Conductive member

Abstract

The utility model provides a conductive member which can be in butt joint with a butt joint member, and the conductive member is provided with an electric connector, a force application belt body, a conductive wire rod and an insulating shell group. The electric connector is provided with a clamping structure which can be clamped with the butt joint component. The conductive wire can be electrically lapped with the electric connector to transmit an electric signal. The insulation housing group can guide the extension of the conductive wire rod and the force application belt body, so that the conductive wire rod and the force application belt body can extend in the limited internal space of the electronic product, and the force application belt body can extend to apply force at the far end of the electric connector to actuate the clamping structure. And the clamping relation between the electric connector and the butt joint component is released, so that the conductive component can be used in an electronic product with a limited internal space, and the conductive component can be used by the electronic product with a light and thin design.

Description

Technical Field

[0001] This application relates to a conductive component, and more specifically, to a conductive component that can be used in thin and light electronic products. Background Technology

[0002] Electronic products typically feature a conductive component that can interface with a mating component to transmit electrical signals. In its current state, the conductive component can engage with the mating component to maintain their mating relationship, and it can also disengage from the mating component, thus releasing the connection. However, recent trends in thinner and lighter electronic products have resulted in limited internal space, making it difficult for the conductive component to disengage from the mating component.

[0003] Furthermore, the conductive component typically includes a conductive wire used to transmit electrical signals. However, due to the limited internal space of electronic products, the extension direction of the conductive wire within the limited space of the electronic product is restricted.

[0004] Based on the foregoing, how to improve the structural design of the conductive component so that it can be released from the docking component within the limited space inside the electronic product, and how to ensure that the extension direction of the conductive wires of the conductive component within the limited space inside the electronic product is as expected, has become an issue of urgent concern to those skilled in the art. Summary of the Invention

[0005] In view of the shortcomings of the prior art, this application provides a conductive component that can be used with a mating component. The conductive component includes: an electrical connector having an electrical connector body and a conductive terminal; the electrical connector body having an electrical connector body mating port, an electrical connector body overlapping port, an electrical connector body snap-fit ​​structure, and an electrical connector body engagement structure; the conductive terminal having a conductive terminal overlapping end; the electrical connector body engaging the conductive terminal such that the conductive terminal overlapping end is located at the electrical connector body overlapping port; and a force-applying band having a force-applying band actuating section, an internal force-applying band extension section, and an external force-applying band extension section; wherein the force-applying band actuating section is connected to the electrical connector body mating port. The connector body includes a snap-fit ​​structure; a conductive wire having a conductive wire overlap section, an internal conductive wire extension section, and an external conductive wire extension section; and an insulating shell assembly having a first insulating shell and a second insulating shell, the first and second insulating shells being combinable to form an insulating shell assembly. The insulating shell assembly includes an internal space, a wire extension guide structure, a wire extension port, a strap extension guide structure, a strap extension port, a joining structure, a disassembly structure, and a reassembly structure. The aforementioned insulating shell assembly disassembly structure allows the insulating shell assembly to be disassembled, enabling the electrical connector body lap joint, the conductive wire lap section, the conductive wire internal extension section, and the force-applying band internal extension section to enter the internal space of the insulating shell assembly. This allows the conductive wire lap section to electrically lap the conductive terminal lap end at the electrical connector body lap joint. The insulating shell assembly assembly structure can combine the first insulating shell and the second insulating shell, allowing the insulating shell assembly joining structure to engage with the electrical connector body joining structure. This allows the insulating shell assembly wire extension guide structure to guide the conductive wire internal extension section to extend within the internal space of the insulating shell assembly, thereby enabling the conductive wire lap section to electrically lap the conductive terminal lap end at the electrical connector body lap joint. The outer extension of the wire extends into the interior space of the insulating shell assembly via the wire extension port of the insulating shell assembly in a wire extension direction. The inner extension of the force-applying strip is guided by the strip extension guide structure of the insulating shell assembly to extend into the interior space of the insulating shell assembly, thereby causing the outer extension of the force-applying strip to extend into the interior space of the insulating shell assembly via the strip extension port in a strip extension direction. The wire extension direction and the strip extension direction are substantially different. The connector body mating port can mate with the mating member, and the connector body snap-fit ​​structure can snap with the mating member to maintain the state of the connector body mating port mates with the mating member.The external extension of the force-applying band can extend to apply force outside the internal space of the insulating shell assembly, causing the actuating section of the force-applying band to actuate the electrical connector body locking structure, thereby releasing the electrical connector body locking structure from the state of locking the mating member.

[0006] Preferably, in the conductive component of this application, the wire extension guide structure of the insulating shell assembly and the strip extension guide structure of the insulating shell assembly are guide wall structures, guide groove structures or guide hole structures.

[0007] Preferably, in the conductive component of this application, the insulating shell assembly further has an insulating shell assembly slot structure, the insulating shell assembly slot structure allowing the force-applying band actuating segment and the electrical connector body locking structure to pass through the insulating shell assembly, so as to avoid the insulating shell assembly interfering with the force-applying band actuating segment actuating the electrical connector body locking structure.

[0008] Preferably, in the conductive component of this application, the detachable structure of the insulating shell assembly and the assembled structure of the insulating shell assembly are fastened together.

[0009] Preferably, in the conductive component of this application, the insulating shell assembly joining structure and the electrical connector body joining structure are a concave-convex structure with structural fit.

[0010] Preferably, in the conductive component of this application, the electrical connector body snap-fit ​​structure has an electrical connector body snap-fit ​​structure actuating part, an electrical connector body snap-fit ​​structure elastic part, and an electrical connector body snap-fit ​​structure snap-fit ​​part. The electrical connector body snap-fit ​​structure snap-fit ​​part can snap onto the mating component. The force-applying band actuating segment is connected to the electrical connector body snap-fit ​​structure actuating part. The outer extension segment of the force-applying band can apply force to cause the force-applying band actuating segment to actuate the electrical connector body snap-fit ​​structure actuating part, causing the electrical connector body snap-fit ​​structure elastic part to elastically deform, thereby releasing the electrical connector body snap-fit ​​structure snap-fit ​​part from the mating component.

[0011] Preferably, in the conductive component of this application, the wire extension port of the insulating shell assembly is disposed in at least one of the first insulating shell and the second insulating shell; and the strip extension port of the insulating shell assembly is disposed in the first insulating shell or the second insulating shell.

[0012] Preferably, in the conductive components of this application, the electrical connector body is an insulating core.

[0013] Preferably, in the conductive component of this application, the wire extension direction and the strip extension direction may intersect substantially perpendicularly.

[0014] Preferably, in the conductive component of this application, the insulating shell assembly further includes an insulating shell connection structure, which connects the first insulating shell and the second insulating shell.

[0015] Preferably, in the conductive component of this application, the conductive terminal further has a conductive terminal mating end, the conductive terminal mating end is located at the electrical connector body mating port, and the mating component is mated at the electrical connector body mating port, and the conductive terminal mating end is electrically connected to the mating component.

[0016] Compared to prior art, the conductive component proposed in this application can be coupled with a mating component, and the conductive component has an electrical connector, a force-applying band, a conductive wire, and an insulating shell assembly. The electrical connector has a snap-fit ​​structure that can snap onto the mating component. One end of the force-applying band can be connected to the snap-fit ​​structure, while the other end of the force-applying band extends to the distal end of the electrical connector to apply force to actuate the snap-fit ​​structure, thereby releasing the snap-fit ​​relationship between the electrical connector and the mating component. The conductive wire can electrically connect to the electrical connector to transmit electrical signals. The insulating shell assembly can guide the extension of the conductive wire and the force-applying band, so that the direction in which the conductive wire and the force-applying band extend out of the insulating shell assembly is as expected. In this way, the conductive wire and the force-applying band can extend within the limited internal space of the electronic product, allowing the conductive component to be used in electronic products with limited internal space, thereby enabling the conductive component to be used in thin and light electronic products. Attached Figure Description

[0017] Figure 1 The diagram shown illustrates the usage state of the conductive component according to the first embodiment of this application.

[0018] Figure 2 The diagram shown is an exploded view of the conductive component according to the first embodiment of this application.

[0019] Figure 3 The image shown is a top view of a conductive component according to the first embodiment of this application.

[0020] Figure 4 Displayed as Figure 3 The diagram shows a cross-sectional view of the conductive component cut along line segment AA.

[0021] Figure 5 The image shown is a front view of a conductive component according to a first embodiment of this application.

[0022] Figure 6 Displayed as Figure 5 The diagram shows a cross-sectional view of the conductive component cut along line segment BB.

[0023] Figure 7 The diagram shown is a partial cross-section of the conductive component according to the first embodiment of this application.

[0024] Figure 8 The diagram shown is a perspective view of the rear side of the conductive member according to the first embodiment of this application.

[0025] Figure 9 The diagram shown is a perspective view of the front side of the conductive member according to the second embodiment of this application.

[0026] Figure 10 The diagram shown is a perspective view of an insulating shell assembly of a conductive component according to a second embodiment of this application.

[0027] Figure 11 The diagram shown is a perspective view of the disassembled insulating shell assembly of the conductive component according to the second embodiment of this application.

[0028] Component designation explanation

[0029] 1. Conductive component

[0030] 11 Electrical connectors

[0031] 110 Electrical connector body

[0032] 1101 Electrical connector body mating port

[0033] 1102 Electrical connector body lap joint

[0034] 1103 Electrical connector body snap-fit ​​structure

[0035] 11031 Electrical connector body snap-fit ​​structure actuator

[0036] 11032 Elastic part of the snap-fit ​​structure of the electrical connector body

[0037] 11033 Electrical connector body snap-fit ​​structure snap-fit ​​part

[0038] 1104 Electrical connector body engagement structure

[0039] 111 Conductive Terminal

[0040] 1111 Conductive terminal mating end

[0041] 1112 Conductive terminal overlap

[0042] 12 Force-applying band

[0043] 121 Force-applying actuating segment

[0044] 122 Internal extension section of the force-applying band

[0045] 123 External extension of the force-applying band

[0046] 13 Conductive wires

[0047] 131 Conductive wire splice section

[0048] 132 Internal extension section of conductive wire

[0049] 133 External extension section of conductive wire

[0050] 14 Insulating housing assembly

[0051] 141 First Insulating Shell

[0052] 142 Second Insulating Shell

[0053] 143 Insulating housing connection structure

[0054] 2. Connecting components

[0055] B. Insulating housing assembly

[0056] B0 Insulating shell assembly slot structure

[0057] B1 Internal space of the insulating shell assembly

[0058] B2 Insulation Housing Assembly Wire Extension Guiding Structure

[0059] B3 Insulation housing assembly wire extension port

[0060] B4 Insulating Shell Assembly with Extended Guide Structure

[0061] B5 Insulating housing assembly with body extension port

[0062] B6 Insulating Housing Assembly Joint Structure

[0063] B7 Insulating Housing Assembly Disassembly Structure

[0064] B8 Insulating Shell Assembly Structure

[0065] D1 Wire extension direction

[0066] D2 Direction of belt extension Detailed Implementation

[0067] The following description, accompanied by accompanying drawings, illustrates the technical content of this application through specific embodiments. Those skilled in the art can easily understand other advantages and effects of this application from the content disclosed in this specification. This application can also be implemented or applied through other different specific embodiments. Various details in this specification can also be modified and changed based on different viewpoints and applications without departing from the spirit of this application. In particular, the proportional relationships and relative positions of the various elements in the drawings are for illustrative purposes only and do not represent the actual implementation of this application.

[0068] In addition, it should be noted that, in order to make the disclosed content more concise and easy to understand, the same or similar functional elements in the following embodiments will be described using the same symbols, and the description of the same or equal features will be omitted.

[0069] This application provides at least one conductive member that can dock with a mating member, and the conductive member has an electrical connector, a force-applying band, a conductive wire, and an insulating shell assembly. The electrical connector has a snap-fit ​​structure that can engage the mating member. The conductive wire can electrically connect to the electrical connector to transmit electrical signals. The insulating shell assembly can guide the extension of the conductive wire and the force-applying band, such that the direction in which the conductive wire and the force-applying band extend out of the insulating shell assembly is as expected. Thus, the conductive wire and the force-applying band can extend within the limited internal space of an electronic product, and the force-applying band can extend to apply force to the distal end of the electrical connector to actuate the snap-fit ​​structure, thereby releasing the snap-fit ​​relationship between the electrical connector and the mating member. This allows the conductive member to be used in electronic products with limited internal space, thereby enabling the conductive member to be used in thin and light electronic products.

[0070] Please refer to the description of the embodiments disclosed in this application. Figures 1 to 11 .At Figures 1 to 11 In the illustrated embodiment, the conductive component 1 of this application can be coupled with a mating component 2 on an electronic product to allow the conductive component 1 to mate with the mating component 2 and provide the transmission of electrical signals. The conductive component 1 includes: an electrical connector 11, a force-applying band 12, a conductive wire 13, and an insulating shell assembly 14. It should be noted that any component capable of transmitting electrical signals can serve as the mating component 2. For example, the mating component 2 is an electrical connector component or a conductive metal component.

[0071] Regarding the electrical connector 11, the electrical connector 11 has an electrical connector body 110 and a conductive terminal 111. The electrical connector body 110 is, for example, an insulating core, such as... Figure 2 as well as Figure 7As shown, the electrical connector body 110 has an electrical connector body mating port 1101, an electrical connector body overlapping port 1102, an electrical connector body snap-fit ​​structure 1103 and an electrical connector body engagement structure 1104.

[0072] Regarding the electrical connector body snap-fit ​​structure 1103, as follows: Figure 7 As shown, the electrical connector body snap-fit ​​structure 1103 provides snap-fit ​​functionality. Correspondingly, the electrical connector body snap-fit ​​structure 1103 includes an electrical connector body snap-fit ​​structure actuating part 11031, an electrical connector body snap-fit ​​structure elastic part 11032, and an electrical connector body snap-fit ​​structure snap-fit ​​part 11033. It should be noted that the electrical connector body snap-fit ​​structure elastic part 11032 is connected to both the electrical connector body snap-fit ​​structure actuating part 11031 and the electrical connector body snap-fit ​​structure elastic part 11032. Thus, the force-applying band actuating segment 121 can force the electrical connector body snap-fit ​​structure elastic part 11032 to deform, thereby actuating the electrical connector body snap-fit ​​structure actuating part 11031. Optionally, the electrical connector body snap-fit ​​structure elastic part 11032 can be a spring arm structure.

[0073] For the conductive terminal 111, such as Figure 7 As shown, the conductive terminal 111 can provide electrical signal transmission. Correspondingly, the conductive terminal 111 has a conductive terminal mating end 1111 and a conductive terminal overlapping end 1112. The conductive terminal mating end 1111 is for mating with the mating member 2, while the conductive terminal overlapping end 1112 is for overlapping the conductive wire 13. It should be noted that the electrical connector body 110 can engage the conductive terminal 111, such that the conductive terminal mating end 1111 is located at the electrical connector body mating port 1101, and the conductive terminal overlapping end 1112 is located at the electrical connector body overlapping port 1102.

[0074] Regarding the force-applying band 12, the force-applying band 12 can provide force application. Accordingly, the force-applying band 12 has a force-applying band actuating section 121, an internal extension section 122, and an external extension section 123. For example... Figure 7 As shown, the two ends of the inner extension section 122 of the force-applying band are respectively connected to the actuating section 121 of the force-applying band and the outer extension section 123 of the force-applying band; that is, the actuating section 121 and the outer extension section 123 of the force-applying band are located at the two ends of the force-applying band 12. Figure 7As shown, the force-applying band actuating section 121 is connected to the electrical connector body locking structure actuating part 11031 (or the electrical connector body locking structure 1103), so that the force-applying band actuating section 121 can actuate the electrical connector body locking structure actuating part 11031 (or the electrical connector body locking structure 1103).

[0075] Regarding the conductive wire 13, as Figure 6 As shown, the conductive wire 13 can provide the transmission of electrical signals. Accordingly, the conductive wire 13 has a conductive wire overlap section 131, an inner conductive wire extension section 132, and an outer conductive wire extension section 133. The two ends of the inner conductive wire extension section 132 are respectively connected to the conductive wire overlap section 131 and the outer conductive wire extension section 133, that is, the conductive wire overlap section 131 and the outer conductive wire extension section 133 are respectively located at the two ends of the conductive wire 13.

[0076] Regarding the insulating housing assembly 14, the insulating housing assembly 14 has a first insulating housing 141 and a second insulating housing 142. The first insulating housing 141 and the second insulating housing 142 can be combined to form an insulating housing assembly B, which can be disassembled, assembled, guided, and extended, accordingly. Figures 1 to 8 In the illustrated embodiment, the insulating housing assembly B has an insulating housing assembly slot structure B0, an insulating housing assembly internal space B1, an insulating housing assembly wire extension guide structure B2, an insulating housing assembly wire extension port B3, an insulating housing assembly strip extension guide structure B4, an insulating housing assembly strip extension port B5, an insulating housing assembly joining structure B6, an insulating housing assembly disassembly structure B7, and an insulating housing assembly assembly combination structure B8.

[0077] At Figure 6 In the illustrated embodiment, the insulating shell assembly bonding structure B6 and the electrical connector body bonding structure 1104 are a mating concave-convex structure, so that the insulating shell assembly B can engage with the electrical connector body 110. Figure 8In the illustrated embodiment, the insulating housing assembly disassembly structure B7 is, for example, a detachable snap-fit ​​structure, allowing the insulating housing assembly B to be disassembled, exposing the internal space B1 of the insulating housing assembly. This allows the electrical connector body lap joint 1102, the conductive wire lap joint 131, the conductive wire internal extension 132, and the force-applying band internal extension 122 to enter the internal space B1 of the insulating housing assembly. Consequently, the conductive wire lap joint 131 can electrically lap the conductive terminal lap joint 1112 at the electrical connector body lap joint 1102.

[0078] At Figure 8 In the illustrated embodiment, the insulating housing assembly structure B8 is, for example, a combinable snap-fit ​​structure, allowing the insulating housing assembly structure B8 to combine the first insulating housing 141 and the second insulating housing 142, so that the insulating housing assembly engagement structure B6 can engage the electrical connector body engagement structure 1104, thereby maintaining the relative positional relationship between the insulating housing assembly 14 and the electrical connector 11, and allowing the insulating housing assembly wire extension guide structure B2 to guide the internal extension segment 132 of the conductive wire to the insulating housing assembly. The internal space B1 extends, thereby allowing the external extension segment 133 of the conductive wire to extend out of the internal space B1 of the insulating shell assembly via the wire extension port B3 in a wire extension direction D1. The insulating shell assembly band extension guide structure B4 guides the internal extension segment 122 of the force-applying band to extend within the internal space B1 of the insulating shell assembly, thereby allowing the external extension segment 123 of the force-applying band to extend out of the internal space B1 of the insulating shell assembly via the band extension port B5 in a band extension direction D2. Optionally, the wire extension guide structure B2 and the band extension guide structure B4 of the insulating shell assembly can be guide wall structures, guide groove structures, or guide hole structures.

[0079] It should be noted that, Yu Figure 1In the illustrated embodiment, the wire extension direction D1 and the strip extension direction D2 are substantially different, ensuring that the conductive wire 13 and the force-applying strip 12 extend from the insulating outer shell assembly 14 in the expected direction. This allows the conductive member 1 to be used in electronic products with limited internal space, enabling the conductive member 1 to be used in thin and light electronic products. Alternatively, the wire extension direction D1 and the strip extension direction D2 can be substantially perpendicular, allowing the conductive wire 13 and the force-applying strip 12 to extend within the limited internal space of electronic products, enabling their use in thin and light electronic products. However, it should be noted that the wire extension direction D1 and the strip extension direction D2 can still be chosen to be non-substantially perpendicular to accommodate the limited internal space in electronic products.

[0080] Additionally, it should be noted that the electrical connector body docking port 1101 can dock with the docking member 2, allowing the conductive terminal docking end 1111 to be electrically connected to the docking member 2 to transmit electrical signals. Correspondingly, the electrical connector body snap-fit ​​structure snap-fit ​​part 11033 (or the electrical connector body snap-fit ​​structure 1103) can snap onto the docking member 2 to maintain the state of the electrical connector body docking port 1101 docking with the docking member 2.

[0081] Furthermore, it should be noted that the external extension 123 of the force-applying band can extend to apply force outside the internal space B1 of the insulating shell assembly, and at the distal end of the electrical connector 11, the actuating section 121 of the force-applying band actuates the actuating part 11031 of the electrical connector body locking structure (or, the electrical connector body locking structure 1103), causing the elastic part 11032 of the electrical connector body locking structure to elastically deform, thereby releasing the state in which the locking part 11033 of the electrical connector body locking structure (or, the electrical connector body locking structure 1103) is locked to the mating member 2. In this way, the force-applying band 12 can pull the electrical connector body locking structure 1103 at the distal end of the electrical connector 11 in electronic products with limited internal space, making it easy for the connector 11 to release its mating relationship with the mating member 2, thereby allowing the conductive member 1 to be used in thin and light electronic products.

[0082] At Figure 8 In the illustrated embodiment, the slot structure B0 of the insulating housing assembly allows the force-applying band actuating segment 121 and the electrical connector body snap-fit ​​structure 1103 to pass through the insulating housing assembly B, so as to avoid the insulating housing assembly B interfering with the force-applying band actuating segment 121 actuating the electrical connector body snap-fit ​​structure 1103.

[0083] Optionally, at Figures 9 to 11In the embodiment shown, the insulating shell assembly 14 further includes an insulating shell connection structure 143, which connects the first insulating shell 141 and the second insulating shell 142, so that the first insulating shell 141 and the second insulating shell 142 can be connected as one unit, thereby preventing the first insulating shell 141 and the second insulating shell 142 from separating.

[0084] Alternatively, the wire extension port B3 of the insulating housing assembly may be disposed in at least one of the first insulating housing 141 and the second insulating housing 142; and the strap extension port B5 of the insulating housing assembly may be disposed in the first insulating housing 141 or the second insulating housing 142.

[0085] It should be noted that the electrical connector of this application may omit some components and is not limited to the above embodiments. For example, the electrical connector of this application may optionally include only: an electrical connector, a force-applying band, a conductive wire, and an insulating shell assembly. The electrical connector has an electrical connector body and conductive terminals. The electrical connector body has an electrical connector body mating port, an electrical connector body overlapping port, an electrical connector body snap-fit ​​structure, and an electrical connector body engaging structure. The conductive terminals have conductive terminal overlapping ends. The electrical connector body engages with the conductive terminals, such that the conductive terminal overlapping ends are located at the electrical connector body overlapping port. The force-applying band has a force-applying band actuating section, an internal extension section, and an external extension section; wherein, the force-applying band actuating section is connected to the electrical connector body snap-fit ​​structure. The conductive wire has a conductive wire overlapping section, an internal extension section, and an external extension section. The insulating housing assembly includes a first insulating housing and a second insulating housing, which can be assembled into an insulating housing assembly. The insulating housing assembly includes an internal space, a wire extension guide structure, a wire extension port, a strap extension guide structure, a strap extension port, a joining structure, a disassembly structure, and an assembly structure. The disassembly structure allows the insulating housing assembly to be disassembled, enabling the connector body's lap joint, conductive wire lap section, conductive wire internal extension section, and force-applying strap internal extension section to enter the internal space. This allows the conductive wire lap section to electrically lap the conductive terminal lap joint at the connector body lap joint. The assembly structure combines the first and second insulating housings, allowing the insulating housing assembly joining structure to engage with the connector body joining structure, thus enabling the insulating housing... The assembly wire extension guide structure guides the internal extension section of the conductive wire to extend within the internal space of the insulating shell assembly, thereby causing the external extension section of the conductive wire to extend into the internal space of the insulating shell assembly via the wire extension port in the wire extension direction. The insulating shell assembly tape extension guide structure also guides the internal extension section of the force-applying tape to extend within the internal space of the insulating shell assembly, thereby causing the external extension section of the force-applying tape to extend into the internal space of the insulating shell assembly via the tape extension port in the tape extension direction. The wire extension direction and the tape extension direction are substantially different. The connector body mating port can mate with the mating component, and the connector body locking structure can lock the mating component to maintain the connector body mating port's mating with the mating component. Furthermore, the external extension section of the force-applying tape can extend and apply force outside the internal space of the insulating shell assembly, causing the force-applying tape actuating section to actuate the connector body locking structure, thereby releasing the connector body locking structure from locking the mating component.

[0086] In summary, the conductive component of this application can be coupled with a mating component, and the conductive component has an electrical connector, a force-applying band, a conductive wire, and an insulating shell assembly. The electrical connector has a snap-fit ​​structure that can snap onto the mating component. One end of the force-applying band can be connected to the snap-fit ​​structure, while the other end of the force-applying band extends to the distal end of the electrical connector to apply force to actuate the snap-fit ​​structure, thereby releasing the snap-fit ​​relationship between the electrical connector and the mating component. The conductive wire can electrically connect to the electrical connector to transmit electrical signals. The insulating shell assembly can guide the extension of the conductive wire and the force-applying band, so that the direction in which the conductive wire and the force-applying band extend out of the insulating shell assembly is as expected. In this way, the conductive wire and the force-applying band can extend within the limited internal space of the electronic product, allowing the conductive component to be used in electronic products with limited internal space, thereby enabling the conductive component to be used in thin and light electronic products.

[0087] The above embodiments are merely illustrative of the principles and effects of this application and are not intended to limit this application. Any person skilled in the art can modify and alter the above embodiments without departing from the spirit and scope of this application. Therefore, the scope of protection of this application should be as set forth in the claims.

Claims

1. A conductive component, which can be used with a mating component, characterized in that, The conductive component includes: An electrical connector has an electrical connector body and a conductive terminal. The electrical connector body has an electrical connector body mating port, an electrical connector body overlapping port, an electrical connector body snap-fit ​​structure and an electrical connector body engaging structure. The conductive terminal has a conductive terminal overlapping end. The electrical connector body engages with the conductive terminal, such that the conductive terminal overlapping end is located at the electrical connector body overlapping port. A force-applying band body, the force-applying band body having a force-applying band body actuating section, an internal extension section of the force-applying band body and an external extension section of the force-applying band body; wherein, the force-applying band body actuating section is connected to the electrical connector body snap-fit ​​structure. A conductive wire, the conductive wire having a conductive wire overlap section, an inner conductive wire extension section, and an outer conductive wire extension section; and An insulating housing assembly includes a first insulating housing and a second insulating housing, which can be combined to form an insulating housing assembly. The insulating housing assembly includes an internal space, a wire extension guide structure, a wire extension port, a strap extension guide structure, a strap extension port, a joining structure, a disassembly structure, and a joining structure. The disassembly structure allows the insulating housing assembly to be disassembled, enabling the electrical connector body overlap port, the conductive wire overlap section, the conductive wire internal extension section, and the force-applying strap internal extension section to enter the internal space of the insulating housing assembly. This allows the conductive wire overlap section to be connected to the electrical connector body. The connector body's contact port electrically contacts the conductive terminal's contact end. The insulating shell assembly structure can combine the first insulating shell and the second insulating shell, allowing the insulating shell assembly joining structure to engage with the electrical connector body joining structure. This allows the insulating shell assembly wire extension guide structure to guide the internal extension section of the conductive wire to extend within the internal space of the insulating shell assembly. Furthermore, the external extension section of the conductive wire extends into the internal space of the insulating shell assembly via the insulating shell assembly wire extension port in a wire extension direction. Additionally, the insulating shell assembly tape extension guide structure guides the internal extension section of the force-applying tape to extend within the internal space of the insulating shell assembly. This allows the external extension section of the force-applying tape to extend into the internal space of the insulating shell assembly via the insulating shell assembly tape extension port in a tape extension direction. Wherein... The direction in which the wire extends is substantially different from the direction in which the tape extends; The electrical connector body docking port can dock with the docking component, and the electrical connector body snap-fit ​​structure can snap with the docking component to maintain the state of the electrical connector body docking port docking with the docking component; and The external extension of the force-applying band can extend to apply force outside the internal space of the insulating shell assembly, thereby causing the actuating section of the force-applying band to actuate the electrical connector body locking structure, so as to release the state of the electrical connector body locking structure locking the mating member.

2. The conductive component according to claim 1, characterized in that, The wire extension guide structure and the strip extension guide structure of the insulating shell assembly are guide wall structures, guide groove structures or guide hole structures.

3. The conductive component according to claim 1, characterized in that, The insulating housing assembly also has an insulating housing assembly slot structure, which allows the force-applying band actuating section and the electrical connector body locking structure to pass through the insulating housing assembly, so as to avoid the insulating housing assembly interfering with the force-applying band actuating section actuating the electrical connector body locking structure.

4. The conductive component according to claim 1, characterized in that, The disassembly structure of the insulating shell assembly and the assembly structure of the insulating shell assembly are fastened together.

5. The conductive component according to claim 1, characterized in that, The insulating shell assembly joining structure and the electrical connector body joining structure are a concave-convex structure with structural fit.

6. The conductive component according to claim 1, characterized in that, The electrical connector body snap-fit ​​structure has an actuating part, an elastic part, and a snap-fit ​​part. The snap-fit ​​part can snap onto the mating member. The actuating section of the force-applying band is connected to the actuating part. The external extension of the force-applying band can apply force to actuate the actuating part, causing the elastic part to elastically deform and release the snap-fit ​​part from the mating member.

7. The conductive component according to claim 1, characterized in that, The wire extension port of the insulating housing assembly is disposed in at least one of the first insulating housing and the second insulating housing; and the tape extension port of the insulating housing assembly is disposed in the first insulating housing or the second insulating housing.

8. The conductive component according to claim 1, characterized in that, The connector body is an insulating rubber core.

9. The conductive component according to claim 1, characterized in that, The direction in which the wire extends can be substantially perpendicular to the direction in which the tape extends.

10. The conductive component according to claim 1, characterized in that, The insulating shell assembly also has an insulating shell connection structure that connects the first insulating shell and the second insulating shell.

11. The conductive component according to claim 1, characterized in that, The conductive terminal also has a conductive terminal mating end, which is located at the mating port of the electrical connector body and is mated to the mating member at the mating port of the electrical connector body. The conductive terminal mating end is electrically connected to the mating member.

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