Electrical connector

Abstract

The present application provides an electrical connector, which is composed of a plurality of components, wherein one of the plurality of components can be plugged into another, and the shape or size of the plurality of components can be customized, so that after the design of the electrical connector is completed, the shape or size of the electrical connector can be flexibly adapted to the use of the electronic device by adjusting the plugged components, so as to meet the special needs and development of the electronic device.

Description

Technical Field

[0001] This application relates to the field of electronic device technology, and more specifically, to an electrical connector that can be flexibly adapted to the use of electronic devices. Background Technology

[0002] Note that electrical connectors have been widely used in various electronic devices in recent years. However, once the design of an electrical connector is completed, its shape or size often cannot be modified according to requirements, which limits its application and operating environment. As a result, electrical connectors are difficult to adapt flexibly to electronic devices.

[0003] As can be seen from the above, how to solve the problem that the shape or size of electrical connectors cannot be modified according to requirements after the design is completed is a problem that people in this technical field urgently need to solve. Summary of the Invention

[0004] In view of the shortcomings of the prior art, this application provides an electrical connector capable of transmitting a positive current and a negative current. The electrical connector includes: a core component, the core component including a positive core mating space and a negative core mating space; and a plug-in component, the plug-in component including a conductive plate assembly and a conductive terminal assembly; wherein the conductive plate assembly includes a positive conductive plate and a negative conductive plate, the positive conductive plate including a positive conductive plate plug-in structure, a first positive conductive plate assembly structure and a second positive conductive plate assembly structure, wherein the positive conductive plate plug-in structure can plug into the core component, allowing the positive conductive plate to enter the positive core mating space; and the negative conductive plate including a negative conductive plate plug-in structure, a first negative conductive plate assembly structure and a second negative conductive plate assembly structure, wherein the negative... The conductive plate insertion structure can be inserted into the core component, allowing the negative conductive plate to enter the negative core mating space; and the conductive terminal group includes a first positive conductive terminal, a second positive conductive terminal, a first negative conductive terminal, and a second negative conductive terminal, wherein the first positive conductive terminal and the second positive conductive terminal can be respectively connected to the first positive conductive plate connection structure and the second positive conductive plate connection structure, so that the positive conductive plate is electrically connected to the first positive conductive terminal and the second positive conductive terminal to transmit the positive current; and the first negative conductive terminal and the second negative conductive terminal can be respectively connected to the first negative conductive plate connection structure and the second negative conductive plate connection structure, so that the negative conductive plate is electrically connected to the first negative conductive terminal and the second negative conductive terminal to transmit the negative current.

[0005] Preferably, in the electrical connector of this application, the first positive conductive plate assembly structure, the second positive conductive plate assembly structure, the first negative conductive plate assembly structure and the second negative conductive plate assembly structure are welded structures or riveted structures.

[0006] Preferably, in the electrical connector of this application, the insertion component further includes a conductive wire group, the conductive wire group including a first positive conductive wire, a second positive conductive wire, a first negative conductive wire, and a second negative conductive wire, wherein the first positive conductive terminal includes a first positive conductive terminal overlap structure, the first positive conductive terminal overlap structure being capable of overlapping the first positive conductive wire to transmit the positive current; the second positive conductive terminal includes a second positive conductive terminal overlap structure. The first negative conductive terminal includes a first negative conductive terminal connection structure, which is capable of connecting the second positive conductive wire to transmit the positive current; the second negative conductive terminal includes a second negative conductive terminal connection structure, which is capable of connecting the first negative conductive wire to transmit the negative current; and the third negative conductive terminal includes a second negative conductive terminal connection structure, which is capable of connecting the second negative conductive wire to transmit the negative current.

[0007] Preferably, in the electrical connector of this application, the first positive conductive terminal overlap structure, the second positive conductive terminal overlap structure, the first negative conductive terminal overlap structure and the second negative conductive terminal overlap structure can be welded structures or riveted structures.

[0008] Preferably, in the electrical connector of this application, the first positive conductive terminal includes a first positive conductive terminal assembly structure, which is provided for assembling the first positive conductive plate assembly structure; the second positive conductive terminal includes a second positive conductive terminal assembly structure, which is provided for assembling the second positive conductive plate assembly structure; the first negative conductive terminal includes a first negative conductive terminal assembly structure, which is provided for assembling the first negative conductive plate assembly structure; and the second negative conductive terminal includes a second negative conductive terminal assembly structure, which is provided for assembling the second negative conductive plate assembly structure; wherein the first positive conductive terminal assembly structure, the second positive conductive terminal assembly structure, the first negative conductive terminal assembly structure, and the second negative conductive terminal assembly structure can be welded structures, riveted structures, or screwed structures.

[0009] Preferably, in the electrical connector of this application, the core component further includes a core mating tongue structure. The core mating tongue structure is located between the positive polarity core mating space and the negative polarity core mating space. The positive polarity conductive plate insertion structure and the positive polarity conductive plate insertion structure can respectively insert into the core mating tongue structure. The core mating tongue structure can respectively provide support for the positive polarity conductive plate and the negative polarity conductive plate, and the core mating tongue structure can also electrically separate the positive polarity conductive plate and the negative polarity conductive plate.

[0010] Preferably, in the electrical connector of this application, the core component includes a positive core snap-fit ​​structure and a negative core snap-fit ​​structure; wherein, the positive core snap-fit ​​structure is capable of snapping the positive conductive plate, so that the state of the positive conductive plate entering the positive core mating space is not easily changed; and the negative core snap-fit ​​structure is capable of snapping the negative conductive plate, so that the state of the negative conductive plate entering the negative core mating space is not easily changed.

[0011] Preferably, in the electrical connector of this application, the positive polarity core snap-fit ​​structure and the negative polarity core snap-fit ​​structure are located in the core mating tongue structure.

[0012] Preferably, in the electrical connector of this application, the positive polarity core snap-fit ​​structure and the negative polarity core snap-fit ​​structure can be spring arm snap-fit ​​structures.

[0013] Preferably, in the electrical connector of this application, the positive conductive plate includes a positive plate snap-fit ​​structure, which can snap the core component, so that the state of the positive conductive plate entering the positive core mating space is not easily changed; and the negative conductive plate includes a negative plate snap-fit ​​structure, which can snap the core component, so that the state of the negative conductive plate entering the negative core mating space is not easily changed.

[0014] Preferably, in the electrical connector of this application, the positive polarity plate snap-fit ​​structure and the negative polarity plate snap-fit ​​structure can respectively snap-fit ​​the rubber core mating tongue structure.

[0015] Preferably, in the electrical connector of this application, the positive polarity plate snap-fit ​​structure and the negative polarity plate snap-fit ​​structure are groove snap-fit ​​structures.

[0016] Preferably, in the electrical connector of this application, the electrical connector can be coupled with a mating member to transmit the positive current and the negative current. The positive conductive plate further includes a positive conductive plate mating structure located in the positive core mating space to provide mating with the mating member for transmitting the positive current. Similarly, the negative conductive plate further includes a negative conductive plate mating structure located in the negative core mating space to provide mating with the mating member for transmitting the negative current.

[0017] Preferably, in the electrical connector of this application, the positive polarity conductive plate mating structure and the negative polarity conductive plate mating structure are surface contact mating structures.

[0018] Preferably, in the electrical connector of this application, the core component further includes a core guiding structure, a first positive core assembly space, a second positive core assembly space, a first negative core assembly space, and a second negative core assembly space. The core guiding structure can guide the positive conductive plate insertion structure to insert into the core component, so that the first positive conductive plate assembly structure and the second positive conductive plate assembly structure respectively enter the first positive core assembly space and the second positive core assembly space. The core guiding structure can also guide the negative conductive plate insertion structure to insert into the core component, so that the first negative conductive plate assembly structure and the second negative conductive plate assembly structure respectively enter the first negative core assembly space and the second negative core assembly space.

[0019] Preferably, in the electrical connector of this application, the core guiding structure can be a guide groove structure or a guide rail structure.

[0020] Preferably, in the electrical connector of this application, the electrical connector can be a power connector.

[0021] Compared to prior art, the electrical connector of this application is composed of at least a core component and a plug-in component, wherein the plug-in component can be plugged into the core component, and the shape or size of the core component and the plug-in component can be customized. That is, the shape or size of the core component and the plug-in component can be adjusted and changed. Therefore, after the electrical connector design is completed, the shape or size of the electrical connector can still be customized by adjusting the plugged core component and the plug-in component, so that the shape or size of the electrical connector can flexibly adapt to the use of electronic devices and meet the special needs and development of electronic devices. Attached Figure Description

[0022] The features and other advantages of this application will be more clearly understood in conjunction with the following description of embodiments.

[0023] Figure 1 The present application provides a first-view perspective perspective view of an embodiment of the electrical connector.

[0024] Figure 2 The present application provides a perspective view of the electrical connector in one embodiment.

[0025] Figure 3 The present application provides a first-view perspective perspective view of an embodiment of the electrical connector.

[0026] Figure 4 The present application provides a perspective view of the electrical connector in one embodiment.

[0027] Figure 5 The diagram shows a front view of an embodiment of the electrical connector described in this application.

[0028] Figure 6 , Figure 5 The diagram shows a cross-section of a portion of the electrical connector cut along line segment AA.

[0029] Figure 7 The present application provides a perspective view of an embodiment of the electrical connector.

[0030] Figure 8 The present application provides a perspective view of an embodiment of the electrical connector.

[0031] Figure 9 The present application shows a cross-sectional schematic diagram of the electrical connector in one embodiment.

[0032] Figure 10 The present application shows a cross-sectional schematic diagram of the electrical connector in one embodiment.

[0033] Figure 11 The present application provides a first-view perspective perspective view of an embodiment of the electrical connector.

[0034] Figure 12 The present application provides a perspective view of the electrical connector in one embodiment.

[0035] Figure 13 The present application provides a first-view perspective perspective view of an embodiment of the electrical connector.

[0036] Figure 14 The present application provides a perspective view of the electrical connector in one embodiment.

[0037] Figure 15 The diagram shows a front view of an embodiment of the electrical connector described in this application.

[0038] Figure 16 , Figure 5 The diagram shows a cross-section of a portion of the electrical connector cut along line segment AA.

[0039] Figure 17 The present application provides a perspective view of an embodiment of the electrical connector.

[0040] Figure 18 The present application provides a perspective view of an embodiment of the electrical connector.

[0041] Figure 19 The present application shows a cross-sectional schematic diagram of the electrical connector in one embodiment.

[0042] Figure 20 The present application shows a cross-sectional schematic diagram of the electrical connector in one embodiment.

[0043] Component designation explanation

[0044] 1 Electrical connector 12123 Second negative polarity conductive plate assembly structure 11 Glue core component 12124 Negative polarity plate snap-fit ​​structure

[0045] 110 Tongue-shaped structure for core-to-core connection; 12125 Negative polarity conductive plate connection structure.

[0046] 111 Positive polarity core snap-fit ​​structure 122 Conductive terminal group

[0047] 112 Negative polarity core snap-fit ​​structure 12211 First positive polarity conductive terminal

[0048] 113 Core guiding structure 122111 First positive polarity conductive terminal overlap structure S11 Positive polarity core mating space 122112 First positive polarity conductive terminal assembly structure S12 Negative polarity core mating space 12212 Second positive polarity conductive terminal

[0049] S211 First positive polarity core assembly space 122121 Second positive polarity conductive terminal overlap structure S212 Second positive polarity core assembly space 122122 Second positive polarity conductive terminal assembly structure S221 First negative polarity core assembly space 12221 First negative polarity conductive terminal

[0050] S222 Second negative polarity core assembly space 122211 First negative polarity conductive terminal overlap structure 12 Insertion component 122212 First negative polarity conductive terminal assembly structure 121 Conductive plate assembly 12222 Second negative polarity conductive terminal

[0051] 1211 Positive conductive plate; 122221 Second negative conductive terminal overlap structure; 12111 Positive conductive plate insertion structure; 122222 Second negative conductive terminal assembly structure; 12112 First positive conductive plate assembly; 123 Conductive wire assembly.

[0052] Structure

[0053] 12113 Second positive polarity conductive plate assembly connection 12311 First positive polarity conductive wire

[0054] Structure

[0055] 12114 Positive polarity plate snap-fit ​​structure; 12312 Second positive polarity conductive wire.

[0056] 12115 Positive polarity conductive plate butt structure 12321 First negative polarity conductive wire

[0057] 1212 Negative polarity conductive plate; 12322 Secondary negative polarity conductive wire.

[0058] 12121 Negative polarity conductive plate plug-in structure 2 Butt joint component

[0059] 12122 First negative polarity conductive plate assembly connection

[0060] Structure Detailed Implementation

[0061] 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 the other advantages and effects of this application from the content disclosed in this specification. This application can be implemented or applied through other different specific embodiments. Various details in this specification can 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 components in the drawings are for illustrative purposes only and do not represent the actual implementation of this application.

[0062] The electrical connector of this application is composed of multiple components, one of which can be plugged into another, and the shape or size of the multiple components can be customized. Therefore, after the electrical connector is designed, the shape or size of the electrical connector can still be customized by adjusting the multiple plugged components, so that the shape or size of the electrical connector can flexibly adapt to the use of electronic devices and meet the special needs and development of electronic devices.

[0063] Please refer to the description of the embodiments disclosed in this application. Figures 1 to 20 .

[0064] At Figures 1 to 20In the embodiments shown, this application provides at least one electrical connector 1 that can be disposed in an electronic device, wherein the electrical connector 1 can be coupled with a mating member 2 to transmit a positive current and a negative current.

[0065] It should be noted that the electrical connector 1 can be, but is not limited to, a power connector, and correspondingly, the mating member 2 can be, but is not limited to, a power supply member capable of providing the positive current and the negative current.

[0066] At Figures 1 to 20 In the embodiment shown, the electrical connector 1 includes at least one core component 11 and at least one insertion component 12.

[0067] The core component 11 can be, but is not limited to, an insulating core component. The core component 11 includes at least one core mating tongue structure 110, at least one positive core mating space S11, and at least one negative core mating space S12. In the above embodiment, the core mating tongue structure 110 is located between the positive core mating space S11 and the negative core mating space S12.

[0068] Regarding the plug-in component 12, the plug-in component 12 includes at least one conductive plate group 121, at least one conductive terminal group 122, and at least one conductive wire group 123.

[0069] The conductive plate assembly 121 includes at least one positive conductive plate 1211 and at least one negative conductive plate 1212. In the above embodiment, the positive conductive plate 1211 includes at least one positive conductive plate insertion structure 12111, at least one first positive conductive plate assembly structure 12112, at least one second positive conductive plate assembly structure 12113, and at least one positive conductive plate docking structure 12115; and the negative conductive plate 1212 includes at least one negative conductive plate insertion structure 12121, at least one first negative conductive plate assembly structure 12122, at least one second negative conductive plate assembly structure 12123, and at least one negative conductive plate docking structure 12125.

[0070] It should be noted that the positive conductive plate insertion structure 12111 can be inserted into the core component 11, allowing the positive conductive plate 1211 to enter the positive core docking space S11, while the positive conductive plate docking structure 12115 is located in the positive core docking space S11, providing a connection to the docking component 2 for transmitting the positive current. Additionally, the negative conductive plate insertion structure 12121 can be inserted into the core component 11, allowing the negative conductive plate 1212 to enter the negative core docking space S12, while the negative conductive plate docking structure 12125 is located in the negative core docking space S12, providing a connection to the docking component 2 for transmitting the negative current.

[0071] It should be noted that the positive polarity conductive plate docking structure 12115 and the negative polarity conductive plate docking structure 12125 can be, but are not limited to, surface contact docking structures, so that the positive polarity conductive plate docking structure 12115 and the negative polarity conductive plate docking structure 12125 can respectively make surface contact with the docking member 2, thereby improving the transmission efficiency of the positive polarity current and the negative polarity current.

[0072] In the above embodiments, the positive conductive plate insertion structure 12111 and the negative conductive plate insertion structure 12112 can respectively provide support for the positive conductive plate and the negative conductive plate to avoid unexpected stress deformation of the positive conductive plate 1211 and the negative conductive plate 1212. The glue core mating tongue structure 110 can also be inserted into the glue core mating tongue structure 110 respectively. The glue core mating tongue structure 110 can provide insulation and electrically separate the positive conductive plate 1211 and the negative conductive plate 1212 to avoid unexpected circuit short circuit between the positive conductive plate 1211 and the negative conductive plate 1212.

[0073] At Figures 9 to 10 and Figures 19 to 20In the illustrated embodiment, the adhesive core component 11 includes a positive polarity adhesive core engaging structure 111 and a negative polarity adhesive core engaging structure 112. The positive polarity adhesive core engaging structure 111 can engage the positive polarity conductive plate 1211, making it difficult for the positive polarity conductive plate 1211 to change its state within the positive polarity adhesive core mating space S11; that is, it can prevent the positive polarity conductive plate 1211 from easily detaching from the positive polarity adhesive core mating space S11. Similarly, the negative polarity adhesive core engaging structure 112 can engage the negative polarity conductive plate 1212, making it difficult for the negative polarity conductive plate 1212 to change its state within the negative polarity adhesive core mating space S12; that is, it can prevent the negative polarity conductive plate 1212 from easily detaching from the negative polarity adhesive core mating space S12.

[0074] Accordingly, the positive conductive plate 1211 includes a positive plate snap-fit ​​structure 12114; wherein, the positive plate snap-fit ​​structure 12114 can snap the core component 11, so that the state of the positive conductive plate 1211 entering the positive core docking space S11 is not easily changed, that is, the positive conductive plate 1211 entering the positive core docking space S11 can be prevented from easily detaching; and the negative conductive plate 1212 includes a negative plate snap-fit ​​structure 12124; wherein, the negative plate snap-fit ​​structure 12124 can snap the core component 11, so that the state of the negative conductive plate 1212 entering the negative core docking space S12 is not easily changed, that is, the negative conductive plate 1212 entering the negative core docking space S12 can be prevented from easily detaching.

[0075] In the above embodiments, the positive polarity core locking structure 111 and the negative polarity core locking structure 112 are located on the core mating tongue structure 110, and the positive polarity core locking structure 111 and the negative polarity core locking structure 112 can be, but are not limited to, a spring arm locking structure. Correspondingly, the positive polarity plate locking structure 12114 and the negative polarity plate locking structure 12124 can respectively lock onto the core mating tongue structure 110, and the positive polarity plate locking structure 12114 and the negative polarity plate locking structure 12124 can be, but are not limited to, a groove locking structure.

[0076] The conductive terminal group 122 includes at least one first positive conductive terminal 12211, at least one second positive conductive terminal 12212, at least one first negative conductive terminal 12221, and at least one second negative conductive terminal 12222.

[0077] It should be noted that, in the above embodiments, the first positive conductive terminal 12211 and the second positive conductive terminal 12212 can be respectively connected to the first positive conductive plate assembly structure 12112 and the second positive conductive plate assembly structure 12113, so that the positive conductive plate 1211 is electrically connected to the first positive conductive terminal 12211 and the second positive conductive terminal 12212 to transmit the positive current. In addition, the first negative conductive terminal 12221 and the second negative conductive terminal 12222 are respectively connected to the first negative conductive plate assembly structure 12122 and the second negative conductive plate assembly structure 12123, so that the negative conductive plate 1212 is electrically connected to the first negative conductive terminal 12221 and the second negative conductive terminal 12222 to transmit the negative current.

[0078] As can be explained, the first positive polarity conductive plate assembly structure 12112, the second positive polarity conductive plate assembly structure 12113, the first negative polarity conductive plate assembly structure 12122, and the second negative polarity conductive plate assembly structure 12123 can be, but are not limited to, welded structures or riveted structures.

[0079] The conductive wire group 123 includes at least one first positive polarity conductive wire 12311, at least one second positive polarity conductive wire 12312, at least one first negative polarity conductive wire 12321, and at least one second negative polarity conductive wire 12322.

[0080] At Figures 3 to 4 , Figure 6 , Figures 9 to 10 , Figures 13 to 14 , Figure 16 and Figures 19 to 20 In the illustrated embodiment, the first positive conductive terminal 12211 includes a first positive conductive terminal overlap structure 122111; the second positive conductive terminal 12212 includes a second positive conductive terminal overlap structure 122121; the first negative conductive terminal 12221 includes a first negative conductive terminal overlap structure 122211; and the second negative conductive terminal 12222 includes a second negative conductive terminal overlap structure 122221.

[0081] It should be noted that the first positive conductive terminal connection structure 122111 can connect to the first positive conductive wire 12311 to transmit the positive current; the second positive conductive terminal connection structure 122121 can connect to the second positive conductive wire 12312 to transmit the positive current; the first negative conductive terminal connection structure 122211 can connect to the first negative conductive wire 12321 to transmit the negative current; and the second negative conductive terminal connection structure 122221 can connect to the second negative conductive wire 12322 to transmit the negative current.

[0082] It should be noted that the first positive polarity conductive terminal overlap structure 122111, the second positive polarity conductive terminal overlap structure 122121, the first negative polarity conductive terminal overlap structure 122211 and the second negative polarity conductive terminal overlap structure 122221 can be, but are not limited to, welded structures or riveted structures.

[0083] At Figures 3 to 4 , Figure 6 , Figures 9 to 10 , Figures 13 to 14 , Figure 16 and Figures 19 to 20 In the illustrated embodiment, the first positive conductive terminal 12211 includes a first positive conductive terminal assembly structure 122112; the second positive conductive terminal 12212 includes a second positive conductive terminal assembly structure 122122; the first negative conductive terminal 12221 includes a first negative conductive terminal assembly structure 122212; and the second negative conductive terminal 12222 includes a second negative conductive terminal assembly structure 122222.

[0084] It should be noted that the first positive polarity conductive terminal assembly structure 122112 is provided to connect to the first positive polarity conductive plate assembly structure 12112; the second positive polarity conductive terminal assembly structure 122122 is provided to connect to the second positive polarity conductive plate assembly structure 12113; the first negative polarity conductive terminal assembly structure 122212 is provided to connect to the first negative polarity conductive plate assembly structure 12122; and the second negative polarity conductive terminal assembly structure 122222 is provided to connect to the second negative polarity conductive plate assembly structure 12123.

[0085] It should be noted that the first positive polarity conductive terminal assembly structure 122112, the second positive polarity conductive terminal assembly structure 122122, the first negative polarity conductive terminal assembly structure 122212, and the second negative polarity conductive terminal assembly structure 122222 can be, but are not limited to, welded structures, riveted structures, or screwed structures.

[0086] At Figure 4 , Figure 6 , Figure 14 and Figure 16 In the illustrated embodiment, the core component 11 further includes a core guiding structure 113, a first positive core connection space S211, a second positive core connection space S212, a first negative core connection space S221, and a second negative core connection space S222. The core guiding structure 113 guides the positive conductive plate insertion structure 12111 to insert into the core component 11, so that the first positive conductive plate connection structure 12112 and the second positive conductive plate connection structure 12113 respectively enter the first positive core connection space S211 and the second positive core connection space S212 to provide connection and transmit the positive current. In addition, the core guiding structure 113 can also guide the negative polarity conductive plate insertion structure 12121 to insert into the core component 11, so that the first negative polarity conductive plate assembly structure 12122 and the second negative polarity conductive plate assembly structure 12123 respectively enter the first negative polarity core assembly space S221 and the second negative polarity core assembly space S222 to provide assembly and transmit the negative polarity current.

[0087] It should be noted that the core guiding structure 113 can be, but is not limited to, a guide groove structure or a guide rail structure.

[0088] It should be noted that, in the embodiments of this application, some of the aforementioned components can be omitted. For example, the electrical connector of this application can be selected to include only a core component and a plug-in component. The core component includes a positive polarity core mating space and a negative polarity core mating space. The plug-in component includes a conductive plate assembly and a conductive terminal assembly; wherein, the conductive plate assembly includes a positive polarity conductive plate and a negative polarity conductive plate, the positive polarity conductive plate includes a positive polarity conductive plate plug-in structure, a first positive polarity conductive plate assembly structure, and a second positive polarity conductive plate assembly structure, wherein the positive polarity conductive plate plug-in structure can plug into the core component, allowing the positive polarity conductive plate to enter the positive polarity core mating space; and the negative polarity conductive plate includes a negative polarity conductive plate plug-in structure, a first negative polarity conductive plate assembly structure, and a second negative polarity conductive plate assembly structure, wherein the negative polarity conductive plate plug-in structure can plug into the core component, allowing the negative polarity conductive plate to enter the negative polarity core mating space; and conductive terminals. The assembly includes a first positive conductive terminal, a second positive conductive terminal, a first negative conductive terminal, and a second negative conductive terminal. The first positive conductive terminal and the second positive conductive terminal are respectively connected to a first positive conductive plate assembly structure and a second positive conductive plate assembly structure, so that the positive conductive plate is electrically connected to the first positive conductive terminal and the second positive conductive terminal to transmit positive current. The first negative conductive terminal and the second negative conductive terminal are respectively connected to a first negative conductive plate assembly structure and a second negative conductive plate assembly structure, so that the negative conductive plate is electrically connected to the first negative conductive terminal and the second negative conductive terminal to transmit negative current.

[0089] In summary, the electrical connector of this application comprises at least a core component and a plug-in component, wherein the plug-in component is capable of plugging into the core component, and the shape or size of the core component and the plug-in component can be customized. That is, the shape or size of the core component and the plug-in component can be adjusted and changed. Therefore, after the electrical connector design is completed, the shape or size of the electrical connector can still be customized by adjusting the plugged-in core component and the plug-in component, so that the shape or size of the electrical connector can flexibly adapt to the use of electronic devices and meet the special needs and development of electronic devices.

[0090] The above embodiments are merely illustrative of the principles and effects of this application and are not intended to limit this application. Anyone 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. An electrical connector, characterized by, The electric connector is capable of transmitting a positive polarity electric current and a negative polarity electric current, and comprises: a rubber core member comprising a positive polarity rubber core docking space and a negative polarity rubber core docking space; and a plug-in member comprising a conductive plate material group and a conductive terminal group; wherein the conductive plate material group comprises a positive polarity conductive plate material and a negative polarity conductive plate material, the positive polarity conductive plate material comprises a positive polarity conductive plate material plug-in structure, a first positive polarity conductive plate material group connecting structure and a second positive polarity conductive plate material group connecting structure, wherein the positive polarity conductive plate material plug-in structure is capable of plugging into the rubber core member so that the positive polarity conductive plate material enters the positive polarity rubber core docking space; and the negative polarity conductive plate material comprises a negative polarity conductive plate material plug-in structure, a first negative polarity conductive plate material group connecting structure and a second negative polarity conductive plate material group connecting structure, wherein the negative polarity conductive plate material plug-in structure is capable of plugging into the rubber core member so as to make the negative polarity conductive plate material enter the negative polarity rubber core docking space; and the conductive terminal group comprises a first positive polarity conductive terminal, a second positive polarity conductive terminal, a first negative polarity conductive terminal and a second negative polarity conductive terminal, wherein the first positive polarity conductive terminal and the second positive polarity conductive terminal are capable of connecting the first positive polarity conductive plate material group connecting structure and the second positive polarity conductive plate material group connecting structure, respectively, so that the positive polarity conductive plate material is electrically connected to the first positive polarity conductive terminal and the second positive polarity conductive terminal to transmit the positive polarity electric current; and the first negative polarity conductive terminal and the second negative polarity conductive terminal are capable of connecting the first negative polarity conductive plate material group connecting structure and the second negative polarity conductive plate material group connecting structure, respectively, so that the negative polarity conductive plate material is electrically connected to the first negative polarity conductive terminal and the second negative polarity conductive terminal to transmit the negative polarity electric current.

2. The electrical connector of claim 1, wherein, The first positive polarity conductive plate material group connecting structure, the second positive polarity conductive plate material group connecting structure, the first negative polarity conductive plate material group connecting structure and the second negative polarity conductive plate group connecting structure are welding structures or riveting structures.

3. The electrical connector of claim 1, wherein, The plug-in member further comprises a conductive wire set, the conductive wire set comprises a first positive polarity conductive wire, a second positive polarity conductive wire, a first negative polarity conductive wire and a second negative polarity conductive wire, wherein the first positive polarity conductive terminal comprises a first positive polarity conductive terminal lapping structure capable of lapping the first positive polarity conductive wire to transmit the positive polarity current; the second positive polarity conductive terminal comprises a second positive polarity conductive terminal lapping structure capable of lapping the second positive polarity conductive wire to transmit the positive polarity current; the first negative polarity conductive terminal comprises a first negative polarity conductive terminal lapping structure capable of lapping the first negative polarity conductive wire to transmit the negative polarity current; and the second negative polarity conductive terminal comprises a second negative polarity conductive terminal lapping structure capable of lapping the second negative polarity conductive wire to transmit the negative polarity current.

4. The electrical connector of claim 3, wherein, The first positive polarity conductive terminal lapping structure, the second positive polarity conductive terminal lapping structure, the first negative polarity conductive terminal lapping structure and the second negative polarity conductive terminal lapping structure can be welding structures or riveting structures.

5. The electrical connector of claim 1, wherein, The first positive polarity conductive terminal comprises a first positive polarity conductive terminal assembly structure providing assembly of the first positive polarity conductive plate assembly structure; the second positive polarity conductive terminal comprises a second positive polarity conductive terminal assembly structure providing assembly of the second positive polarity conductive plate assembly structure; the first negative polarity conductive terminal comprises a first negative polarity conductive terminal assembly structure providing assembly of the first negative polarity conductive plate assembly structure; and the second negative polarity conductive terminal comprises a second negative polarity conductive terminal assembly structure providing assembly of the second negative polarity conductive plate assembly structure; wherein the first positive polarity conductive terminal assembly structure, the second positive polarity conductive terminal assembly structure, the first negative polarity conductive terminal assembly structure and the second negative polarity conductive terminal assembly structure can be welding structures, riveting structures or screwing structures.

6. The electrical connector of claim 1, wherein, The rubber core member further comprises a rubber core butt tongue structure located between the positive polarity rubber core butt space and the negative polarity rubber core butt space, the positive polarity conductive plate plug-in structure and the negative polarity conductive plate plug-in structure can respectively plug in the rubber core butt tongue structure, the rubber core butt tongue structure can respectively provide support for the positive polarity conductive plate and the negative polarity conductive plate, and the rubber core butt tongue structure can also electrically separate the positive polarity conductive plate and the negative polarity conductive plate.

7. The electrical connector of claim 6, wherein, The gel core member includes a positive polarity gel core clamping structure and a negative polarity gel core clamping structure; wherein the positive polarity gel core clamping structure can clamp the positive polarity conductive plate material, so that the state of the positive polarity conductive plate material entering the positive polarity gel core docking space is not easy to change; and the negative polarity gel core clamping structure can clamp the negative polarity conductive plate material, so that the state of the negative polarity conductive plate material entering the negative polarity gel core docking space is not easy to change.

8. The electrical connector of claim 7, wherein, The positive polarity gel core clamping structure and the negative polarity gel core clamping structure are located in the gel core docking tongue structure.

9. The electrical connector of claim 8, wherein, The positive polarity gel core clamping structure and the negative polarity gel core clamping structure can be spring arm clamping structures.

10. The electrical connector of claim 6, wherein, The positive polarity conductive plate material includes a positive polarity plate material clamping structure, which can clamp the gel core member, so that the state of the positive polarity conductive plate material entering the positive polarity gel core docking space is not easy to change; and the negative polarity conductive plate material includes a negative polarity plate material clamping structure, which can clamp the gel core member, so that the state of the negative polarity conductive plate material entering the negative polarity gel core docking space is not easy to change.

11. The electrical connector of claim 10, wherein, The positive polarity plate material clamping structure and the negative polarity plate material clamping structure can clamp the gel core docking tongue structure respectively.

12. The electrical connector of claim 10, wherein, The positive polarity plate material clamping structure and the negative polarity plate material clamping structure are groove clamping structures.

13. The electrical connector of claim 1, wherein, The electrical connector can be matched with a docking member to transmit the positive polarity current and the negative polarity current, wherein the positive polarity conductive plate material further includes a positive polarity conductive plate material docking structure located in the positive polarity gel core docking space to provide docking of the docking member to transmit the positive polarity current, and the negative polarity conductive plate material further includes a negative polarity conductive plate material docking structure located in the negative polarity gel core docking space to provide docking of the docking member to transmit the negative polarity current.

14. The electrical connector of claim 13, wherein, The positive polarity conductive plate material docking structure and the negative polarity conductive plate material docking structure are surface contact docking structures.

15. The electrical connector of claim 1, wherein, The gel core member further includes a gel core guiding structure, a first positive polarity gel core group docking space, a second positive polarity gel core group docking space, a first negative polarity gel core group docking space, and a second negative polarity gel core group docking space. The gel core guiding structure can guide the positive polarity conductive plate material insertion structure to insert the gel core member, so that the first positive polarity conductive plate material group docking structure and the second positive polarity conductive plate material group docking structure enter the first positive polarity gel core group docking space and the second positive polarity gel core group docking space respectively. The gel core guiding structure can also guide the negative polarity conductive plate material insertion structure to insert the gel core member, so that the first negative polarity conductive plate material group docking structure and the second negative polarity conductive plate material group docking structure enter the first negative polarity gel core group docking space and the second negative polarity gel core group docking space respectively.

16. The electrical connector of claim 15, wherein, The gel core guiding structure can be a guide groove structure or a guide rail structure.

17. The electrical connector of claim 1, wherein, The electrical connector can be a power supply connector.

Images