Multidirectional network socket

DE202025102423U1Active Publication Date: 2025-06-18JYH ENG TECH
View PDF 0 Cites 0 Cited by

Patent Information

Application Number
DE202025102423
Authority / Receiving Office
DE · DE
Patent Type
Utility models
Current Assignee / Owner
Priority Date
2024-09-18
Filing Date
2025-05-02
Publication Date
2025-06-18
Estimated Expiration
2035-05-31

AI Technical Summary

Technical Problem

Existing network sockets face issues with cable bending limitations, signal interference, and inefficient installation due to fixed cable exits, leading to reduced signal transmission rates and installation efficiency.

Method used

A multi-directional network socket design featuring a front and rear shell, rotating covers, and a hinged cover with partition plates, allowing flexible adjustment and secure cable fixation, enhancing signal integrity and installation convenience.

Benefits of technology

The design improves signal transmission rates by minimizing cable bending and reduces installation time through secure, tool-free cover connections and enhanced dust and water resistance.

✦ Generated by Eureka AI based on patent content.

Smart Images

  • Figure 00000000_0000_ABST
    Figure 00000000_0000_ABST
Patent Text Reader

Abstract

Multidirectional network socket used in the network system and installed on a wall plate or in a junction box (1), comprising a front shell (11) having a rectangular shape and forming a socket (111) at one end, a first hinge portion (112) and a second hinge portion (113) being provided at the rear end of the front shell (11), the first hinge portion (112) and the second hinge portion (113) being opposite each other; a rear shell (12) arranged at the other end of the front shell (11) to form a receiving space (121), the socket (111) communicating with the receiving space (121); a first rotary cover (14) arranged on the first hinge portion (112) and forming a cover portion (141) on each of the two sides, wherein a threading hole (143) is provided at the rear end of the first rotary cover (14) close to the top; a hinged cover (15) hinged to one side of the threading hole (143) so that the hinged cover (15) can be closed and opened relative to the threading hole (143); and a second pivot cover (16) disposed on the second hinge portion (113) and provided with a recess (161) on both sides corresponding to each cover portion (141) so that, when the first pivot cover (14) and the second pivot cover (16) are closed relative to the front shell (11), each cover portion (141) is just received in a recess (161) to achieve shielding.
Need to check novelty before this filing date? Find Prior Art

Description

Technical FieldThe invention relates to the technical field of network communication equipment, in particular to a multidirectional network box comprising first and second rotating covers which can be opened and closed and the manner of connection of which enables opening without the use of special tools and prevents accidental opening, and a flip cover movably disposed on the first rotating cover, offers the field worker more flexible adjustment space and provides better dust and water resistance.Prior ArtAfter installation of the Keystone Jack's load cell, the rear cable outlet is usually in a fixed direction and the cable usually extends horizontally rearward. In practice, however, the horizontal rearward extension of the cable is often limited by space. When installed on the wall panel and in the junction box, the length of the network box is almost equal to the length from the wall panel to the bottom of the box. The worker can only insert the network cable for connection from the left and right sides of the box. The network cable must be bent 90 degrees prior to connection to the network box. The 90 degree bend has no radius of curvature. In the transmission of the network signal, the influence on the signal transmission rate is larger, and signal scattering occurs as the radius of curvature of the network cable is smaller. The current network cable has eight transmission cores. When bent, each transmission wire scatters the signal, thereby crossing the signals and decreasing the network transmission rate.In order to avoid the problem of cable bending, therefore, many network boxes with lateral cable outlets have come on the market. However, various problems have occurred, for example: when two network boxes are arranged in series, interference is generated with the same output direction. When two load cells are arranged in parallel and the jacks of the two load cells face two different directions, since the load cables enter the box from the same side and exit from the same side, the load cable of the load cell must be bent 180 degrees with the other direction in order for the load cables to enter the junction box from the same side. The dispersion of electromagnetic waves caused thereby more easily reduces the network transmission rate. This type of network box is normally installed in two ways, namely on the wall panel and in the junction box. When used in a general computer room, lateral cable exit is not required. Moreover, the network cable must first be passed through the wiring cover when installed on site. However, due to the pulling force, it may drop and must be repositioned prior to installation. Such repeated adjustments result in low installation efficiency and thus need to be improved.For this reason, the inventor of the present invention proposes a multi-directional network box based on his many years of experience in related industries. In addition to the front shell, the rear shell, the circuit board module, the first rotation cover, the second rotation cover, and the wiring cover, a flip cover is also added. The wiring cover is provided with two partition plates and two distribution plates corresponding to the plurality of piercing terminals of the circuit board module. Between the separator plates a reinforcing sheet bridge is provided. This construction serves for temporarily fixing the network cable for later assembly processes. This eliminates the shortcomings of the prior installation and increases installation efficiency.Object of the InventionThis object is achieved by the multidirectional network box of the invention comprising a front shell, a rear shell, a first rotating cover, a flip cover and a second rotating cover, wherein the manner of connecting the first and second rotating covers allows opening without using special tools and prevents accidental opening, and wherein the flip cover provides the work personnel with more flexible adjustment space on site and provides better dust and water resistance. A printed circuit board module is arranged in the receiving space and has a plurality of piercing terminals corresponding to the network cable. The wiring cover is provided with two partition plates and two distribution plates corresponding to the piercing terminals to temporarily fix the network cable, so that the in-situ assembly convenience is improved.This object is achieved by the multidirectional load cell of the invention used in the load cell system and installed on a wall panel or a junction box, comprising: a front shell having a rectangular shape and forming a socket at one end, a first hinge portion and a second hinge portion being provided at the rear end of the front shell, the first hinge portion and the second hinge portion being opposed to each other; a rear shell disposed at the other end of the front shell to form a receiving space, the socket communicating with the receiving space; a first rotating cover disposed on the first hinge portion and forming a cover portion at both sides, respectively, a threading hole being provided at the rear end of the first rotating cover close to the upper side; a flip cover hinged to one side of the threading hole so that the flip cover can be closed and opened relative to the threading hole; and a second rotating cover disposed on the second hinged portion and provided with a recess on both sides corresponding to each cover portion so that when the first rotating cover and the second rotating cover are closed relative to the front shell, each cover portion is just received in a recess to achieve shielding.Brief Description of the DrawingsFIG. 1 is an exploded view of the preferred embodiment of the invention, FIG. 2 is a perspective view after assembly of the preferred embodiment of the invention, FIG. 3 is a sectional view in the closed state of the preferred embodiment of the invention, FIG. 4 is an assembly diagram of the preferred embodiment of the invention (1), FIG. 5 is an assembly diagram of the preferred embodiment of the invention (2), FIG. 6 is an exploded view of another preferred embodiment of the invention, FIG. 7 is a sectional view in the closed state of the further preferred embodiment of the invention, FIG. 8 is an illustration of the wiring cover of the preferred embodiment of the invention (1), FIG. 9 is an illustration of the wiring cover of the preferred embodiment of the invention (2).WAYS OF CARRYING OUT THE INVENTIONIn order to clarify the content of the invention, the invention will be described below with reference to the drawings.FIGS. 1 to 3 and 4 to 5 are an exploded view, a perspective view after assembly, a sectional view in a closed state, and views of assembly of the preferred embodiment of the invention. As shown in the above figures, the multidirectional load cell 1 of the invention comprises a front shell 11, a rear shell 12, a circuit board module 13, a first rotating cover 14, a flip cover 15, a second rotating cover 16, and a wiring cover 17 used in a network system for installation on a wall board or a junction box.The front shell 11 is rectangular in shape and forms a bushing 111 at one end. A first hinge portion 112 and a second hinge portion 113 are provided at the rear end of the front shell 11, the first hinge portion 112 and the second hinge portion 113 being opposed to each other.The rear shell 12 is disposed at the other end of the front shell 11 to form a receiving space 121, and the socket 111 communicates with the receiving space 121.The printed circuit board module 13 is arranged in the receiving space 121 and has eight piercing terminals 131 corresponding to the eight wires 21 of the network cable 2. The piercing terminals 131 are spaced on two sides to form two symmetrical rows of four. Note that in this embodiment, the socket 111 corresponds to the network cable RJ45 and has eight elastic contacts corresponding to the piercing terminals 131.The first rotating cover 14 is disposed on the first hinge portion 112 and forms a cover portion 141 on both sides, respectively. A first hook 142 is provided between the first rotating cover 14 and at least one cover portion 141. A threading hole 143 is provided at the rear end of the first rotating cover 14 close to the upper side.The flip cover 15 is hinged to one side of the threading hole 143, so that the flip cover 15 can be closed and opened relative to the threading hole 143. In this embodiment, a hinge shaft 151 is provided at each of two sides of the flip cover 15 corresponding to the threading hole 143. A hinge hole 1431 is provided at each of two sides within the threading hole 143, so that the flip cover 15 is hinged in the threading hole 143.The second rotating cover 16 is disposed on the second hinge portion 113 and is provided with a recess 161 on both sides corresponding to each cover portion 141, so that when the first rotating cover 14 and the second rotating cover 16 are closed relative to the front shell, each cover portion 141 is just received in a recess 161 to achieve shielding. A second hook 162 is provided between the second rotating cover 16 and at least one recess 161, so that the first hook 142 and the second hook 162 are opposed to each other. In the engagement area of the first rotary cover 14 with the second rotary cover 16, a release guard is provided which prevents the first rotary cover 14 from being opened by incorrect operation. The release guard is composed of two inclined arms 144 on the first rotary cover 14 and two inclined surfaces 163 on the second rotary cover 16 Between the two inclined arms 144 and the two inclined surfaces 163, a stepped portion 164 for a slot screwdriver is formed into which the slot screwdriver can be inserted to open the first rotary cover 14. The first hook 142 and the second hook 162 serve to attach the ground wire 22 of the network cable 2.As shown in FIG. 8, the wiring cover 17 of the invention covers the rear shell 12. Two opposite sides of the wiring cover 17 corresponding to the piercing terminals 131 are respectively provided with a partition plate 171 and a distribution plate 172. A through groove 175 is formed inside the wiring cover 17 to connect the two opposite sides, so that the wires 21 can be inserted into the through groove 175 and respectively laid at the respective positions of the partition plate 171 and the distribution plate 172. After the wiring cover 17 is inserted into the accommodation space 121, each core 21 is connected to a piercing terminal 131 respectively to establish an electrical connection. Alternatively, as shown in FIG. 9, a reinforcing bridge 173 is provided on the other two opposite sides of the wiring cover 17, respectively. The reinforcing arc bridges 173 are disposed between the two partition plates 171, so that the reinforcing arc bridges 173 corresponding to the cores are divided into two portions. Four wires 21 are passed through the space formed by the reinforcing sheet bridge 173, and the other four wires 21 are passed through the space outside the reinforcing sheet bridge 173 and laid at the respective positions of the partition plate 171 and the distribution plate 172. After the wiring cover 17 is inserted into the accommodation space 121, each core 21 is connected to a piercing terminal 131 respectively to establish an electrical connection. Moreover, it is to be noted that the wiring cover plate 17 of the present invention is provided on the upper side with a plurality of pressing portions 174, and a plurality of arc-shaped pressing surfaces 145, 165 are provided at corresponding positions on the inner surfaces of the first rotating cover 14 and the second rotating cover 16, so that when the first rotating cover 14 and the second rotating cover 16 are closed inward, the arc-shaped pressing surfaces 145, 165 are used to press the pressing portions 174 and thus generate a force for pressing the wires 21 to realize fixation.FIGS. 6 and 7 show an exploded view and a sectional view in the closed state of a further preferred embodiment of the invention. As shown in the figures, a first hinge hole 152 is provided at both sides of the flip cover 15 corresponding to the threading hole 143. Inside the threading hole 143, a second hinge hole 1431 is provided on both sides, respectively. The hinged lid 15 is movably hinged in the threading hole 143 via a hinge axis 153. On the inside of the flip cover 15, a grounding portion 154 for mounting the grounding wire 22 is provided. The grounding portion 154 is made of a metal sheet having electrical conductivity or a metal coating.In summary, the multidirectional load cell 1 of the invention comprises the front shell 11, the rear shell 12, the circuit board module 13, the first rotating cover 14, the flip cover 15, the second rotating cover 16, and the wiring cover 17 which is installed on a wall board or in a junction box and serves to connect the network cable 2 of the network communication apparatus. The circuit board module 13 is disposed in the accommodation space 121 formed by assembling the front shell 11 and the rear shell 12. The wiring cover 17 is constructed such that, in use for a lateral cable exit, four wires 21 are passed through the space formed by the reinforcing arch bridge 173 and the other four wires 21 are passed through the space outside the reinforcing arch bridge 1173, and laid at the respective positions of the partition plate 171 and the distribution plate 172. Thereby, the network cable 2 is temporarily fixed. The operating personnel do not have to permanently re-adjust the positions of the wires 21 on site, whereby the assembly comfort on site is improved. Moreover, the connection of the first rotary cover 14 and the second rotary cover 16 prevents detachment and can be easily opened with hand tools. The design of the hinged lid 15, which can be closed and opened repeatedly, also offers the field worker more flexible adjustment space and provides better dust and water resistance.List of reference characters1 Multidirectional load cell 11 Front shell 111 Socket 112 First hinge portion 113 Second hinge portion 12 Rear shell 121 Accommodation space 13 Circuit board module 131 Piercing terminal 14 First rotating cover 141 Cover portion 142 First hook 143 Threading hole 1431 Second hinge hole 144 Inclined arm 145 Arc-shaped pressing surface 15 Hinged cover 151 Hinge axis 152 First hinge hole 153 Hinge axis 154 Grounding portion 16 Second rotating cover 161 Recess 162 Second hook 163 Inclined surface 164 Stepped portion 165 Arc-shaped pressing surface 17 Wiring cover 171 Partition plate 172 Partition plate 173 Reinforcing bridge 174 Pressing portion 175 Through groove 2 Network cable 21 Wire 22 Grounding wire

Claims

A multidirectional network box used in the network system and installed on a wall panel or a junction box (1), comprising a front shell (11) having a rectangular shape and forming a socket (111) at one end, wherein a first hinge portion (112) and a second hinge portion (113) are provided at the rear end of the front shell (11), the first hinge portion (112) and the second hinge portion (113) being opposed to each other; a rear shell (12) disposed at the other end of the front shell (11) to form a receiving space (121), the socket (111) communicating with the receiving space (121); a first rotating cover (14) disposed on the first hinge portion (112) and forming a cover portion (141) at both sides, wherein a threading hole (143) is provided at a rear end of the first rotating cover (14) close to the upper surface; a flip cover (15) hinged to one side of the threading hole (143) so that the flip cover (15) can be closed and opened relative to the threading hole (143); and a second rotating cover (16) disposed on the second hinge portion (113) and provided with a recess (161) on both sides corresponding to each cover portion (141), so that when the first rotating cover (14) and the second rotating cover (16) are closed relative to the front shell (11), each cover portion (141) is just received in a recess (161) to achieve shielding.Multidirectional network box according to claim 1, characterized bya printed circuit board module (13) which is arranged in the receiving space (121) and has eight piercing terminals (131) corresponding to the eight wires (21) of the network cable (2), wherein the piercing terminals (131) are arranged spaced apart on two sides and thus form two symmetrical rows of four each, and wherein the socket (111) corresponds to the network cable (RJ45) and has eight elastic contacts.Multidirectional network box according to claim 2, characterised in that in the engagement region of the first rotary cover (14) with the second rotary cover (16), a release guard is provided which prevents the first rotary cover (14) from opening due to incorrect operation.The multidirectional network box according to claim 3, characterized in that the release guard is composed of two inclined arms (144) on the first rotating cover (14) and two inclined surfaces (163) on the second rotating cover (16), and a stepped portion (164) for a slot screwdriver is formed between the two inclined arms (144) and the two inclined surfaces (163), into which the slot screwdriver can be inserted to open the first rotating cover (14).The multidirectional network box according to claim 4, characterized in that a first hook (142) is provided between the first rotating cover (14) and at least one cover portion (141), and a second hook (162) is provided between the second rotating cover (16) and at least one recess (161), wherein the first hook (142) and the second hook (162) are opposed to each other, and wherein the first hook (142) and the second hook (162) are for attaching the ground wire (22) of the network cable (2).The multidirectional network box according to claim 5, characterized bya wiring cover (17) covering the back shell (12), two opposite sides of the wiring cover (17) corresponding to the piercing terminals (131) are respectively provided with a partition plate (171) and a distribution plate (172), wherein inside the wiring cover (17), a through groove (175) is formed to connect the two opposite sides so that the wires (21) can be inserted into the through groove (175) and respectively laid at the respective positions of the partition plate (171) and the distribution plate (172), wherein after the wiring cover (17) is inserted into the accommodation space (121), each wire (21) is respectively connected to a piercing terminal (131) to establish an electrical connection.The multidirectional network box according to claim 6, characterized in that the wiring cover plate (17) is provided on the upper side with a plurality of pressing portions (174), and a plurality of arc-shaped pressing surfaces (145, 165) are provided at corresponding positions on the inner surfaces of the first rotating cover (14) and the second rotating cover (16), so that when the first rotating cover (14) and the second rotating cover (16) are closed inward, the arc-shaped pressing surfaces (145, 165) are used to press the pressing portions (174) and thus generate a force for pressing the cores (21) to realize fixation.The multidirectional network box according to claim 2, characterized bya wiring cover (17) covering the back shell (12), two opposite sides of the wiring cover (17) corresponding to the piercing terminals (131) being provided with a partition plate (171) and a distribution plate (172), respectively, one reinforcing arc bridge (173) being provided on the other two opposite sides of the wiring cover (17), the reinforcing arc bridges (173) corresponding to the wires being divided into two portions, four wires (21) being passed through the space formed by the reinforcing arc bridge (173) and the other four wires (21) being passed through the space outside the reinforcing arc bridge (173) and being laid at the corresponding positions of the partition plate (171) and the distribution plate (172), respectively, wherein, after the wiring cover (17) is inserted into the receiving space (121), each core (21) is connected to a piercing terminal (131), respectively, to make an electrical connection.The multidirectional network box according to claim 8, characterized in that the wiring cover plate (17) is provided on the upper side with a plurality of pressing portions (174), and a plurality of arc-shaped pressing surfaces (145, 165) are provided at corresponding positions on the inner surfaces of the first rotating cover (14) and the second rotating cover (16), so that when the first rotating cover (14) and the second rotating cover (16) are closed inward, the arc-shaped pressing surfaces (145, 165) are used to press the pressing portions (174) and thus generate a force for pressing the cores (21) to realize fixation.Multidirectional network box according to claim 2, characterized in that a hinge axis (151) is provided on each of two sides of the hinged lid (15) corresponding to the threading hole (143), and a hinge hole (1431) is provided on each of two sides within the threading hole (143), so that the hinged lid (15) is hinged in the threading hole (143).Multidirectional network box according to claim 2, characterised in that a first hinge hole (152) is provided on each of the two sides of the hinged lid (15) corresponding to the threading hole (143), and a second hinge hole (1431) is provided within the threading hole (143) on each of the two sides, wherein the hinged lid (15) is articulated movably in the threading hole (143) via a hinge axis (153).The multidirectional load cell according to claim 11, characterized in that on the inside of the flip cover (15), a grounding portion (154) for mounting the grounding wire (22) is provided.The multidirectional network box according to claim 12, characterized in that the grounding portion (154) is made of a metal sheet having electric conductivity or a metal coating.