Conductive terminal

Abstract

The utility model provides a conductive terminal capable of transmitting signals in an electronic product, the conductive terminal can provide butt joint of a conductive member, and the conductive terminal comprises a terminal body, a guide frame-shaped body and a connecting arm. The connecting arm is connected with the guiding frame-shaped body and the terminal body to form a butt joint channel, the guiding frame-shaped body can guide the conductive members to be in butt joint through the butt joint channel, and when the conductive members are in butt joint, the connecting arm can deform to adapt to the shapes of the conductive members, so that the conductive members are in butt joint. Therefore, the resistance generated by the conductive terminal to the butt joint of the conductive component is reduced, the situation that the conductive terminal is locally pressed by the conductive component to cause improper local deformation of the conductive terminal is avoided, and the reliability of the electric connector provided with the conductive terminal is further improved.

Description

TECHNICAL FIELD

[0001] The present application provides a conductive terminal, in particular, to a conductive terminal which can avoid local deformation caused by local compression. BACKGROUND

[0002] Well, the electric connector and the conductive member are indispensable components in electronic products. Generally speaking, the conductive member can be connected to the conductive terminal of the electric connector to transmit electrical signals. However, due to the design trend of miniaturization of the electric connector and its conductive terminal, the conductive terminal is prone to interfere with the connection of the conductive member, causing the conductive member to locally compress the conductive terminal, resulting in the local deformation of the conductive terminal, thereby affecting the reliability of the conductive terminal in transmitting signals, leading to poor operation or even damage of the electronic product. Therefore, how to avoid the interference of the conductive terminal with the connection of the conductive member is an important indicator for evaluating the reliability of the electric connector.

[0003] It should be noted that for safety reasons, electric connectors with good reliability can be used in electronic products for aviation, navigation, railway and highway transportation.

[0004] Therefore, how to provide a conductive terminal to solve the problem of interference of the existing miniaturized conductive terminal with the connection of the conductive member, thereby improving the reliability of the electric connector, has become a technical issue that the industry urgently wants to overcome. CONTENT OF THE INVENTION

[0005] In view of the above-mentioned shortcomings of the prior art, the present application provides a conductive terminal for solving the problem of interference of the existing miniaturized conductive terminal with the connection of the conductive member.

[0006] In a first aspect, the present application provides a conductive terminal for connecting a conductive member, the conductive terminal comprising: a terminal body comprising a terminal internal space and a terminal connection structure; a guide frame body comprising a frame guide structure; and a first connecting arm connecting the guide frame body and the terminal body to form a part of a connection channel; wherein the frame guide structure can guide the conductive member to enter the terminal internal space through the connection channel and connect with the terminal connection structure; and the first connecting arm comprises a first connecting arm body and a first connecting arm hole, the first connecting arm hole passes through the first connecting arm body, so that the structural strength of the first connecting arm is weakened, and when the frame guide structure guides the conductive member to enter the terminal internal space through the connection channel, the deformation degree of the first connecting arm meets the expectation.

[0007] In an implementation form of the first aspect, the guiding frame further comprises a first frame wall, a third frame wall and a fourth frame wall, the first frame wall comprises a first frame wall body and connects the third frame wall and the fourth frame wall respectively to form a part of the frame guiding structure, the first engaging arm is connected to the first frame wall, the first engaging arm break hole extends to the first frame wall and passes through the first frame wall body, so that the structural strength of the first frame wall is weaker than the structural strength of the third frame wall and the fourth frame wall, and when the frame guiding structure guides the conductive member, the deformation degree of the first frame wall is greater than the deformation degree of the third frame wall and the fourth frame wall.

[0008] In an implementation form of the first aspect, the terminal further comprises a third abutting arm and a fourth abutting arm, the third abutting arm and the fourth abutting arm are respectively on the same side of the third frame wall and the fourth frame wall, and the third abutting arm and the fourth abutting arm respectively extend from the terminal body to be capable of abutting the conductive member entering the terminal internal space; and the terminal docking structure comprises a third terminal docking substructure and a fourth terminal docking substructure, and the third terminal docking substructure and the fourth terminal docking substructure are respectively arranged on the third abutting arm and the fourth abutting arm to be capable of docking with the conductive member respectively.

[0009] In an implementation form of the first aspect, the third abutting arm and the fourth abutting arm are elastic cantilever arms.

[0010] In an implementation form of the first aspect, the terminal further comprises a discharge contact structure arranged on the third frame wall or the fourth frame wall, the discharge contact structure is capable of contacting the conductive member to provide discharge for the conductive member in the process of guiding the conductive member by the frame guiding structure, and the time when the discharge contact structure contacts the conductive member is earlier than the time when the terminal docking structure docks with the conductive member.

[0011] In an implementation form of the first aspect, the discharge contact structure is a relief structure.

[0012] In an implementation form of the first aspect, the guiding frame further comprises a second frame wall connecting the third frame wall and the fourth frame wall to form another part of the frame guiding structure; the conductive terminal further comprises a second engaging arm on the same side of the second frame wall, the second engaging arm engaging the second frame wall and the terminal body to form another part of the terminal connecting channel; wherein the second engaging arm comprises a second engaging arm body and a second engaging arm joint extending through the second engaging arm body, the second engaging arm joint having a second engaging arm joint width; the first engaging arm break has a first engaging arm break width, and the first engaging arm break width is greater than the second engaging arm joint width, so that the structural strength of the first engaging arm is weaker than the structural strength of the second engaging arm, and when the frame guiding structure guides the conductive member, the deformation degree of the first engaging arm is greater than the deformation degree of the second engaging arm.

[0013] In an implementation form of the first aspect, the second frame wall comprises a second frame wall body, the second engaging arm joint extends to the second frame wall and passes through the second frame wall body, so that the structural strength of the second frame wall is weaker than the structural strength of the third frame wall and the fourth frame wall, and when the frame guiding structure guides the conductive member, the deformation degree of the second frame wall is greater than the deformation degree of the third frame wall and the fourth frame wall.

[0014] In an implementation form of the first aspect, because the first engaging arm break width is greater than the second engaging arm joint width, the structural strength of the first frame wall is weaker than the structural strength of the second frame wall, and when the frame guiding structure guides the conductive member, the deformation degree of the first frame wall is greater than the deformation degree of the second frame wall.

[0015] In an implementation form of the first aspect, the terminal connecting structure comprises a first terminal connecting substructure and a second terminal connecting substructure, the first terminal connecting substructure and the second terminal connecting substructure are on the same side of the first frame wall and the second frame wall, respectively, and the first terminal connecting substructure and the second terminal connecting substructure are arranged on the first engaging arm and the second engaging arm, respectively, to be able to connect with the conductive member, respectively.

[0016] As described above, the conductive terminal has the following beneficial effects:

[0017] The present application provides a conductive terminal capable of transmitting signals in electronic products, which can provide a conductive member docking interface. The conductive terminal comprises a terminal body, a guiding frame-shaped body and a connecting arm. The connecting arm connects the guiding frame-shaped body and the terminal body to form a docking channel. The guiding frame-shaped body can guide the conductive member to dock through the docking channel. When the conductive member docks, the connecting arm can be deformed to adapt to the shape of the conductive member to reduce the resistance generated by the docking of the conductive terminal to the conductive member, so as to avoid local compression of the conductive member to the conductive terminal to cause improper deformation of the conductive terminal, thereby improving the reliability of the electrical connector provided with the conductive terminal. BRIEF DESCRIPTION OF DRAWINGS

[0018] Figure 1 A perspective view of the conductive terminal of the present application in a first view of an embodiment is shown.

[0019] Figure 2 A perspective view of the conductive terminal of the present application in a second view of an embodiment is shown.

[0020] Figure 3 A top view of the conductive terminal of the present application in an embodiment is shown.

[0021] Figure 4 A front view of the conductive terminal of the present application in an embodiment is shown.

[0022] Figure 5 A left side view of the conductive terminal of the present application in an embodiment is shown.

[0023] Figure 6 A right side view of the conductive terminal of the present application in an embodiment is shown.

[0024] Figure 7 A cross-sectional view of the conductive terminal of the present application in an embodiment is shown. Figure 4 A cross-sectional view of the conductive terminal of the present application in an embodiment is shown.

[0025] Figure 8 A perspective view of the conductive terminal of the present application in a first view of an embodiment is shown.

[0026] Figure 9 A perspective view of the conductive terminal of the present application in a second view of an embodiment is shown.

[0027] ELEMENT REFERENCE

[0028] 1 conductive terminal

[0029] 11 terminal body

[0030] 111 terminal internal space

[0031] 112 terminal mating structure

[0032] 1121 First terminal docking substructure

[0033] 1122 Second terminal docking substructure

[0034] 1123 Third terminal docking substructure

[0035] 1124 Fourth terminal connector structure

[0036] 12 Guide frame

[0037] 121 First frame wall

[0038] 1210 First frame wall body

[0039] 122 Second frame wall

[0040] 1220 Second frame wall body

[0041] 123 Third frame wall

[0042] 124 Fourth frame wall

[0043] 133 Third Abutment Arm

[0044] 134 Fourth Abutment Arm

[0045] 141 First Connecting Arm

[0046] 1410 First Connecting Arm Body

[0047] 1411 First connecting arm hole

[0048] 142 Second Connecting Arm

[0049] 1420 Second Connecting Arm Body

[0050] 1421 Second connecting arm joint

[0051] 15. Discharge contact structure

[0052] 2. Conductive components

[0053] G-shaped guide structure

[0054] W1 First connecting arm perforation width

[0055] W2 Second Connecting Arm Joint Width

[0056] P docking channel Detailed Implementation

[0057] The above objects and advantages of the present application will become more apparent by describing in detail the preferred embodiment thereof with reference to the accompanying drawings, in which:

[0058] It is to be understood that the figures included are illustrative of the general principles of the application and that actual implementation of the application could vary as a consequence of practical circumstances and existing technology.

[0059] The principles and implementation of the conductive terminal of the present embodiment which can avoid local improper deformation caused by local compression will be described in detail below with reference to the accompanying drawings, so that those skilled in the art can understand the electric connector of the present embodiment without any creative effort.

[0060] For the description of the embodiments of the present application, please refer to Figures 1 to 9 .

[0061] The present application provides a conductive terminal which can provide a conductive member to transmit signals in an electronic product. The conductive terminal can be arranged in an electric connector, and the conductive member can be inserted into the electric connector to abut against the conductive terminal arranged in the electric connector to transmit electrical signals. The conductive member can be in the form of a conductive terminal or an electric connector.

[0062] In the embodiments of the present application Figures 1 to 9 At least one conductive terminal 1 which can provide a conductive member 2 to abut against is disclosed in the embodiments of the present application. The conductive terminal 1 comprises a terminal body 11, a guide frame 12, a first connecting arm 141 and a second connecting arm 142.

[0063] It should be noted that the conductive terminal 1 can be integrally made by bending and cutting a metal plate.

[0064] In the above embodiments, the terminal body 11 includes a terminal inner space 111 and a terminal mating structure 112, and the guide frame body 12 includes a first frame wall 121, a second frame wall 122, a third frame wall 123, and a fourth frame wall 124, wherein the first frame wall 121 connects the third frame wall 123 and the fourth frame wall 124 respectively, so that the structural strength of the guide frame body 12 meets the expectation and forms a part of the frame-like guide structure G, and the second frame wall 122 connects the third frame wall 123 and the fourth frame wall 124 respectively, so that the structural strength of the guide frame body 12 meets the expectation and forms another part of the frame-like guide structure G.

[0065] In the process of implementing the conductive member 2 to mate with the conductive terminal 1, the frame-like guide structure G can guide the conductive member 2 to enter the terminal inner space 111 and mate with the terminal mating structure 112. It should be noted that when the frame-like guide structure G guides the conductive member 2, the shape of the conductive member 2 may interfere with the guide frame body 12, the first engaging arm 141 or the second engaging arm 142, causing the first frame wall 121, the second frame wall 122, the third frame wall 123, the fourth frame wall 124, the first engaging arm 141 or the second engaging arm 142 to deform. In this way, the guide frame body 12, the first engaging arm 141 or the second engaging arm 142 can adapt to the shape of the conductive member 2 by deforming, thereby avoiding the first frame wall 121, the second frame wall 122, the third frame wall 123, the fourth frame wall 124, the first engaging arm 141 or the second engaging arm 142 interfering with the conductive member 2 entering the terminal inner space 111, so as to reduce the resistance generated by the conductive terminal 1 to the conductive member 2 during mating, to avoid the conductive member 2 locally compressing the conductive terminal 1 to cause the conductive terminal 1 to locally deform improperly, thereby improving the reliability of the electrical connector provided with the conductive terminal 1.

[0066] However, the above is not limiting, it should be noted that when the frame-like guide structure G guides the conductive member 2, the shape of the conductive member 2 may not interfere with the guide frame body 12, the first engaging arm 141 and the second engaging arm 142, or only interfere with at least one of the guide frame body 12, the first engaging arm 141 and the second engaging arm 142, so the guide frame body 12, the first engaging arm 141 or the second engaging arm 142 may not deform.

[0067] In the present application Figures 1 to 3 and Figures 8 to 9In the illustrated embodiment, the first connecting arm 141 and the second connecting arm 142 are located on the same side as the first frame wall 121 and the second frame wall 122, respectively. The first connecting arm 141 connects the first frame wall 121 and the terminal body 11, thereby ensuring the structural strength of the conductive terminal 1 meets expectations and forming part of a docking channel P. The second connecting arm 142 connects the second frame wall 122 and the terminal body 11, thereby ensuring the structural strength of the conductive terminal 1 meets expectations and forming another part of the docking channel P. It should be noted that the frame-shaped guide structure G can guide the conductive member 2 through the docking channel P into the internal space 111 of the terminal and dock with the terminal docking structure 112.

[0068] At Figures 2 to 3 , Figure 7 and Figure 9 In the illustrated embodiment, the first connecting arm 141 includes a first connecting arm body 1410 and a first connecting arm hole 1411. The first connecting arm hole 1411 passes through the first connecting arm body 1410, making the first connecting arm 141 structurally weak. Therefore, the first connecting arm hole 1411 can weaken the structural strength of the first connecting arm 141. When the frame-shaped guide structure G guides the conductive member 2 through the docking channel P into the internal space 111 of the terminal, the deformation of the first connecting arm 141 is as expected.

[0069] In the above embodiment, the second connecting arm 142 includes a second connecting arm body 1420 and a second connecting arm joint 1421. The second connecting arm joint 1421 passes through the second connecting arm body 1420, making the second connecting arm 142 structurally weak. Therefore, the second connecting arm joint 1421 can weaken the structural strength of the second connecting arm 142. When the frame-shaped guide structure G guides the conductive member 2 through the docking channel P into the internal space 111 of the terminal, the deformation degree of the second connecting arm 142 is as expected.

[0070] It should be noted that the width of the first connecting arm hole 1411 is a first connecting arm hole width W1, and the width of the second connecting arm joint 1421 is a second connecting arm joint width W2, as shown below. Figure 3As shown, the first engaging arm break hole width W1 is greater than the second engaging arm seam width W2, so that the structural strength of the first engaging arm 141 is weaker than the structural strength of the second engaging arm 142. When the frame-shaped guiding structure G guides the conductive member 2, the deformation degree of the first engaging arm 141 is greater than the deformation degree of the second engaging arm 142 to adapt to the shape of the conductive member 2, so that the frame-shaped guiding structure G can guide the conductive member 2 to smoothly enter the terminal internal space 111 and abut against the terminal abutting structure 112.

[0071] In the embodiment shown, the first frame wall 121 includes a first frame wall body 1210, the second frame wall 122 includes a second frame wall body 1220, and the first engaging arm break hole 1411 extends to the first frame wall 121 and passes through the first frame wall body 1210, so that the first frame wall 121 has a structural weak point. Therefore, the first engaging arm break hole 1411 can weaken the structural strength of the first frame wall 121, so that the structural strength of the first frame wall 121 is weaker than the structural strength of the third frame wall 123 and the fourth frame wall 124. When the frame-shaped guiding structure G guides the conductive member 2, the deformation degree of the second frame wall 122 is greater than the deformation degree of the third frame wall 123 and the fourth frame wall 124. Figures 1 to 4 Figures 8 to 9 In addition, the second frame wall 122 includes a second frame wall body 1220, and the second engaging arm seam 1421 extends to the second frame wall 122 and passes through the second frame wall body 1220, so that the second frame wall 122 has a structural weak point. Therefore, the second engaging arm seam 1421 can weaken the structural strength of the second frame wall 122, so that the structural strength of the second frame wall 122 is weaker than the structural strength of the third frame wall 123 and the fourth frame wall 124. When the frame-shaped guiding structure G guides the conductive member 2, the deformation degree of the second frame wall 122 is greater than the deformation degree of the third frame wall 123 and the fourth frame wall 124.

[0072] In the above embodiment, since the first engaging arm break hole width W1 is greater than the second engaging arm seam width W2, the structural strength of the first frame wall 121 is weaker than the structural strength of the second frame wall 122. When the frame-shaped guiding structure G guides the conductive member 2, the deformation degree of the first frame wall 121 is greater than the deformation degree of the second frame wall 122, so that the deformation degree of the frame-shaped guiding structure G conforms to the expectation and can guide the conductive member 2 to smoothly enter the terminal internal space 111 and abut against the terminal abutting structure 112.

[0073] In the above embodiment, since the first engaging arm break hole width W1 is greater than the second engaging arm seam width W2, the structural strength of the first frame wall 121 is weaker than the structural strength of the second frame wall 122. When the frame-shaped guiding structure G guides the conductive member 2, the deformation degree of the first frame wall 121 is greater than the deformation degree of the second frame wall 122, so that the deformation degree of the frame-shaped guiding structure G conforms to the expectation and can guide the conductive member 2 to smoothly enter the terminal internal space 111 and abut against the terminal abutting structure 112.

[0074] In the above embodiment, since the first engaging arm break hole width W1 is greater than the second engaging arm seam width W2, the structural strength of the first frame wall 121 is weaker than the structural strength of the second frame wall 122. When the frame-shaped guiding structure G guides the conductive member 2, the deformation degree of the first frame wall 121 is greater than the deformation degree of the second frame wall 122, so that the deformation degree of the frame-shaped guiding structure G conforms to the expectation and can guide the conductive member 2 to smoothly enter the terminal internal space 111 and abut against the terminal abutting structure 112. Figures 1 to 3 and​Figures 5 to 9 In the embodiment shown, the conductive terminal 1 further comprises a third abutting arm 133 and a fourth abutting arm 134. The third abutting arm 133 and the fourth abutting arm 134 are respectively located at the same side of the third frame wall 123 and the fourth frame wall 124, and the third abutting arm 133 and the fourth abutting arm 134 respectively extend from the terminal body 11 into the terminal internal space 111 and can respectively abut the conductive member 2 entering the terminal internal space 111. Accordingly, the terminal abutting structure 112 comprises a third terminal abutting substructure 1123 and a fourth terminal abutting substructure 1124, wherein the third abutting arm 133 and the fourth abutting arm 134 respectively comprise a free end capable of adapting to the shape activity of the conductive member 2, and the third terminal abutting substructure 1123 and the fourth terminal abutting substructure 1124 are respectively arranged at the free end of the third abutting arm 133 and the fourth abutting arm 134 so as to be respectively abutted with the conductive member 2.

[0075] Alternatively, the third terminal abutting substructure 1123 and the fourth terminal abutting substructure 1124 are bent structures. The third abutting arm 133 and the fourth abutting arm 134 are elastic cantilever arms, and can respectively adapt to the elastic deformation of the conductive member 2 entering the terminal internal space 111 and elastically abut the conductive member 2, so as to avoid the conductive member 2 entering the terminal internal space 111 from being easily separated, and can also provide an elastic force to force the conductive member 2 entering the terminal internal space 111 to move to a proper position, so as to avoid the conductive member 2 locally pressing the conductive terminal 1 and causing the local of the conductive terminal 1 to be improperly deformed, thereby improving the reliability of the electrical connector provided with the conductive terminal 1.

[0076] In the above embodiment, the terminal abutting structure 112 comprises a first terminal abutting substructure 1121 and a second terminal abutting substructure 1122, as shown in Figures 1 to 3 and Figures 5 to 7 The first terminal abutting substructure 1121 and the second terminal abutting substructure 1122 are respectively arranged at the first abutting arm 141 and the second abutting arm 142 and can respectively abut the conductive member 2 entering the terminal internal space 111 through the abutting passage P. Alternatively, the first terminal abutting substructure 1121 and the second terminal abutting substructure 1122 are bent structures.

[0077] In the present application Figure 1 and Figures 4 to 9In the illustrated embodiment, the conductive terminal 1 further comprises a discharge contact structure 15. The discharge contact structure 15 is disposed on the third frame wall 123 or the fourth frame wall 124, and can contact the conductive member 2 during the guiding of the conductive member 2 by the frame-like guiding structure G. The discharge contact structure 15 contacts the conductive member 2 earlier than the terminal docking structure 112 docks the conductive member 2, so that the discharge contact structure 15 can provide discharge to the conductive member 2.

[0078] Alternatively, the discharge contact structure 15 is a relief structure that can contact the conductive member 2, so as to provide electrostatic discharge in accordance with the point effect, thereby effectively avoiding the invasion of static electricity into the electronic product through the conductive terminal 1 to damage the internal circuit of the electronic product.

[0079] It should be noted that in the above-mentioned embodiments, the aforementioned partial components can also be omitted. For example, in the present application, the conductive terminal can only include a terminal body, a guiding frame-like body, and a first connecting arm. The terminal body includes a terminal internal space and a terminal docking structure. The guiding frame-like body includes a frame-like guiding structure. The first connecting arm connects the guiding frame-like body and the terminal body to form a part of a docking channel. The frame-like guiding structure can guide the conductive member to enter the terminal internal space through the docking channel and dock with the terminal docking structure. The first connecting arm includes a first connecting arm body and a first connecting arm breakage. The first connecting arm breakage passes through the first connecting arm body, so that the structural strength of the first connecting arm is weakened. When the frame-like guiding structure guides the conductive member to enter the terminal internal space through the docking channel, the deformation degree of the first connecting arm meets the expectation.

[0080] In summary, the present application provides a conductive terminal that can transmit signals in an electronic product. The conductive terminal can provide a conductive member docking. The conductive terminal includes a terminal body, a guiding frame-like body, and a connecting arm. The connecting arm connects the guiding frame-like body and the terminal body to form a docking channel. The guiding frame-like body can guide the conductive member to dock through the docking channel. When the conductive member docks, the connecting arm can deform to adapt to the shape of the conductive member, so as to reduce the resistance generated by the docking of the conductive terminal to the conductive member, avoid local compression of the conductive member to the conductive terminal, and thus improve the reliability of the electrical connector provided with the conductive terminal.

[0081] The above embodiments are only illustrative of the principles of the present application and its effects, and are not intended to limit the present application. Any modification or change made by any person skilled in the art without departing from the spirit and scope of the present application shall be covered by the claims of the present application.

Claims

1. An electrically conductive terminal providing an electrically conductive member interface, characterized by, The conductive terminal comprises: a terminal body, the terminal body comprising a terminal inner space and a terminal mating structure; a guiding frame-shaped body, the guiding frame-shaped body comprising a frame-shaped guiding structure; and a first engaging arm, the first engaging arm engaging the guiding frame-shaped body and the terminal body to form a part of a mating channel; wherein the frame-shaped guiding structure is capable of guiding the conductive member to enter the terminal inner space through the mating channel and mate with the terminal mating structure; and the first engaging arm comprises a first engaging arm body and a first engaging arm breakage, the first engaging arm breakage passing through the first engaging arm body, weakening the structural strength of the first engaging arm, so that the deformation degree of the first engaging arm meets the expectation when the frame-shaped guiding structure guides the conductive member to enter the terminal inner space through the mating channel.

2. The electrically conductive terminal of claim 1, wherein The guiding frame-shaped body further comprises a first frame wall, a third frame wall and a fourth frame wall, the first frame wall comprising a first frame wall body and being connected with the third frame wall and the fourth frame wall respectively to form a part of the frame-shaped guiding structure, the first engaging arm being connected with the first frame wall, the first engaging arm breakage extending to the first frame wall and passing through the first frame wall body, so that the structural strength of the first frame wall is weaker than the structural strength of the third frame wall and the fourth frame wall, and the deformation degree of the first frame wall is greater than the deformation degree of the third frame wall and the fourth frame wall when the frame-shaped guiding structure guides the conductive member.

3. The electrically conductive terminal of claim 2, wherein Further comprising: a third abutting arm and a fourth abutting arm, the third abutting arm and the fourth abutting arm being on the same side of the third frame wall and the fourth frame wall respectively, and the third abutting arm and the fourth abutting arm respectively extending from the terminal body and being capable of abutting the conductive member entering the terminal inner space respectively; and the terminal mating structure comprising a third terminal mating substructure and a fourth terminal mating substructure, and the third terminal mating substructure and the fourth terminal mating substructure being arranged on the third abutting arm and the fourth abutting arm respectively and being capable of mating with the conductive member respectively.

4. The electrically conductive terminal of claim 3, wherein The third abutting arm and the fourth abutting arm are elastic cantilever arms.

5. The electrically conductive terminal of claim 2, wherein, Further comprising: a discharge contact structure, the discharge contact structure being arranged on the third frame wall or the fourth frame wall, and being capable of contacting the conductive member to provide discharge for the conductive member in the process of guiding the conductive member by the frame-shaped guiding structure, wherein the time of the discharge contact structure contacting the conductive member is earlier than the time of the terminal mating structure mating with the conductive member.

6. The electrically conductive terminal of claim 5, wherein, The discharge contact structure is a relief structure.

7. The electrically conductive terminal of claim 2, wherein The guiding frame-shaped body further comprises a second frame wall connecting the third frame wall and the fourth frame wall to form another part of the frame-shaped guiding structure; the conductive terminal further comprises a second engaging arm on the same side of the second frame wall, the second engaging arm engaging the second frame wall and the terminal body to form another part of the terminal connecting channel; wherein the second engaging arm comprises a second engaging arm body and a second engaging arm joint, the second engaging arm joint penetrating the second engaging arm body, the width of the second engaging arm joint being a second engaging arm joint width, wherein the width of the first engaging arm hole is a first engaging arm hole width, and the first engaging arm hole width is greater than the second engaging arm joint width, so that the structural strength of the first engaging arm is weaker than that of the second engaging arm, and when the frame-shaped guiding structure guides the conductive member, the deformation degree of the first engaging arm is greater than that of the second engaging arm.

8. The electrically conductive terminal of claim 7, wherein, The second frame wall comprises a second frame wall body, the second engaging arm joint extends to the second frame wall and penetrates the second frame wall body, so that the structural strength of the second frame wall is weaker than that of the third frame wall and the fourth frame wall, and when the frame-shaped guiding structure guides the conductive member, the deformation degree of the second frame wall is greater than that of the third frame wall and the fourth frame wall.

9. The electrically conductive terminal of claim 8, wherein, Because the first engaging arm hole width is greater than the second engaging arm joint width, the structural strength of the first frame wall is weaker than that of the second frame wall, and when the frame-shaped guiding structure guides the conductive member, the deformation degree of the first frame wall is greater than that of the second frame wall.

10. The electrically conductive terminal of claim 8, wherein, The terminal connecting structure comprises a first terminal connecting substructure and a second terminal connecting substructure, the first terminal connecting substructure and the second terminal connecting substructure are on the same side of the first frame wall and the second frame wall respectively, and the first terminal connecting substructure and the second terminal connecting substructure are arranged on the first engaging arm and the second engaging arm respectively to be able to connect with the conductive member respectively.

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