are within the protection scope of this utility model.

Claims

1. A square socket, comprising a square housing, an insulating assembly disposed within the square housing, and a conductive electrode assembly connected within the insulating assembly, wherein the square housing has at least two insertion surfaces with sockets, the sockets corresponding to the conductive electrode assembly, characterized in that: The square housing has an installation clearance opening on its insertion surface. The square housing is fixedly connected to a boss insertion seat that protrudes into the installation clearance opening. The insertion port is located on the boss insertion seat. The square socket also includes a socket retainer that can be detachably snapped into the boss insertion seat. The socket retainer is used to fix the socket to the carrier.

2. A square socket according to claim 1, characterized in that: The boss of the socket has an annular groove around its circumference. The side of the socket retainer near the boss has a buckle that engages with the annular groove. The top surface of the boss of the socket has a clearance notch for the buckle to extend into the annular groove.

3. A square socket according to claim 1, characterized in that: The socket retainer has a countersunk through hole on the side near the boss connector. The countersunk through hole is used for screws to pass through the socket retainer and be threaded into the screw hole of the carrier.

4. A square socket according to claim 1, characterized in that: The insulating assembly includes a first insulating base, a second insulating base, a third insulating base, and a fourth insulating base that are fixedly connected in sequence; the conductive electrode assembly includes a live wire integrated conductive electrode sandwiched between the first insulating base and the second insulating base, a ground wire integrated conductive electrode sandwiched between the second insulating base and the third insulating base, and a neutral wire integrated conductive electrode sandwiched between the third insulating base and the fourth insulating base.

5. A square socket according to claim 4, characterized in that: A first electrode limiting block protrudes from the side of the first insulating base near the second insulating base, and a second electrode limiting block protrudes from the side of the second insulating base near the first insulating base. The first electrode limiting block and the second electrode limiting block cooperate to limit the installation of the live wire integrated conductive electrode. A third electrode limiting block protrudes from the side of the third insulating base near the second insulating base to limit the installation of the ground wire integrated conductive electrode. A fourth electrode limiting block protrudes from the side of the fourth insulating base near the third insulating base to limit the installation of the neutral wire integrated conductive electrode.

6. A square socket according to claim 4, characterized in that: The integrated live wire conductive electrode sheet has a first clearance through hole, the first insulating seat has a first locking hole, and the second insulating seat has a first connecting post protruding from the side near the first insulating seat, which penetrates the first clearance through hole and is inserted into the first locking hole; the third insulating seat has a connecting cylinder protruding through the third insulating seat, and the second insulating seat has a second connecting post protruding from the side near the third insulating seat, which is inserted into the connecting cylinder; the integrated neutral wire conductive electrode sheet has a second clearance through hole, and the fourth insulating seat has a third connecting post protruding through the second clearance through hole and inserted into the connecting cylinder.

7. A square socket according to claim 4, characterized in that: An overload mounting base is fixedly connected to the side of the fourth insulating base away from the third insulating base, and an overload protector electrically connected to the integrated conductive electrode sheet of the live wire is sandwiched between the overload mounting base and the fourth insulating base.

8. A square socket according to claim 7, characterized in that: The top of one side of the overload mounting base is provided with a first longitudinal reset through hole corresponding to the reset button of the overload protector. The side of the square housing near the overload mounting base is provided with a second longitudinal reset through hole that connects to the first longitudinal reset through hole. The second longitudinal reset through hole and the first longitudinal reset through hole together form a reset channel. The reset channel is used for the rod to extend into and press the reset button of the overload protector.

9. A square socket according to claim 1, characterized in that: The square housing has four insertion surfaces with sockets, and one side of the square housing is provided with CD patterns.

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