TW201316625A - Connection kit for network wire - Google Patents

Abstract

A connection kit for network wire is disclosed in the present invention. The connection kit includes a socket and a plug for the network wire. The socket includes a base whereinside a slot is formed, a plurality of pins disposed inside the slot, and a magnetic unit covering the base. The plug includes a plurality of wires, and a protecting component whereinside a plurality of accommodating portion is formed. Each wire is accommodated inside the corresponding accommodating portion. The protecting component is partly disposed inside the slot for connecting the wires to the pins for transmitting a signal. The plug further includes a fixing structure disposed by the protecting component, and a magnetic component disposed inside the fixing structure for inducting magnetic force with the magnetic unit.

Description

Network route connection kit

The invention relates to a network route connecting set, in particular to a mesh route connecting set using magnetic adsorption force.

The conventional net route plug is provided with a snap rib on the outer edge of the protective cover. The conventional mesh route socket is formed on the edge of the casing to form a fastening groove. When the mesh route plug is inserted into the network route socket, the buckle is inserted. The ribs are elastically deformed by being squeezed, and then are caught in the fastening groove and closely fitted to complete the interlocking operation. However, the buckle rib used in the conventional mesh route plug is generally composed of a plastic material, and when repeatedly inserted and removed into the socket, the structural strength is greatly reduced; and if the network route plug is in an ambient temperature The change is more severe, which will also cause the material to deteriorate and affect the structural strength. If the plug of the net route is excessively pulled by the external force, the buckle rib is easily broken and ruptured, which causes the net route plug to be unusable and is scrapped. Therefore, how to design a network route plug and related socket that is not easy to damage and maintain a stable joint relationship for a long time is one of the development topics of the current institutional industry.

The present invention provides a mesh route connection kit utilizing magnetic adsorption force to solve the above problems.

The patent application scope of the present invention discloses a mesh route plug using magnetic adsorption force, which is magnetically adsorbed to join a mesh route socket. The net route plug includes a plurality of wires; a protective member having a plurality of receiving grooves formed therein, each receiving groove receiving a corresponding wire; a fixing structure disposed on a side of the protecting member; and a A magnetic component is received in the fixed structure for absorbing a magnetic component of the mesh routing socket.

The patent application scope of the present invention further discloses that the distance between the fixing structure and one of the insertion ends of the protection member is substantially the same as the slot depth of one of the mesh routing sockets.

The patent application scope of the present invention further discloses that the network route plug further includes a limiting structure disposed at one of the inlet ends of the fixed structure. The stop structure is used to prevent the magnetic element from coming off the fixed structure.

The scope of the invention further discloses that the limiting structure is an elastic hook, which is obliquely disposed at the inlet end of the fixing structure, and a front end of the elastic hook is restrained against the magnetic element.

The patent application scope of the present invention further discloses that the elastic hook has an oblique guiding surface that drives the front end displacement when sliding relative to the magnetic element.

The patent application scope of the present invention further discloses a mesh route socket using magnetic adsorption force, which is magnetically adsorbed to join a mesh route plug. The network route socket comprises a base, and a slot is formed therein, the slot is used for accommodating a part of the network route plug; a plurality of connection terminals are disposed in the slot, and each of the plurality of connection terminals is used Contacting one of the mesh routing plugs to transmit an electronic signal; and a magnetic component covering the outer edge of the base for adsorbing one of the magnetic components of the mesh routing plug.

The scope of the patent application of the present invention further discloses that the magnetic component includes a plate portion located on a side of the base and corresponding to the position of the magnetic element of the wire routing plug.

The scope of the patent application of the present invention further discloses that the plate portion is a planar structure, and a planar normal vector of the planar structure is substantially parallel to the direction in which the mesh path plug is placed in the slot.

The patent application scope of the present invention further discloses a network route connection kit comprising a network route socket and a network route plug for loading the network route socket. The network routing socket includes a base having a slot formed therein; a plurality of connecting terminals disposed in the slot; and a magnetic component covering the outer edge of the base. The network route plug includes a plurality of wires; a protection member having a plurality of receiving slots formed therein, each of the receiving slots receiving a corresponding wire, and the protecting member is partially received in the slot of the mesh routing socket So that each wire contacts the corresponding connection terminal to transmit an electronic signal; a fixed structure is disposed beside the protection member; and a magnetic component is received in the fixed structure for adsorbing the network routing socket The magnetic component.

The mesh routing connecting sleeve of the present invention replaces the engaging rib structure of the prior art by magnetic adsorption force, so that the present invention has the advantages of stable structure and non-destruction, and can maintain better joint strength.

Please refer to FIG. 1 . FIG. 1 is a schematic diagram of the appearance of a network route connecting set 10 according to an embodiment of the present invention. The network route connection kit 10 includes a network route socket 12 and a network route plug 14. The mesh routing socket 12 includes a base 16 having a slot 161 formed therein, a plurality of connecting terminals 18 disposed in the slots 161, and a magnetic component 20 covering the outer edge of the base 16. As shown in FIG. 1, the mesh routing socket 12 can be a conventional RJ-45 structure, and the magnetic component 20 can be an iron casing for covering the base 16 made of plastic material to provide protection. The magnetic component 20 can include two plate portions 201 respectively located on two sides of the base 16.

The net route plug 14 is used to insert the net route socket 12 to form a net route connection set 10. The net route plug 14 includes a plurality of wires 22 and a protector 24. The inside of the protection member 24 is formed with a plurality of accommodating grooves 241 for accommodating the corresponding wires 22, so that when the mesh route plug 14 is loaded into the mesh route socket 12, the wires 22 are in contact with each other. Corresponding connection terminals 18 are used to transmit an electronic signal. The mesh routing plug 14 further includes a securing structure 26 disposed on the side of the protective member 24 and a magnetic member 28 received within the securing structure 26. The distance D between the fixed structure 26 of the mesh routing plug 14 and the insertion end of the protective member 24 can be substantially the same as the depth of the slot 161 of the mesh routing socket 12 to prevent the mesh routing plug 14 from being loaded into the network routing socket 12. The fixed structure 26 interferes with the pedestal 16.

It is worth mentioning that the plate portions 201 of the magnetic component 20 of the mesh routing socket 12 can be disposed at the position of the magnetic component 28 corresponding to the mesh routing plug 14 on the side of the pedestal 16 to achieve better magnetic induction efficiency. The magnetic component 28 can be a magnet, so that when the magnetic component 28 is close to the magnetic component 20 to a predetermined range, a magnetic attraction force can be induced between the two, so that the mesh routing plug 14 can closely fit the mesh routing socket. 12. In addition, the plate portion 201 of the magnetic component 20 can be designed as a planar structure, and a planar normal vector of the planar structure can be placed substantially parallel to the mesh path plug 14 in the moving direction of the mesh routing socket 12, that is, the planar structure (Plate 201) is facing the magnet (magnetic element 28) in the forward direction to provide maximum magnetic induction (or magnetic flux density).

Furthermore, please refer to FIG. 1 and FIG. 2, which is a cross-sectional view of the mesh route plug 14 according to an embodiment of the present invention. The mesh routing plug 14 can further include a limiting structure 30 disposed at one of the inlet ends of the fixed structure 26. As shown in FIG. 2, the limiting structure 30 can be a combination of two elastic hooks. The two elastic hooks are respectively disposed on two sides of the inlet end of the fixing structure 26, and the front end 301 of each elastic hook is used for magnetic Element 28 (magnet) is loaded into fixed structure 26 and then abuts against magnetic element 28 to prevent magnetic element 28 from slipping relative to fixed structure 26 or from securing structure 26. The front end 301 of the elastic hook is stopped at the inlet end of the fixing structure 26, so the limiting structure 30 (elastic hook) may further have an inclined guiding surface 303. When the user pushes the magnetic element 28 to slide relative to the oblique guiding surface 303 of the elastic hook, the elastic hook is elastically deformed by being squeezed, and the front end 301 is moved away from the inlet end of the fixing structure 26 to release the limit interference. That is, the magnetic element 28 can be placed into the fixing structure 26 via the gap of the two elastic hooks of the limiting structure 30.

Please refer to FIG. 1 to FIG. 4 . FIG. 3 and FIG. 4 are respectively schematic diagrams showing the combination of the network route connecting set 10 in different viewing angles according to an embodiment of the present invention. The mesh routing socket 12 is disposed inside a casing 32. The mesh routing plug 14 can pass through a hole from the outside of the casing 32 to be loaded into the mesh routing socket 12. As shown in FIGS. 3 and 4, when the protective member 24 of the mesh routing plug 14 is partially inserted into the slot 161 of the mesh routing socket 12 and is stopped against the bottom of the slot 161, the two magnetic wires of the mesh routing plug 14 The component 28 is capable of positively contacting the corresponding plate portion 201 of the magnetic component 20 of the mesh routing receptacle 12, respectively. Since the magnetic element 28 and the magnetic component 20 can be respectively a magnet and a magnetic metal (for example, iron metal), magnetic induction can be generated between the two to attract each other, so that the mesh routing plug 14 can be closely attached to the mesh routing socket 12, The link will be broken due to an external force collision.

Compared with the prior art, the mesh routing connecting sleeve of the present invention replaces the engaging rib structure of the prior art by magnetic adsorption force, so that the present invention has the advantages of structural stability and non-destruction, and can maintain better joint strength.

The above are only the embodiments of the present invention, and all changes and modifications made by the scope of the present invention should be within the scope of the present invention.

10. . . Network route connection kit

12. . . Network route socket

14. . . Net route plug

16. . . Pedestal

161. . . Slot

18. . . Connection terminal

20. . . Magnetic component

201. . . Board

twenty two. . . Wire

twenty four. . . Protective member

241. . . Locating slot

26. . . Fixed structure

28. . . Magnetic component

30. . . Limit structure

301. . . front end

303. . . Oblique guide

32. . . case

D. . . distance

FIG. 1 is a schematic diagram of the appearance of a network route connection kit according to an embodiment of the present invention.

Figure 2 is a cross-sectional view showing a mesh route plug of an embodiment of the present invention.

FIG. 3 and FIG. 4 are respectively schematic diagrams showing combinations of network route connection sets at different viewing angles according to an embodiment of the present invention.

10. . . Network route connection kit

12. . . Network route socket

14. . . Net route plug

16. . . Pedestal

161. . . Slot

18. . . Connection terminal

20. . . Magnetic component

201. . . Board

twenty two. . . Wire

twenty four. . . Protective member

241. . . Locating slot

26. . . Fixed structure

28. . . Magnetic component

D. . . distance

Claims (15)

A mesh route plug applying magnetic adsorption force, which is magnetically adsorbed to join a network route socket, the network route plug includes: a plurality of wires; a protection member having a plurality of receiving slots formed therein, each receiving The slot is configured to receive a corresponding wire; a fixed structure is disposed beside the protective member; and a magnetic component is received in the fixed structure for adsorbing one of the magnetic components of the mesh routing socket. The network routing plug of claim 1, wherein the distance between the fixing structure and one of the insertion ends of the protection member is substantially the same as a slot depth of the one of the network routing sockets. The network routing plug of claim 1, further comprising: a limiting structure disposed at an inlet end of the fixing structure, the limiting structure is configured to prevent the magnetic component from being detached from the fixed structure. The network routing plug of claim 3, wherein the limiting structure is an elastic hook, obliquely disposed at the inlet end of the fixing structure, and one of the front ends of the elastic hook is locked against the magnetic element. The net route plug of claim 4, wherein the elastic hook has an oblique guide surface that drives the front end displacement when sliding relative to the magnetic element. A mesh routing socket applying magnetic adsorption force, which is magnetically adsorbed to engage a network route plug, the network routing socket includes: a base having a slot formed therein for receiving a portion a network routing plug; a plurality of connecting terminals disposed in the slot, each of the plurality of connecting terminals for contacting a corresponding one of the mesh routing plugs to transmit an electronic signal; and a magnetic component covering the same The outer edge of the base is for absorbing the magnetic element of one of the mesh routing plugs. The mesh routing socket of claim 6, wherein the magnetic component comprises a plate portion located on a side of the base and corresponding to a position of the magnetic element of the mesh routing plug. The network routing socket of claim 7, wherein the panel portion is a planar structure, and a planar normal vector of the planar structure is substantially parallel to the mesh routing plug being placed in a moving direction of the slot. A network route connection kit includes: a network route socket, comprising: a base having a slot formed therein; a plurality of connection terminals disposed in the slot; and a magnetic component wrapped around The outer edge of the base: and a network route plug for loading the network route socket, the network route plug includes: a plurality of wires; a protection member having a plurality of receiving slots formed therein, each receiving The slot is received by the corresponding wire, and the protector is partially received in the slot of the wire routing socket, so that each wire contacts the corresponding connecting terminal to transmit an electronic signal; a fixed structure is disposed on the protective component a side; and a magnetic component received in the fixed structure for adsorbing the magnetic component of the mesh routing socket. The network routing connection kit of claim 9, wherein the magnetic component of the mesh routing socket comprises a board portion located on a side of the base and corresponding to the magnetic component of the network routing plug position. The network routing connection kit of claim 10, wherein the plate portion is a planar structure, and a planar normal vector of the planar structure is substantially parallel to the mesh path plug being placed in a moving direction of the slot. The network route connection kit of claim 9, wherein the fixed structure of the network route plug and the insertion end of the protection member are substantially the same as the slot depth of one of the network route sockets. The network routing connection kit of claim 9, wherein the network routing plug further comprises: a limiting structure disposed at an inlet end of the fixing structure, the limiting structure is configured to prevent the magnetic component from being detached from the Fixed structure. The network routing connection kit of claim 13, wherein the limiting structure is an elastic hook, obliquely disposed at the inlet end of the fixing structure, and a front end of the elastic hook is locked against the magnetic element. The network routing connection kit of claim 14, wherein the elastic hook has an oblique guiding surface that drives the front end displacement when sliding relative to the magnetic element.