Power supply / electrical signal distribution device
By using a combination of elongated conductors and elastic conductive elements in the power distribution device, a thinner and safer power distribution device is achieved, solving the problems of large thickness, complex assembly and inconsistent grounding, and improving the performance and safety of the equipment.
Patent Information
- Application Number
- CN201810260912.0
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2018-03-28
- Publication Date
- 2025-04-25
- Estimated Expiration
- 2038-03-28
AI Technical Summary
The existing power distribution devices are large in thickness, complex in assembly and high in cost, and inconsistent grounding paths lead to ground failure and static charge accumulation.
A conduit including at least one elongated conductor is adopted, and a plurality of elastic conductive elements are provided through which the elastic conductive elements are electrically connected to the ground wire of the power supply and/or signal source, and electrically connected to the conductor through a connector to achieve a modular grounding method.
The assembly process is simplified, the part cost is reduced, the equipment becomes thinner and safer, the performance is significantly improved, and the grounding problem is effectively solved, avoiding static charge accumulation.
Smart Images

Figure CN110323641B_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to an improvement of a power supply and / or electric signal distribution device, and in particular to a device capable of providing power to a power socket and being suitable for the distribution of various electric signals, whether strong or weak. Background Art
[0002] Conventional power distribution systems in home and commercial environments provide power sockets with power outlets installed in wall cavities or surfaces at predetermined locations. The locations of such power sockets need to be selected in advance, and often subsequent requirements mean that the power sockets are installed in the wrong location and / or in insufficient quantity.
[0003] Invention patent CN200480028278.4 solves the above problems as an alternative to traditional systems. However, the thickness of the device is limited by the conductive elements, which restricts the installation of the device into office furniture. In addition, the complex assembly process incurs additional costs. Finally, the grounding path is inconsistent, which can cause grounding failure and / or static charge accumulation.
[0004] The present invention is an improvement on CN200480028278.4-Power distribution device. It involves improvements in grounding methods, elastic conductive elements, etc., so that a thinner and safer device can be developed, and the connector is also improved. The advantages of the present invention are simplified assembly, improved grounding methods, reduced parts costs, thin and light equipment, and significantly improved performance. Summary of the invention
[0005] According to one aspect of the present invention, a catheter comprises at least one elongated conductor, one end of the catheter has a power source and / or signal source access device, the catheter has an opening, a connector can be inserted into the opening and electrically connected to the at least one conductor;
[0006] A plurality of elastic conductive elements are arranged between the opening and the at least one conductor, the plurality of elastic conductive elements are electrically connected together and electrically connected to the ground line of the power source and / or signal source, at least one of the plurality of elastic conductive elements is arranged to be electrically connected to the ground line of the connector, and each elastic conductive element is supported separately and can be replaced by one of the connectors to provide a path to the at least one conductor.
[0007] Since the elastic conductive elements are supported separately, each elastic conductive element can be replaced individually by a connector, thereby providing a modular elastic conductive element, thereby achieving simpler assembly and replacement.
[0008] Preferably, the device further improves the structure of the elastic conductive element, which is an integrated structure that does not require assembly and can be completely manufactured by conventional methods (such as progressive stamping).
[0009] Preferably, the elastic conductive element directly forms a ground connector, even when it is not in operation. When the conduit is made of conductive material, it acts as an EMI shield. The elastic conductive element is in direct contact with the ground plane, and excess charge accumulation can be dissipated. In contrast, existing products have a possible charge accumulation causing electrostatic discharge. One side leg of each elastic conductive element is connected to an elongated conductor connected to the conduit to form a ground connector; if the conduit is made of conductive material, the elongated conductor is electrically connected to the conduit, or the conduit itself is directly electrically connected to one side leg of the elastic conductive element.
[0010] Preferably, the plurality of elastic conductive elements are separated from each other, and one connector only presses down one elastic conductive element; however, the elastic conductive elements are electrically connected.
[0011] The side legs of the elastic conductive element also include abutments to prevent the elastic conductive elements from overlapping when connected in series.
[0012] The improved structure allows the elastic conductive element to be completely flattened after being compressed, saving a lot of space, while improving the performance of the equipment and greatly reducing the thickness. The side legs of the elastic conductive element are arched, and each side leg has multiple bends, which are used to maintain the shape of the elastic conductive element, the correct deformation direction when compressed, and provide contact pressure. The two bends close to the adjacent surface help to reduce the length of the adjacent surface. When the adjacent surface is pressed down, the two bends act in series to ensure that the adjacent surface can be completely flat and in contact with the bottom surface of the catheter; the bends at the waist of the side leg ensure that the deformation direction of the elastic conductive element is accurate when it is compressed and increase the contact pressure; the two bends at the foot and the flat part are used for the sliding surface between the catheter grounding part.
[0013] The power and / or signal source access device includes a terminator and a terminator clamp, wherein the terminator clamp has a hollow portion to allow a capture function of the terminator clamp to latch onto the terminator.
[0014] The terminator comprises at least one electric conductor and a ground conductor, a shell, an insulator and a wire anchor; the ends of the electric conductor and the ground conductor are elastic bodies, preferably U-shaped elastic bodies, which increase contact pressure and reduce contact resistance.
[0015] Preferably, the electrical conductor of the terminator directly contacts the elongated conductor in the conduit with contact pressure to reduce contact resistance.
[0016] The terminal fixture includes a ground conductor chain, a shell, a fastener and a hollow part; the ground conductor chain is elastic, and uses the side wall of the hollow part as a fulcrum to electrically connect the ground conductor and the elastic conductive element of the terminal; the conductive fastener is mechanically connected to the conduit, which can play a backup grounding role; it is safer.
[0017] The catheter also has a plurality of grooves for installing an elongated conductor, a power source and / or a signal source access device, an elastic conductive element, etc. BRIEF DESCRIPTION OF THE DRAWINGS
[0018] Embodiments of the present invention will be described by way of example with reference to the accompanying drawings, in which:
[0019] Figure 1 is an overall view of a first embodiment of the present invention;
[0020] Figure 2 yes Figure 1 an exploded, enlarged view of the illustrated embodiment;
[0021] Figure 3 It is a connection diagram between the terminator and the terminator fixture;
[0022] Figure 4 yes Figure 3 A component diagram of the terminal shown;
[0023] Figure 5 yes Figure 3 A perspective view of the internal structure of the terminal after assembly;
[0024] Figure 6 yes Figure 3 An assembly diagram of the terminator fixture shown;
[0025] FIG7 is a cross-sectional view of an elastic conductive element;
[0026] Fig. 8 is an isometric view of a resilient conductive element;
[0027] 9 to 14 are detailed exploded enlarged views of the elastic conductive element shown in FIG. 8 ;
[0028] Fig.15 It is a schematic diagram of the ground connector at the power point;
[0029] Fig.16 is a cross-sectional view of the elastic conductive element in a completely flat configuration;
[0030] Fig.17 is a cross-sectional view of a fully flattened configuration of a resilient conductive element in a power / electrical signal distribution device;
[0031] Fig.18 is a cross-sectional view of an elastic conductive element in a power / electrical signal distribution device when pressure is completely released;
[0032] Fig.19 is a schematic diagram illustrating the bending effect of the middle portion of the elastic conductive element;
[0033] Fig. 20 , Fig.21 It is a schematic diagram illustrating the effect of the abutment in preventing the elastic conductive elements from overlapping when they are connected in the middle.
[0034] Fig. 22 This is a schematic diagram of the conduit groove. DETAILED DESCRIPTION
[0035] Figure 1 Figure 2 An embodiment of a power / electrical signal distribution device is shown. This embodiment is composed of live and neutral conductors "300" (FIG. 2), insulation "400" (FIG. 2), ground conductor "14" (FIG. 2), elastic conductive element "12" (FIG. 1), a housing "36" (FIG. 1), a power entry terminator "100" (FIG. 1) and a terminator clamp "200" (FIG. 1). In addition, the housing "36" also has a groove for mounting purposes.
[0036] Figure 7 shows an example of this usage.
[0037] Figure 3 A connection method between a terminator "100" and a terminator fixture "200" is illustrated. A hollow portion "101" is present to allow a capture feature "201" of the terminal fixture to latch onto the terminator.
[0038] Figure 4 The components of a terminator "100" are shown. The terminator includes a hot conductor "102", a neutral conductor "104" and a ground conductor "106", a housing "109", an insulator "111" and a wire anchor "110". The U-shaped features "103" and "105" press against a surface "112" (Figure 5) and act as a spring to apply contact pressure. When in contact with "202", the ground contact "107" is bent to apply contact pressure. The fastener "108" is mechanically connected to "36".
[0039] Figure 5 The internal structure of the terminator "100" after assembly is shown.
[0040] Figure 6The components of a terminator anchor "200" are shown. It consists of a ground conductor link "202", a housing "204" and a fastener "205". The ground conductor link "202" is coupled to a hollow portion "203", "203" also serving as a fulcrum, allowing "202" to bend elastically when tightly coupled to "107". The fastener "205" is mechanically connected to the rail "36" and serves as an alternative grounding path.
[0041] Compared with the terminal fixture of the prior art, one of the major improvements of the present invention is that "102" and "104" directly contact the track conductor "300", which can reduce the contact resistance and thus reduce the heat generation. The grounding of the housing (Figure 21) in the present invention is more consistent and safe. The housing of the prior art product is finely processed, which will cause the housing grounding to be weak. In contrast, the grounding of the present invention is not only through the elastic grounding element, but also through the fastener "205", which provides additional safety assurance.
[0042] Figures 7 and 8 show embodiments of elastic conductive elements. Figure 7 shows a cross-sectional view of an elastic conductive element. The elastic conductive element can be made of any work-hardened conductive material, such as stainless steel. Figure 8 shows a series structure of multiple elastic conductive elements.
[0043] In Figure 7, each elastic conductive element is composed of a single piece of material with its bend located at a specific position.
[0044] Figures 9 to 13 illustrate the bend and its purpose. In Figure 9, "1" depicts a contact surface where a power point grounding connector connects the grounding member to a standard plug specific to each country. Preferably, the power point grounding connector is a dome-shaped conductive member surrounded by an insulating material, such as Fig.15 , as shown in item "20". The contact surface "1" must remain rigid during operation to ensure good contact.
[0045] "1" is reinforced by bends "2" and "3" in Figure 8. Bend "2" helps to reduce the length of the beam in "1", thereby reducing the deflection when a downward force is applied to this surface. Bend "3" is used to resist the force applied by bend "2" and correct the geometric changes caused by bend "2". The two bends "2" and "3" act in tandem to ensure that surface "1" can be completely flat with surface "10" (Figure 11). Fig.16The spring is shown in a fully flattened configuration. Bends "5" and "7" in Figure 13 also act in series to allow the spring to flatten while retaining the original geometry shown in Figure 7. Thus, "5" and "7" provide the necessary contact pressure for low resistance contact between the ground spring and the power point ground connector "20" (Figure 15).
[0046] Fig.17 The flattening of springs in power / electrical signal distribution devices is described, and Fig.18 The spring configuration when pressure is released is illustrated.
[0047] Bend "6" in FIG. 13 bends outward from cavity "11" in FIG. 7 to prevent the spring portion from collapsing from below. In addition, bend "6" increases bend "7", surface "10" and conductor "14" Fig.18 The contact pressure between them.
[0048] When the grounding spring is in operation, the bends "7" and "8" in Figure 11 serve as sliding surfaces between "14". The bend "8" also reduces the torsion experienced by the link "4" Figure 14 when the grounding spring is flattened or returns to its original shape. The abutment "9" in Figure 12 is to prevent the grounding springs in Figure 8 from overlapping when connected in series, such as Fig. 20 and 21 shown.
[0049] Bend "21" prevents the ground spring from hooking onto adjacent springs during operation.
Claims
1. A power supply / electrical signal distribution device, comprising: A catheter comprising at least one elongated conductor, one end of the catheter having a power source and / or an electrical signal source access device, the catheter having an opening, a connector capable of being inserted into the opening and electrically connected to the at least one conductor; a plurality of elastic conductive elements disposed between the opening and the at least one conductor, the plurality of elastic conductive elements being electrically connected together and electrically connected to a ground line of a power source and / or a signal source, at least one of the plurality of elastic conductive elements being arranged to be electrically connected to a ground line of the connector, each elastic conductive element being supported separately and replaceable by one of the connectors to provide a path to the at least one conductor; The elastic conductive elements are made of an electrically conductive elastic material, each of the elastic conductive elements comprises a contact surface and two side legs extending from the contact surface, the side legs elastically supporting the adjacent surface; The side legs are arched, and each side leg has a plurality of curved parts, which are used to maintain the shape of the elastic conductive element, the correct deformation direction when under pressure, and provide contact pressure. The two curved parts close to the adjacent surface help to reduce the length of the adjacent surface. When the adjacent surface is pressed down, the two curved parts act in series to ensure that the adjacent surface can be completely flat and in contact with the bottom surface of the catheter; the curved part of the waist of the side leg ensures that the deformation direction of the elastic conductive element is accurate when under pressure and increases the contact pressure; the two curved parts of the foot and the flat part are used as the sliding surface between the catheter grounding part; The power source and / or signal source access device includes a terminator and a terminator fixture, wherein the terminator fixture includes a ground conductor link, a housing, a fastener and a hollow portion; the ground conductor link is elastic, and uses the side wall of the hollow portion as a fulcrum to electrically connect the ground conductor of the terminator and the elastic conductive element; The conductive fastener is mechanically connected to the conduit to serve as a backup ground; the hollow portion is used to allow the capture function of the terminator clamp to latch onto the terminator; The terminator includes at least one electric conductor and a ground conductor, a shell, an insulator and a wire anchor; the electric conductor directly contacts the elongated conductor in the conduit; the ends of the electric conductor and the ground conductor are elastic, which increases the contact pressure and reduces the contact resistance; the electric conductor contains a U-shaped feature as a spring to exert contact pressure with the elongated conductor in the conduit.
2. The power / electrical signal distribution device according to claim 1, wherein an elastic conductive element closes the opening.
3. The power / electrical signal distribution device according to claim 1, wherein the plurality of elastic conductive elements are spaced apart from each other.
4. The power / electrical signal distribution device according to claim 1, wherein one side leg of each elastic conductive element is connected to an elongated conductive body connected to the conduit to form a ground connector.
5. The power / electrical signal distribution device according to claim 4, wherein the conduit is made of a conductive material, the conductor is electrically connected to the conduit, or the conduit itself directly serves as a conductor to electrically connect the side legs of the elastic conductive element.
6. The power / electrical signal distribution device according to claim 1, wherein the side legs further include abutments to prevent overlapping when connected in series.
7. According to the power supply / electrical signal distribution device of claim 1, the conduit also has a plurality of grooves for installing an elongated conductor, a power supply and / or signal source access device, and an elastic conductive element.
Citation Information
Patent Citations
Electrical power distribution apparatus
CN1860651B
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CN106099573A
Electric power rail module
CN203387015U
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CN208368887U