Conductive member

Abstract

The utility model provides a conductive member capable of being matched with a butt joint member. The conductive member comprises a wall guiding structure, a wall supporting structure and an elastic arm abutting structure. The wall body guiding structure and the wall body supporting structure can provide guiding and supporting for the inclined butt-joint component, so that the inclination degree of the butt-joint component is reduced, and the butt-joint component can be aligned with the conductive component. The elastic arm abutting structure can adapt to the shape stress deformation of the butt joint component so as to ensure that the elastic arm abutting structure can abut against the butt joint component under the condition that the butt joint component is not excessively interfered, so that the conductive component can not excessively interfere with butt joint of the butt joint component, and the butt joint component can be smoothly in butt joint with the conductive component. Therefore, the conductive member can be miniaturized, and the reliability can be greatly improved.

Description

Technical Field

[0001] The utility model relates to a conductive component, in particular to a conductive component which can enable butt joint components to be butt jointed smoothly and improve reliability. Background Art

[0002] According to the invention, the conductive member and its docking member can be used to transmit electrical signals and are indispensable components in electronic products. It should be noted that the docking member can dock with the conductive member. Accordingly, the conductive member includes a contact structure, and when the docking member docks with the conductive member, the contact structure can abut the docking member, so that the conductive member and the docking member are electrically connected to transmit electrical signals. However, due to the trend of electronic products to be thin and light, the conductive member and its docking member are required to be miniaturized, which makes it difficult for the docking member to align with the conductive member when docking with the conductive member, and makes it easy for the conductive member to interfere with the docking of the docking member, so that the docking member cannot dock with the conductive member smoothly, or the contact structure of the conductive member cannot abut the docking member as expected. What's more, in order to overcome the interference of the conductive member, the docking member may force the conductive member to deform unexpectedly, thereby affecting the reliability of the conductive member transmitting the signal, resulting in poor operation or even damage of the electronic product using the conductive member. Therefore, whether the contact structure of the conductive member can actually abut the docking member is an important indicator for evaluating the reliability of the conductive member.

[0003] In view of this, how to provide a conductive component to solve the problem that the existing miniaturized conductive components easily interfere with the docking of docking components and fail to abut the docking components as expected, thereby improving the reliability of the conductive component has become a technical issue that the industry is eager to challenge and overcome. Summary of the invention

[0004] In view of the above-mentioned technical shortcomings of the prior art, the utility model provides a conductive component for matching with a docking component, the conductive component comprising: a component body, the component body comprising a main wall side, a main elastic arm side and a body docking space, the main elastic arm side and the main wall side are located on two opposite sides of the body docking space in a main direction; a component main wall, the component main wall is connected to the component body, and the component main wall comprises a main wall guide structure and a main wall support structure, the main wall guide structure and the main wall support structure respectively extend from the main wall side into the body docking space, the main wall guide structure provides For guiding the docking component to enter the main body docking space, and the main wall support structure provides support for the docking component entering the main body docking space, so that the position of the docking component in the main direction in the docking space of the main body is a main direction docking position; and a component main direction elastic arm, the component main direction elastic arm is connected to the component body, and the component main direction elastic arm includes a main direction elastic arm abutment structure, the main direction elastic arm abutment structure extends into the main body docking space at the side of the main direction elastic arm, and can elastically abut the docking component located in the main body docking space and at the main direction docking position, so as to achieve the docking of the component body and the docking component.

[0005] Preferably, in the conductive component of the present invention, in terms of structural strength, the main wall supporting structure is larger than the main elastic arm abutting structure, so that when the main elastic arm abutting structure elastically abuts against the docking component, the main wall supporting structure can provide support for the docking component.

[0006] Preferably, in the conductive component of the present invention, the main wall of the component also includes a main wall protrusion structure, which extends from the main wall side into the main body docking space, wherein the main wall guide structure is a sloped structure on the main wall protrusion structure, and the main wall support structure is located at the top of the main wall protrusion structure.

[0007] Preferably, in the conductive component of the present invention, the component body further includes a first wall side and a second wall side, and the first wall side and the second wall side are located on opposite sides of the main body docking space in the first upward direction; the conductive component further includes: a first component secondary wall, the first component secondary wall is connected to the component body, and the first component secondary wall includes a first wall guide structure and a first wall support structure, the first wall guide structure and the first wall support structure extend into the main body docking space at the first wall side respectively, and the first wall guide structure provides guidance for the docking component to enter the main body docking space; and a second component secondary wall, the second component secondary wall is connected to the component body, and The secondary wall of the second component includes a secondary wall guide structure and a secondary wall support structure, the secondary wall guide structure and the secondary wall support structure respectively extend from the side of the second wall into the main body docking space, and the second wall guide structure provides guidance for the docking component to enter the main body docking space; wherein, the first wall support structure and the second wall support structure respectively provide support for the docking component entering the main body docking space, so that the docking component in the main body docking space at the secondary upward position is the primary docking position; and the main direction elastic arm abutment structure can elastically abut the docking component located in the main body docking space and at the secondary direction docking position, so as to achieve the docking between the component body and the docking component.

[0008] Preferably, in the conductive component of the present invention, the main direction docking position and the secondary direction docking position substantially overlap.

[0009] Preferably, in the conductive component of the present invention, the secondary wall of the first component also includes at least one first wall protrusion structure, the first wall protrusion structure extends from the first wall side into the main body docking space, wherein the first wall guide structure is a sloped structure on the first wall protrusion structure, and the first wall support structure is located at the top of the first wall protrusion structure; and the secondary wall of the second component also includes at least one second wall protrusion structure, the second wall protrusion structure extends from the second wall side into the main body docking space, wherein the second wall guide structure is a sloped structure on the second wall protrusion structure, and the second wall support structure is located at the top of the second wall protrusion structure.

[0010] Preferably, in the conductive component of the present invention, the first protrusion structure toward the wall is a plurality of first protrusion structures toward the wall that are separately arranged; and the second protrusion structure toward the wall is a plurality of second protrusion structures toward the wall that are separately arranged.

[0011] Preferably, in the conductive component of the present invention, the conductive component also includes a first directional electrostatic discharge structure and a second directional electrostatic discharge structure: the first directional electrostatic discharge structure and the second directional electrostatic discharge structure are respectively arranged on the first component secondary wall and the second component secondary wall to provide contact with the docking component and provide electrostatic discharge for the docking component.

[0012] Preferably, the conductive component of the present invention further includes: a component front end guide frame, the component front end guide frame is located at the front end of the component body, and the component front end guide frame includes a guide frame main wall, a first guide frame secondary wall, a second guide frame secondary wall and a guide frame docking channel, wherein the guide frame main wall, the first guide frame secondary wall and the second guide frame secondary wall respectively guide the docking component into the body docking space via the guide frame docking channel; the guide frame main wall is connected to the component main wall, so that the guide frame main wall can guide the docking component to approach the component main wall; the first guide frame secondary wall is connected to the first component secondary wall, so that the first guide frame secondary wall can guide the docking component to approach the first component secondary wall; and the second guide frame secondary wall is connected to the second component secondary wall, so that the second guide frame secondary wall can guide the docking component to approach the second component secondary wall.

[0013] Preferably, in the conductive component of the present invention, the front end guide frame of the component also includes a guide frame connecting wall, and the guide frame connecting wall connects the first guide frame secondary direction wall and the second guide frame secondary direction wall to define the relative position relationship between the first guide frame secondary direction wall and the second guide frame secondary direction wall in the secondary direction, so that the first guide frame secondary direction wall and the second guide frame secondary direction wall are located on opposite sides of the guide frame docking channel in the secondary direction.

[0014] Preferably, in the conductive component of the present invention, the first guide frame secondary direction wall and the second guide frame secondary direction wall are respectively connected to the guide frame connecting wall and the guide frame main direction wall to define the relative position relationship between the guide frame connecting wall and the guide frame main direction wall in the main direction, so that the guide frame connecting wall and the guide frame main direction wall are located on opposite sides of the guide frame docking channel in the main direction.

[0015] Preferably, in the conductive component of the present invention, the conductive component also includes a first directional electrostatic discharge structure and a second directional electrostatic discharge structure: the first directional electrostatic discharge structure and the second directional electrostatic discharge structure are respectively arranged on the first guide frame secondary wall and the second guide frame secondary wall to provide contact with the docking component and provide electrostatic discharge for the docking component.

[0016] Compared with the prior art, the conductive component of the present invention includes a wall guide structure, a wall support structure and an elastic arm abutment structure. The wall guide structure and the wall support structure can provide guidance and support for the inclined docking component respectively, thereby reducing the degree of inclination of the docking component, so that the docking component can be aligned with the conductive component. The elastic arm abutment structure can adapt to the deformation of the shape of the docking component under stress, so as to ensure that the elastic arm abutment structure can abut the docking component without excessively interfering with the docking component, so that the conductive component can not excessively interfere with the docking of the docking component, so that the docking component can smoothly dock with the conductive component, so that the conductive component of the present invention can be miniaturized and the reliability can be greatly improved, so that the reliability of the electrical connector provided with the conductive component of the present invention meets expectations. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] The above and other aspects, features and other advantages of the present invention will be more clearly understood through the following drawings in combination with the description of the embodiments.

[0018] Figure 1 It is a three-dimensional schematic diagram of a conductive component of the utility model at a first viewing angle of an embodiment.

[0019] Figure 2 It is a three-dimensional schematic diagram of a conductive component of the utility model in a second viewing angle of an embodiment.

[0020] Figure 3 The diagram shows a front view of some components of an embodiment of a conductive component of the present invention.

[0021] Figure 4 The diagram shows a front view of some components of an embodiment of the conductive component of the present invention.

[0022] Figure 5 Display as Figure 4 The schematic cross-sectional view of a portion of the conductive component shown is taken along line segment AA.

[0023] Figure 6 Display as Figure 4 The schematic cross-sectional view of a portion of the conductive component shown is taken along line segment BB.

[0024] Figure 7 The diagram shows a side view of a part of the conductive component of the present invention.

[0025] Figure 8 The diagram shows a top view of a portion of components of an embodiment of the conductive component of the present invention.

[0026] Fig. 9 It is a three-dimensional schematic diagram of a conductive component of the utility model at a first viewing angle of an embodiment.

[0027] Fig.10 It is a three-dimensional schematic diagram of a conductive component of the utility model in a second viewing angle of an embodiment.

[0028] Fig.11 The diagram shows a front view of some components of an embodiment of the conductive component of the present invention.

[0029] Fig.12 Display as Fig.11 The schematic cross-sectional view of a portion of the conductive component shown is taken along line segment CC.

[0030] Fig.13 Display as Fig.11 The schematic cross-sectional view of a portion of the conductive member shown is taken along line segment DD.

[0031] Component number description

[0032] 1 Conductive components

[0033] 11 Component body

[0034] 110 Body docking space

[0035] 12 Component main wall

[0036] 121 Main wall guide structure

[0037] 122 Main wall support structure

[0038] 123 Main wall protrusion structure

[0039] 13 Main elastic arm of component

[0040] 131 Main elastic arm abutment structure

[0041] 14 The first component is secondary to the wall

[0042] 141 First guide structure to the wall

[0043] 142 First support structure to the wall

[0044] 143 The first protrusion of the structure towards the wall

[0045] 15 Second component secondary to wall

[0046] 151 Second guide structure to the wall

[0047] 152 Second support structure to the wall

[0048] 153 The second protrusion structure towards the wall

[0049] 161 First electrostatic discharge structure

[0050] 162 Second electrostatic discharge structure

[0051] 17 Component front guide frame

[0052] 170 Guide frame docking channel

[0053] 171 Guide frame to the main wall

[0054] 172 First guide frame to the wall

[0055] 173 Second guide frame to the wall

[0056] 174 Guide frame connected to wall

[0057] 2 Docking components

[0058] S11 Main wall side

[0059] S12 Main spring arm side

[0060] S21 First time to the wall

[0061] S22 Second time to the wall

[0062] DV Main

[0063] HV secondary

[0064] DVP main docking position

[0065] DHP secondary docking position DETAILED DESCRIPTION

[0066] The following content will be accompanied by drawings to illustrate the technical content of the utility model through specific embodiments. People familiar with this technology can easily understand other advantages and functions of the utility model from the content disclosed in this specification. The utility model can be implemented or applied through other different specific embodiments. The details in this specification can be modified and changed in various ways based on different viewpoints and applications without departing from the spirit of the utility model. In particular, the proportional relationship and relative position of each component in the drawings are only for exemplary purposes and do not represent the actual situation of the implementation of the utility model.

[0067] For the description of the embodiments disclosed in this utility model, please refer to Figures 1 to 13 .

[0068] The utility model provides a conductive component that can be used with a docking component to transmit signals in an electronic product. Specifically, the conductive component can be arranged in an electrical connector, and the docking component can be inserted into the electrical connector to electrically connect the conductive component. It should be noted that the docking component can be a component in the form of a conductive terminal or an electrical connector.

[0069] In this utility model Figures 1 to 13 In the illustrated embodiment, the conductive member 1 is used to match the docking member 2, and the conductive member 1 includes: a member body 11, a member main wall 12, a member main elastic arm 13, a first member secondary wall 14, a second member secondary wall 15, and a member front end guide frame 17. The member body 11 includes a main wall side S11, a main elastic arm side S12, a first wall side S21, a second wall side S22, and a body docking space 110. The main elastic arm side S12 and the main wall side S11 are located on opposite sides of the body docking space 110 in the main direction DV. The first wall side S21 and the second wall side S22 are located on opposite sides of the body docking space 110 in the secondary direction HV.

[0070] The component front end guide frame 17 is located at the front end of the component body 11 , and the component front end guide frame 17 includes a guide frame main wall 171 , a first guide frame secondary wall 172 , a second guide frame secondary wall 173 , a guide frame connecting wall 174 and a guide frame docking channel 170 .

[0071] It should be noted that, in the above embodiment, the guide frame main wall 171, the first guide frame secondary wall 172 and the second guide frame secondary wall 173 can respectively guide the docking component 2 to enter the main body docking space 110 through the guide frame docking channel 170. In addition, the guide frame main wall 171 is connected to the component main wall 12, so that the guide frame main wall 171 can guide the docking component 2 to approach the component main wall 12; the first guide frame secondary wall 172 is connected to the first component secondary wall 14, so that the first guide frame secondary wall 172 can guide the docking component 2 to approach the first component secondary wall 14; and the second guide frame secondary wall 173 is connected to the second component secondary wall 15, so that the second guide frame secondary wall 173 can guide the docking component 2 to approach the second component secondary wall 15.

[0072] The guide frame connecting wall 174 connects the first guide frame secondary wall 172 and the second guide frame secondary wall 173 to define the relative position relationship between the first guide frame secondary wall 172 and the second guide frame secondary wall 173 on the secondary direction HV, so that the first guide frame secondary wall 172 and the second guide frame secondary wall 173 are located on opposite sides of the guide frame docking channel 170 on the secondary direction HV.

[0073] In addition, the first guide frame secondary wall 172 and the second guide frame secondary wall 173 are respectively connected to the guide frame connecting wall 174 and the guide frame main wall 171 to define the relative position relationship between the guide frame connecting wall 174 and the guide frame main wall 171 on the main direction DV, so that the guide frame connecting wall 174 and the guide frame main wall 171 are located on the opposite sides of the guide frame docking channel 170 on the main direction DV.

[0074] The main wall 12 of the component is connected to the component body 11, and the main wall 12 of the component includes a main wall guide structure 121, a main wall support structure 122 and a main wall protrusion structure 123. In the above embodiment, the main wall protrusion structure 123 extends into the body docking space 110 at the main wall side S11, the main wall guide structure 121 is a slope structure on the main wall protrusion structure 123, and the main wall support structure 122 is located at the top of the main wall protrusion structure 123, that is, the main wall guide structure 121 and the main wall support structure 122 extend into the body docking space 110 at the main wall side S11 respectively. The main wall guide structure 121 provides guidance for the docking component 2 to enter the main body docking space 110, while the main wall support structure 122 provides support for the docking component 2 entering the main body docking space 110, so that the position of the docking component 2 in the main body docking space 110 on the main direction DV is the main direction docking position DVP.

[0075] Therefore, if the docking component 2 is improperly tilted and cannot be aligned with the conductive component 1, the main wall guide structure 121 can provide guidance for the improperly tilted docking component 2, and the main wall support structure 122 can provide support for the improperly tilted docking component 2, thereby reducing the degree of inclination of the docking component 2, so that the docking component 2 can be aligned with the conductive component 1, so that the conductive component 1 will not excessively interfere with the docking of the docking component 2, and the docking component 2 can be smoothly docked with the conductive component 1, so that the conductive component 1 of the utility model can be miniaturized and the reliability can be greatly improved, thereby making the reliability of the electrical connector provided with the conductive component 1 of the utility model meet expectations.

[0076] The main elastic arm 13 of the component is connected to the component body 11, and the main elastic arm 13 of the component includes a main elastic arm abutting structure 131. In the above embodiment, the main elastic arm abutting structure 131 extends into the body docking space 110 at the main elastic arm side S12, and can elastically abut the docking component 2 located in the body docking space 110 and at the main docking position DVP, so as to achieve docking between the component body 11 and the docking component 2, and make the component body 11 and the docking component 2 electrically connected.

[0077] It should be noted that when the main elastic arm abutting structure 131 elastically abuts against the docking member 2 and is subjected to force, the main elastic arm abutting structure 131 can adapt to the deformation of the body of the docking member 2 under force, so as to ensure that the main elastic arm abutting structure 131 can abut against the docking member 2 without excessively interfering with the docking member 2. Therefore, the abutting structure of the conductive member 1 of the utility model can abut against the docking member 2 as expected, so that the reliability of the conductive member 1 is greatly increased and meets expectations.

[0078] In addition, in terms of structural strength, the main wall support structure 122 is larger than the main elastic arm abutment structure 131 , so that when the main elastic arm abutment structure 131 elastically abuts against the docking member 2 , the main wall support structure 122 can provide support for the docking member 2 .

[0079] In the above embodiment, the main wall 12 of the component includes a main wall protrusion structure 123, but it is not limited to this. It does not exclude that the main wall 12 of the component includes a plurality of separately arranged main wall protrusion structures 123, so that the main wall protrusion structure 123 can guide the docking component 2 into the main body docking space 110 at multiple positions, and also enable the main wall protrusion structure 123 to provide support for the docking component 2 located in the main body docking space 110 at multiple positions.

[0080] The first component secondary wall 14 is connected to the component body 11, and the first component secondary wall 14 includes a first directional wall guide structure 141, a first directional wall support structure 142 and a first directional wall protrusion structure 143. In the above embodiment, the first directional wall protrusion structure 143 extends into the body docking space 110 at the first directional wall side S21, the first directional wall guide structure 141 is a slope structure on the first directional wall protrusion structure 143, and the first directional wall support structure 142 is located at the top of the first directional wall protrusion structure 143, that is, the first directional wall guide structure 141 and the first directional wall support structure 142 extend into the body docking space 110 at the first directional wall side S21 respectively. The first directional wall guide structure 141 provides guidance for the docking component 2 to enter the body docking space 110.

[0081] The second component secondary wall 15 is connected to the component body 11, and the second component secondary wall 15 includes a secondary wall guiding structure 151, a secondary wall supporting structure 152 and a secondary wall protruding structure 153. In the above embodiment, the secondary wall protruding structure 153 extends into the body docking space 110 at the secondary wall side S22, the secondary wall guiding structure 151 is a slope-shaped structure on the secondary wall protruding structure 153, and the secondary wall supporting structure 152 is located at the top of the secondary wall protruding structure 153, that is, the secondary wall guiding structure 151 and the secondary wall supporting structure 152 extend into the body docking space 110 at the secondary wall side S22 respectively. The secondary wall guiding structure 151 provides guidance for the docking component 2 to enter the body docking space 110.

[0082] It should be noted that the first wall support structure 142 and the second wall support structure 152 respectively provide support for the docking component 2 entering the main body docking space 110, so that the position of the docking component 2 in the secondary direction HV in the main body docking space 110 is the secondary docking position DHP. Accordingly, the main elastic arm abutment structure 131 can adapt to the body deformation of the docking component 2, and elastically abut the docking component 2 located in the main body docking space 110 and at the secondary docking position DHP without excessively interfering with the docking component 2, so as to achieve the docking of the component body 11 and the docking component 2, and make the component body 11 and the docking component 2 electrically connected. Therefore, the abutment structure of the conductive component 1 of the utility model can abut the docking component 2 as expected.

[0083] In addition, if the docking component 2 is improperly tilted and cannot be aligned with the conductive component 1, the first wall-facing guide structure 141 and the second wall-facing guide structure 151 can provide guidance for the improperly tilted docking component 2, and the first wall-facing support structure 142 and the second wall-facing support structure 152 can provide support for the improperly tilted docking component 2, thereby reducing the degree of inclination of the docking component 2, allowing the docking component 2 to be aligned with the conductive component 1, so that the conductive component 1 will not excessively interfere with the docking of the docking component 2, allowing the docking component 2 to smoothly dock with the conductive component 1, so that the conductive component 1 of the utility model can be miniaturized and the reliability can be greatly improved, thereby allowing the reliability of the electrical connector provided with the conductive component 1 of the utility model to meet expectations.

[0084] The main direction docking position DVP can be selectively substantially overlapped with the secondary direction docking position DHP, so that the main direction wall 12, the first component secondary direction wall 14 and the second component secondary direction wall 15 can allow the docking component 2 to be located at a predetermined docking position in the main body docking space 110, so as to ensure that the main direction elastic arm abutment structure 131 can elastically abut the docking component 2 at the predetermined docking position. Therefore, the abutment structure of the conductive component 1 of the utility model can abut the docking component 2 as expected, so that the reliability of the conductive component 1 of the utility model can be greatly improved, and thus the reliability of the electrical connector provided with the conductive component 1 of the utility model meets expectations.

[0085] It should be noted that, in the above-mentioned embodiment, the first-component secondary wall 14 includes a first-component protruding structure 143, but this is not limited to it. It does not exclude that the first-component secondary wall 14 includes a plurality of separately arranged first-component protruding structures 143, so that the first-component wall guiding structure 141 can guide the docking component 2 into the main body docking space 110 at multiple positions, and also enable the first-component wall supporting structure 142 to provide support for the docking component 2 located in the main body docking space 110 at multiple positions.

[0086] In addition, in the above embodiment, the second component secondary wall 15 includes a second directional wall protrusion structure 153, but this is not limited to it. It does not exclude that the second component secondary wall 15 includes a plurality of separately arranged second directional wall protrusion structures 153, so that the second directional wall guiding structure 151 can guide the docking component 2 into the main body docking space 110 at multiple positions, and also enable the second directional wall supporting structure 152 to provide support for the docking component 2 located in the main body docking space 110 at multiple positions.

[0087] In the above embodiment, the conductive member 1 includes a first directional electrostatic discharge structure 161 and a second directional electrostatic discharge structure 162. It should be noted that the first directional electrostatic discharge structure 161 and the second directional electrostatic discharge structure 162 can be selected to be respectively arranged on the first member secondary directional wall 14 and the second member secondary directional wall 15 to provide contact with the docking member 2 and provide electrostatic discharge for the docking member 2, but it is not limited to this, and it is not excluded that the first directional electrostatic discharge structure 161 and the second directional electrostatic discharge structure 162 can be selected to be respectively arranged on the first guide frame secondary directional wall 172 and the second guide frame secondary directional wall 173 to provide contact with the docking member 2 and provide electrostatic discharge for the docking member 2.

[0088] It should be noted that the first electrostatic discharge structure 161 and the second electrostatic discharge structure 162 can be designed as embossed structures that meet the tip effect to provide electrostatic discharge and effectively prevent static electricity from invading the electronic product through the conductive component 1 and damaging the internal circuit of the electronic product.

[0089] It should be noted that in the above-mentioned embodiments, some of the aforementioned components can also be omitted. For example, in the present utility model, the conductive component can be selected to include: a component body, a component main wall, and a component main elastic arm. The component body includes a main wall side, a main elastic arm side, and a body docking space, and the main elastic arm side and the main wall side are located on opposite sides of the body docking space in the main direction. The component main wall connects the component body, and the component main wall includes a main wall guide structure and a main wall support structure. The main wall guide structure and the main wall support structure extend into the body docking space on the main wall side, respectively. The main wall guide structure provides guidance for the docking component to enter the body docking space, and the main wall support structure provides support for the docking component entering the body docking space, so that the position of the docking component in the main direction in the docking space of the body is the main docking position.

[0090] In addition, the main elastic arm of the component is connected to the component body, and the main elastic arm of the component includes a main elastic arm abutment structure, which extends into the body docking space on the side of the main elastic arm, and can elastically abut the docking component located in the body docking space and at the main docking position, so as to achieve docking between the component body and the docking component.

[0091] In summary, the utility model provides a conductive component that can be used in conjunction with a docking component to transmit signals in an electronic product. The conductive component provided includes a wall guide structure, a wall support structure, and an elastic arm abutment structure. The wall guide structure and the wall support structure can respectively provide guidance and support for the inclined docking component, thereby reducing the degree of inclination of the docking component, so that the docking component can be aligned with the conductive component. The elastic arm abutment structure can adapt to the deformation of the shape of the docking component under stress, so as to ensure that the elastic arm abutment structure can abut the docking component without excessively interfering with the docking component, so that the conductive component can not excessively interfere with the docking of the docking component, so that the docking component can smoothly dock with the conductive component, so that the conductive component of the utility model can be miniaturized and the reliability can be greatly improved, so that the reliability of the electrical connector provided with the conductive component of the utility model meets expectations.

[0092] The above embodiments are only illustrative of the principles and effects of the present invention, and are not intended to limit the present invention. Any person skilled in the art can modify and change the above embodiments without violating the spirit and scope of the present invention. Therefore, the scope of protection of the present invention should be as listed in the claims of the present invention.

Claims

1. A conductive member, characterized in that: Used to match a docking component, the conductive component includes: A component body, the component body comprising a main wall side, a main elastic arm side and a body docking space, the main elastic arm side and the main wall side are located on two opposite sides of the body docking space in a main direction; A component main direction wall, the component main direction wall is connected to the component body, and the component main direction wall includes a main direction wall guide structure and a main direction wall support structure, the main direction wall guide structure and the main direction wall support structure respectively extend from the main direction wall side into the body docking space, the main direction wall guide structure provides guidance for the docking component to enter the body docking space, and the main direction wall support structure provides support for the docking component entering the body docking space, so that the position of the docking component in the main direction in the body docking space is a main direction docking position; and A component main direction elastic arm, the component main direction elastic arm is connected to the component body, and the component main direction elastic arm includes a main direction elastic arm abutment structure, the main direction elastic arm abutment structure extends into the body docking space at the side of the main direction elastic arm, and can elastically abut the docking component located in the body docking space and at the main direction docking position, so as to achieve docking between the component body and the docking component.

2. The conductive member according to claim 1, characterized in that: In terms of structural strength, the main wall supporting structure is larger than the main elastic arm abutting structure, so that when the main elastic arm abutting structure elastically abuts against the docking member, the main wall supporting structure can provide support for the docking member.

3. The conductive member according to claim 1, characterized in that: The main wall of the component also includes a main wall protrusion structure, which extends from the side of the main wall into the main body docking space, wherein the main wall guide structure is a sloped structure on the main wall protrusion structure, and the main wall support structure is located at the top of the main wall protrusion structure.

4. The conductive member according to claim 1, characterized in that: The component body also includes a first wall-facing side and a second wall-facing side, wherein the first wall-facing side and the second wall-facing side are located on opposite sides of the main body docking space in the first upward direction; the conductive component also includes: A first component secondary wall, the first component secondary wall is connected to the component body, and the first component secondary wall includes a first directional wall guide structure and a first directional wall support structure, the first directional wall guide structure and the first directional wall support structure respectively extend from the first directional wall side into the body docking space, and the first directional wall guide structure guides the docking component into the body docking space; and A second component secondary wall, the second component secondary wall is connected to the component body, and the second component secondary wall includes a secondary wall guide structure and a secondary wall support structure, the second wall guide structure and the second wall support structure respectively extend from the second wall side into the body docking space, and the second wall guide structure provides guidance for the docking component to enter the body docking space; wherein, The first-direction wall support structure and the second-direction wall support structure respectively provide support for the docking member entering the docking space of the main body, so that the docking member is located at the second-direction upward position in the docking space of the main body as the first-direction docking position; and The main elastic arm abutment structure can elastically abut against the docking component located in the main body docking space and at the secondary docking position to achieve docking between the component body and the docking component.

5. The conductive member according to claim 4, characterized in that: The main docking position and the secondary docking position substantially overlap.

6. The conductive member according to claim 4, characterized in that: The first component secondary wall also includes at least one first wall protrusion structure, which extends from the first wall side into the main body docking space, wherein the first wall guide structure is a sloped structure on the first wall protrusion structure, and the first wall support structure is located at the top of the first wall protrusion structure; and the second component secondary wall also includes at least one second wall protrusion structure, which extends from the second wall side into the main body docking space, wherein the second wall guide structure is a sloped structure on the second wall protrusion structure, and the second wall support structure is located at the top of the second wall protrusion structure.

7. The conductive member according to claim 6, characterized in that: The first protrusion structure toward the wall is a plurality of first protrusion structures toward the wall that are separately arranged; and the second protrusion structure toward the wall is a plurality of second protrusion structures toward the wall that are separately arranged.

8. The conductive member according to claim 4, characterized in that: The conductive component also includes a first directional electrostatic discharge structure and a second directional electrostatic discharge structure: the first directional electrostatic discharge structure and the second directional electrostatic discharge structure are respectively arranged on the first component secondary wall and the second component secondary wall to provide contact with the docking component to provide electrostatic discharge for the docking component.

9. The conductive member according to claim 4, characterized in that: Also includes: A component front end guide frame, the component front end guide frame is located at the front end of the component body, and the component front end guide frame includes a guide frame main wall, a first guide frame secondary wall, a second guide frame secondary wall and a guide frame docking channel, wherein, The guide frame main wall, the first guide frame secondary wall and the second guide frame secondary wall respectively guide the docking components to enter the main body docking space through the guide frame docking channel; The main wall of the guide frame is connected to the main wall of the component, so that the main wall of the guide frame can guide the docking component to approach the main wall of the component; The first guide frame secondary wall is connected to the first component secondary wall, so that the first guide frame secondary wall can guide the docking component to approach the first component secondary wall; and The second guide frame secondary wall is connected to the second component secondary wall, so that the second guide frame secondary wall can guide the docking component to approach the second component secondary wall.

10. The conductive member according to claim 9, characterized in that: The front end guide frame of the component also includes a guide frame connecting wall, and the guide frame connecting wall connects the first guide frame secondary wall and the second guide frame secondary wall to define the relative position relationship between the first guide frame secondary wall and the second guide frame secondary wall in the secondary upward direction, so that the first guide frame secondary wall and the second guide frame secondary wall are located on opposite sides of the guide frame docking channel in the secondary upward direction.

11. The conductive member according to claim 10, characterized in that: The first guide frame secondary direction wall and the second guide frame secondary direction wall are respectively connected to the guide frame connecting wall and the guide frame main direction wall to define the relative position relationship between the guide frame connecting wall and the guide frame main direction wall in the main direction, so that the guide frame connecting wall and the guide frame main direction wall are located on the opposite sides of the guide frame docking channel in the main direction.

12. The conductive member according to claim 9, characterized in that: The conductive component also includes a first directional electrostatic discharge structure and a second directional electrostatic discharge structure: the first directional electrostatic discharge structure and the second directional electrostatic discharge structure are respectively arranged on the first guide frame secondary wall and the second guide frame secondary wall to provide contact with the docking component and provide electrostatic discharge for the docking component.

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