TWI903198B - Electrical connector and its assembly method - Google Patents

Abstract

A type of electrical connector and its assembly method, wherein the electrical connector is composed of at least a primary-side electrical connector component and a secondary-side electrical connector component. The primary-side electrical connector component has a primary bridging conductor capable of bridging multiple conductive terminals on the primary side of the electrical connector, while the secondary-side electrical connector component has a secondary bridging conductor capable of bridging multiple conductive terminals on the secondary side of the electrical connector. During the assembly process of the electrical connector, the primary bridging conductor and the secondary bridging conductor can be brought into contact and pushed together, enabling electrical connection of multiple conductive terminals on the electrical connector to meet the signal transmission requirements of electronic devices. Moreover, the composition of the primary-side electrical connector component and the secondary-side electrical connector component can be replaced or adjusted to achieve customized electrical connections among multiple conductive terminals on the connector, thereby satisfying the specific needs and advancements of electronic devices.

Description

Electrical connectors and their assembly methods

This application relates to the field of electronic device technology, and more specifically, to an electrical connector with customizable and adjustable electrical connection relationships of conductive terminals.

Note that electrical connectors are typically used in modern electronic devices to transmit signals. However, due to the specific needs and development of electronic devices, multiple conductive terminals on electrical connectors may require electrical connections with each other. This necessitates that the electrical connection relationships of the connector's conductive terminals be customizable. However, currently, once the electrical connector design is completed, the electrical connection relationships of the connector's conductive terminals are fixed and cannot be customized, making it difficult to meet the signal transmission requirements of electronic devices. This, in turn, limits the technological (functional) development of electronic devices.

In light of this, how to customize and adjust the electrical connection relationship of the conductive terminals of electrical connectors has become a technical issue that the industry urgently needs to challenge and overcome.

In view of the shortcomings of the prior art, this application provides an electrical connector comprising: a main-side electrical connector assembly having a main-side insulating core, a main-side first bridging terminal, a main-side second bridging terminal, a main-side non-bridging terminal, and a main-side bridging conductor; the main-side insulating core having a main-side core. The assembly structure includes a main-side insulating core that engages and positions the main-side first bridge terminal, the main-side second bridge terminal, and the main-side non-bridge terminal. The main-side bridge conductor system comprises a main-side conductor body, a main-side first conductor abutment structure, and a main-side second conductor abutment structure, which are respectively configured. The main conductor body, with the main bridge conductor embedded in the main insulating core, allows the main conductor body to span the main non-bridge terminal, and the main first conductor abutment structure and the main second conductor abutment structure extend toward the main first bridge terminal and the main second bridge terminal, respectively; and a primary-side electrical connector assembly, the secondary-side electrical connector... The component comprises a primary-side insulating core, a primary-side first bridging terminal, a primary-side second bridging terminal, a primary-side non-bridging terminal, and a primary-side bridging conductor. The primary-side insulating core has a primary-side core assembly structure, and the primary-side insulating core engages and positions the primary-side first bridging terminal, the primary-side second bridging terminal, and the primary-side non-bridging terminal. The conductor system has a primary conductor body, a primary first conductor abutment structure, and a primary second conductor abutment structure. The primary first conductor abutment structure and the primary second conductor abutment structure are respectively disposed on the primary conductor body. The secondary bridging conductor is embedded in the secondary insulating core, allowing the secondary conductor body to cross the secondary non-bridging terminal, and enabling the secondary conductor to... The first conductor abutment structure and the second conductor abutment structure extend toward the first bridge terminal and the second bridge terminal, respectively; wherein, the main-side core assembly structure can be matched with the secondary-side core assembly structure, so that the main-side electrical connector assembly and the secondary-side electrical connector assembly can be combined to form an electrical connector assembly. In this component, the main conductor body and the secondary conductor body are in contact with each other to form a bridge circuit, and the main conductor body can push against the secondary conductor body to force the secondary first conductor abutment structure and the secondary second conductor abutment structure to abut against the secondary first bridge terminal and the secondary second bridge terminal respectively, so that the secondary first bridge terminal and the secondary second bridge terminal are connected. The secondary side conductor body is pushed against the primary side conductor body to force the primary side first conductor abutment structure and the primary side second conductor abutment structure to abut against the primary side first bridge terminal and the primary side second bridge terminal respectively, so that the primary side first bridge terminal and the primary side second bridge terminal are respectively connected to the bridge circuit.

Preferably, in the electrical connector of this application, the main-side bridge conductor further comprises a main-side first bend structure and a main-side second bend structure. The main-side first bend structure and the main-side second bend structure are respectively disposed on the main-side conductor body, and the main-side first bend structure and the main-side second bend structure are respectively connected to the main-side first conductor abutment structure and the main-side second conductor abutment structure. The main-side first bend structure and the main-side second bend structure are bendable, allowing the main-side first conductor abutment structure and the main-side second conductor abutment structure to respectively face the main-side first bridge terminal and the main-side second bridge terminal. The bridging terminal extends; and the secondary bridging conductor further has a primary first bend structure and a primary second bend structure, the primary first bend structure and the secondary second bend structure being respectively disposed on the body of the secondary conductor, and the primary first bend structure and the secondary second bend structure being respectively connected to the secondary first conductor abutment structure and the secondary second conductor abutment structure, wherein the secondary first bend structure and the secondary second bend structure are bendable, so that the secondary first conductor abutment structure and the secondary second conductor abutment structure can respectively extend toward the secondary first bridging terminal and the secondary second bridging terminal.

Preferably, in the electrical connector of this application, the main bridge conductor and the secondary bridge conductor are metal conductors or conductive plastic.

Preferably, in the electrical connector of this application, the primary first conductor abutment structure, the primary second conductor abutment structure, the secondary first conductor abutment structure, and the secondary second conductor abutment structure are elastic arm structures.

Preferably, in the electrical connector of this application, the main side core assembly structure and the secondary side core assembly structure are respectively a guide block structure and a guide groove structure that are structurally matched, so that the main side electrical connector assembly and the secondary side electrical connector assembly can move relative to each other to form the electrical connector assembly.

Preferably, in the electrical connector of this application, the main-side rubber core assembly structure has a main-side rubber core movement restriction structure, and the secondary-side rubber core assembly structure has a primary-side rubber core movement restriction structure. The main-side rubber core movement restriction structure can be used in conjunction with the secondary-side rubber core movement restriction structure to limit the travel of the relative movement between the main-side electrical connector assembly and the secondary-side electrical connector assembly.

Preferably, in the electrical connector of this application, the main-side bridge conductor further has a main-side conductor protrusion structure, which is disposed on the main-side conductor body, and in the electrical connector assembly, the main-side conductor protrusion structure pushes against the secondary-side conductor body.

Preferably, in the electrical connector of this application, the secondary bridge conductor further has a primary conductor protrusion structure, which is disposed on the secondary conductor body, and in the electrical connector assembly, the secondary conductor protrusion structure pushes against the primary conductor body.

Preferably, in the electrical connector of this application, in the electrical connector assembly, the primary conductor protrusion structure and the secondary conductor protrusion structure abut against each other.

Preferably, in the electrical connector of this application, the main insulating core further has a main insulating core opening structure that exposes the main conductor body, and the secondary insulating core further has a secondary insulating core opening structure that exposes the secondary conductor body. In the electrical connector assembly, the main insulating core opening structure and the secondary insulating core opening structure are opposite to each other, so that the main conductor body and the secondary conductor body can contact each other.

Additionally, this application provides a method for assembling an electrical connector for manufacturing the electrical connector as described in claim 1, comprising the following steps: preparing the main-side electrical connector assembly and the secondary-side electrical connector assembly respectively; and combining the main-side core assembly structure with the secondary-side core assembly structure, so that the main-side electrical connector assembly and the secondary-side electrical connector assembly are combined to form the electrical connector assembly component.

Compared to prior art, the electrical connector and its assembly method provided in this application are configured by combining at least a primary electrical connector assembly and a secondary electrical connector assembly. The primary electrical connector assembly has a primary bridging conductor that can bridge multiple conductive terminals on the primary side of the electrical connector, while the secondary electrical connector assembly has a secondary bridging conductor that can bridge multiple conductive terminals on the secondary side of the electrical connector. In the assembly step of the electrical connector, the primary bridging conductor and the secondary bridging conductor can contact and push against each other, so that the multiple conductive terminals on the electrical connector can achieve electrical connection, thereby meeting the signal transmission requirements of electronic equipment. In addition, the composition of the main-side electrical connector assembly and the secondary-side electrical connector assembly can be replaced or adjusted to achieve customized adjustment of the electrical connection relationship of multiple conductive terminals on the conductive connector, thereby meeting the special needs and development of electronic equipment.

The following content, accompanied by illustrations, uses specific examples to illustrate the technical content of this application. 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 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.

In addition, structures or elements with the same or similar functions in the following embodiments will be described using the same symbols, and descriptions of the same or equivalent technical features will be omitted to make the disclosed content more concise and easy to understand.

This application provides an electrical connector and a method for assembling it that allows adjustment of the electrical connection relationship between the conductive terminals of the electrical connector. For the technical concept of this application, please refer to Figures 1 to 12.

In the embodiments shown in Figures 1 to 12 of this application, the electrical connector 1 has: a main-side electrical connector assembly 11 and a primary-side electrical connector assembly 12.

The main electrical connector assembly 11 is a main electrical connector and has a main insulating core 111, a main first bridging terminal 112, a main second bridging terminal 113, a main non-bridging terminal 114 and a main bridging conductor 115. The main insulating core 111 has a main core assembly structure 1111 and a main core opening structure 1112. The main insulating core 111 is engaged and positioned with the main first bridging terminal 112, the main second bridging terminal 113 and the main non-bridging terminal 114, and is separated from the main first bridging terminal 112, the main second bridging terminal 113 and the main non-bridging terminal 114, so as to avoid the main non-bridging terminal 114 electrically shorting the main first bridging terminal 112 and the main second bridging terminal 113. The main-side bridge conductor 115 comprises a main-side conductor body 1151, a main-side first conductor abutment structure 1152, a main-side second conductor abutment structure 1153, a main-side first bending structure 1155, and a main-side second bending structure 1156.

It should be noted that the main-side first bridge terminal 112, the main-side second bridge terminal 113, and the main-side non-bridge terminal 114 can provide signal transmission, and the number of them is not limited to one. It is possible that there are multiple main-side first bridge terminals 112, the main-side second bridge terminal 113, and the main-side non-bridge terminal 114. In the above embodiment, the main-side first bridge terminal 112 and the main-side second bridge terminal 113 can provide grounding signal transmission to meet the signal transmission requirements of electronic equipment, but this is not a limitation. It is possible that the main-side first bridge terminal 112 and the main-side second bridge terminal 113 can provide other electrical signal transmission to meet the signal transmission requirements of electronic equipment.

In addition, the main-side first guide abutment structure 1152, the main-side second guide abutment structure 1153, the main-side first bending structure 1155, and the main-side second bending structure 1156 are respectively disposed on the main-side guide body 1151, and the main-side first bending structure 1155 and the main-side second bending structure 1156 are respectively connected to the main-side first guide abutment structure 1152 and the main-side second guide abutment structure 1153.

In the above embodiment, the main-side bridging conductor 115 is embedded in the main-side insulating core 111, allowing the main-side conductor body 1151 to span the main-side non-bridging terminal 114. The main-side first bending structure 1155 and the main-side second bending structure 1156 are bendable, allowing the main-side first conductor abutment structure 1152 and the main-side second conductor abutment structure 1153 to extend towards the main-side first bridging terminal 112 and the main-side second bridging terminal 113, respectively. Additionally, the main-side core opening structure 1112 exposes the main-side conductor body 1151.

The secondary electrical connector assembly 12 is located on the secondary side of the primary electrical connector and includes a primary insulating core 121, a primary first bridging terminal 122, a primary second bridging terminal 123, a primary non-bridging terminal 124, and a primary bridging conductor 125. The secondary insulating core 121 has a primary core assembly structure 1211 and a secondary core opening structure 1212. The secondary insulating core 121 is engaged and positioned with the secondary first bridging terminal 122, the secondary second bridging terminal 123 and the secondary non-bridging terminal 124, and is separated from the secondary first bridging terminal 122, the secondary second bridging terminal 123 and the secondary non-bridging terminal 124, so as to avoid the secondary non-bridging terminal 124 electrically shorting the secondary first bridging terminal 122 and the secondary second bridging terminal 123. The secondary bridge conductor 125 comprises a primary conductor body 1251, a primary first conductor abutment structure 1252, a primary second conductor abutment structure 1253, a primary first bending structure 1255, and a primary second bending structure 1256.

It should be noted that the secondary first bridge terminal 122, the secondary second bridge terminal 123, and the secondary non-bridge terminal 124 can provide signal transmission, and the number of them is not limited to one. It is possible that there are multiple secondary first bridge terminals 122, secondary second bridge terminals 123, and secondary non-bridge terminals 124. In the above embodiment, the secondary first bridge terminal 122 and the secondary second bridge terminal 123 can provide grounding signal transmission to meet the signal transmission requirements of electronic equipment, but this is not a limitation. It is possible that the secondary first bridge terminal 122 and the secondary second bridge terminal 123 can provide other electrical signal transmission to meet the signal transmission requirements of electronic equipment.

In addition, the secondary first conductor abutment structure 1252, the secondary second conductor abutment structure 1253, the secondary first bending structure 1255, and the secondary second bending structure 1256 are respectively disposed on the secondary conductor body 1251, and the secondary first bending structure 1255 and the secondary second bending structure 1256 are respectively connected to the secondary first conductor abutment structure 1252 and the secondary second conductor abutment structure 1253.

In the above embodiment, the secondary bridging conductor 125 is embedded in the secondary insulating core 121, allowing the secondary conductor body 1251 to span the secondary non-bridging terminal 124. The secondary first bending structure 1255 and the secondary second bending structure 1256 are bendable, allowing the secondary first conductor abutment structure 1252 and the secondary second conductor abutment structure 1253 to extend toward the secondary first bridging terminal 122 and the secondary second bridging terminal 123, respectively. Furthermore, the secondary core opening structure 1212 exposes the secondary conductor body 1251.

In the above embodiments, the primary bridge conductor 115 and the secondary bridge conductor 125 are respectively disposed on the primary electrical connector assembly 11 and the secondary electrical connector assembly 12, and the primary core assembly structure 1111 and the secondary core assembly structure 1211 are respectively a guide block structure and a guide groove structure that fit together. Therefore, the primary core assembly structure 1111 can be coupled with the secondary core assembly. The main electrical connector assembly 11 and the secondary electrical connector assembly 12 are combined to form an electrical connector assembly A, in which the main plastic core opening structure 1112 and the secondary plastic core opening structure 1212 are opposite to each other, so that the main conductor body 1151 and the secondary conductor body 1251 can contact each other to form a bridge circuit.

Additionally, the main conductor body 1151 can push against the secondary conductor body 1251, thereby forcing the secondary first conductor abutment structure 1252 and the secondary second conductor abutment structure 1253 to abut against the secondary first bridge terminal 122 and the secondary second bridge terminal 123 respectively, so that the secondary first bridge terminal 122 and the secondary second bridge terminal 123 respectively The bridging circuit is connected so that it bridges the secondary first bridging terminal 122 and the secondary second bridging terminal 123. In this way, the electrical connector 1 of this application can achieve electrical connection of multiple conductive terminals (i.e., the secondary first bridging terminal 122 and the secondary second bridging terminal 123) to meet the signal transmission requirements of electronic equipment.

Furthermore, the secondary conductor body 1251 can push against the primary conductor body 1151, thereby forcing the primary first conductor abutment structure 1152 and the primary second conductor abutment structure 1153 to abut against the primary first bridge terminal 112 and the primary second bridge terminal 113 respectively, so that the primary first bridge terminal 112 and the primary second bridge terminal 113 respectively The bridging circuit is connected so that it bridges the main-side first bridging terminal 112 and the main-side second bridging terminal 113. In this way, the electrical connector 1 of this application can achieve electrical connection of multiple conductive terminals (i.e., the main-side first bridging terminal 112 and the main-side second bridging terminal 113) to meet the signal transmission requirements of electronic equipment.

Optionally, the primary bridging conductor 115 and the secondary bridging conductor 125 are metal conductors or conductive plastics that can form the bridging circuit.

Optionally, the primary first guide abutment structure 1152, the primary second guide abutment structure 1153, the secondary first guide abutment structure 1252, and the secondary second guide abutment structure 1253 are elastic arm structures, so that the primary first guide abutment structure 1152, the primary second guide abutment structure 1153, the secondary first guide abutment structure 1252, and the secondary second guide abutment structure 1253 are elastic arm structures. 3 can be elastically connected to the main side first conductor abutment structure 1152, the main side second conductor abutment structure 1153, the secondary side first bridge terminal 122 and the secondary side second bridge terminal 123 respectively, so as to maintain the relationship that the main side first conductor abutment structure 1152, the main side second conductor abutment structure 1153, the secondary side first bridge terminal 122 and the secondary side second bridge terminal 123 are respectively connected to the bridge circuit.

Optionally, the main-side rubber core assembly structure 1111 has a main-side rubber core movement limiting structure 11111, and the secondary-side rubber core assembly structure 1211 has a secondary-side rubber core movement limiting structure 12111. The main-side rubber core movement limiting structure 11111 and the secondary-side rubber core movement limiting structure 12111 are respectively stop structures that are structurally matched. Therefore, the main-side rubber core movement limiting structure 11111 can be matched with the secondary-side rubber core movement limiting structure 12111 to limit the relative movement of the main-side electrical connector assembly 11 and the secondary-side electrical connector assembly 12, thereby preventing the main-side electrical connector assembly 11 from moving too far. The relative movement of the secondary electrical connector assembly 12 exceeds the predetermined stroke, affecting the combination of the primary electrical connector assembly 11 and the secondary electrical connector assembly 12. It also allows the primary conductor body 1151 and the secondary conductor body 1251 to push against each other at a predetermined position, so as to ensure that the primary first conductor abutment structure 1152, the primary second conductor abutment structure 1153, the secondary first conductor abutment structure 1252 and the secondary second conductor abutment structure 1253 can respectively abut against the primary first bridge terminal 112, the primary second bridge terminal 113, the secondary first bridge terminal 122 and the secondary second bridge terminal 123.

As shown in Figures 4 and 9 to 12, the main-side bridging conductor 115 also has a main-side conductor protrusion structure 1154, and the secondary-side bridging conductor 125 also has a primary-side conductor protrusion structure 1254. The main-side conductor protrusion structure 1154 is disposed on the main-side conductor body 1151, and the secondary-side conductor protrusion structure 1254 is disposed on the secondary-side conductor body 1251. In the electrical connector assembly A, the main conductor protrusion structure 1154 pushes against the secondary conductor body 1251, thereby forcing the secondary first conductor abutment structure 1252 and the secondary second conductor abutment structure 1253 to abut against the secondary first bridge terminal 122 and the secondary second bridge terminal 123 respectively. The secondary conductor protrusion structure 1254 pushes against the main conductor body 1151, thereby forcing the main first conductor abutment structure 1152 and the main second conductor abutment structure 1153 to abut against the main first bridge terminal 112 and the main second bridge terminal 113 respectively.

Optionally, in the electrical connector assembly A, the primary conductor protrusion structure 1154 and the secondary conductor protrusion structure 1254 push against each other, so that the primary first conductor abutment structure 1152, the primary second conductor abutment structure 1153, the secondary first conductor abutment structure 1252, and the secondary second conductor abutment structure 1253 respectively abut against the primary first bridge terminal 112 and the primary second conductor abutment structure 1253. With the second bridge terminal 113, the secondary first bridge terminal 122, and the secondary second bridge terminal 123, the electrical connector 1 of this application can achieve electrical connection of multiple conductive terminals (i.e., the primary first bridge terminal 112, the primary second bridge terminal 113, the secondary first bridge terminal 122, and the secondary second bridge terminal 123), thereby meeting the signal transmission requirements of electronic equipment.

In the above embodiment, the assembly method of the electrical connector 1 includes the following steps: preparing a main-side electrical connector assembly 11 and a secondary-side electrical connector assembly 12 respectively; and assembling the main-side core assembly structure 1111 with the secondary-side core assembly structure 1211, so that the main-side electrical connector assembly 11 and the secondary-side electrical connector assembly 12 are combined to form an electrical connector assembly component A.

It should be noted that the electrical connector assembly method of this application includes at least the step of assembling the primary electrical connector assembly 11 and the secondary electrical connector assembly 12. Therefore, in the electrical connector assembly step, the electrical connection relationship of the conductive terminals can be customized by adjusting the primary electrical connector assembly 11 and the secondary electrical connector assembly 12 to meet the signal transmission requirements of the electrical connector 1, thereby satisfying the special needs and development of electronic equipment.

It should be noted that, in the above embodiments, some of the aforementioned components may be omitted. For example, in this application, the electrical connection system includes: a main-side electrical connector assembly and a secondary-side electrical connector assembly. The main-side electrical connector assembly has a main-side insulating core, a main-side first bridge terminal, a main-side second bridge terminal, a main-side non-bridge terminal, and a main-side bridge conductor. The main-side insulating core has a main-side core assembly structure, and the main-side insulating core engages and positions the main-side first bridge terminal, the main-side second bridge terminal, and the main-side non-bridge terminal. The main-side bridge conductor has a main-side conductor body and a main-side first conductor. The abutting structure and the main side second conductor abutting structure are respectively disposed on the main side conductor body, and the main side bridging conductor is embedded in the main side insulating core, so that the main side conductor body spans the main side non-bridging terminal, and the main side first conductor abutting structure and the main side second conductor abutting structure extend toward the main side first bridging terminal and the main side second bridging terminal, respectively. The secondary electrical connector assembly comprises a secondary insulating core, a secondary first bridging terminal, a secondary second bridging terminal, a secondary non-bridging terminal, and a secondary bridging conductor. The secondary insulating core has a secondary core assembly structure, and the secondary insulating core engages and positions the secondary first bridging terminal, the secondary second bridging terminal, and the secondary non-bridging terminal. The secondary bridging conductor comprises a secondary conductor body and a secondary first conductor abutting... The secondary conductor abutment structure and the secondary first conductor abutment structure are respectively disposed on the secondary conductor body, and the secondary bridge conductor is embedded in the secondary insulating core, so that the secondary conductor body spans the secondary non-bridge terminal, and the secondary first conductor abutment structure and the secondary second conductor abutment structure extend toward the secondary first bridge terminal and the secondary second bridge terminal respectively. The primary core assembly structure can be paired with the secondary core assembly structure to form an electrical connector assembly. In this assembly, the primary conductor body and the secondary conductor body can contact each other to form a bridge circuit. Furthermore, the primary conductor body can push against the secondary conductor body, forcing the secondary first conductor contact structure and the secondary second conductor contact structure to separate. Do not abut the secondary first bridge terminal and the secondary second bridge terminal, so that the secondary first bridge terminal and the secondary second bridge terminal are respectively connected to the bridge circuit, and the secondary conductor body can push against the main conductor body, so as to force the main first conductor abutting structure and the main second conductor abutting structure to abut against the main first bridge terminal and the main second bridge terminal respectively, so that the main first bridge terminal and the main second bridge terminal are respectively connected to the bridge circuit.

In addition, the electrical connector assembly method in this application includes the following steps: preparing a main-side electrical connector assembly and a secondary-side electrical connector assembly respectively; and matching the main-side core assembly structure with the secondary-side core assembly structure, so that the main-side electrical connector assembly and the secondary-side electrical connector assembly are combined to form an electrical connector assembly component.

In summary, this application provides an electrical connector and a method for assembling the same. The electrical connector is composed of at least a primary electrical connector assembly and a secondary electrical connector assembly. The primary electrical connector assembly has a primary bridging conductor that can bridge multiple conductive terminals on the primary side of the electrical connector, while the secondary electrical connector assembly has a secondary bridging conductor that can bridge multiple conductive terminals on the secondary side of the electrical connector. In the assembly steps of the electrical connector, the primary bridging conductor and the secondary bridging conductor can contact and push against each other, so that the multiple conductive terminals on the electrical connector can achieve electrical connection, thereby meeting the signal transmission requirements of electronic equipment. In addition, the composition of the main-side electrical connector assembly and the secondary-side electrical connector assembly can be replaced or adjusted to achieve customized adjustment of the electrical connection relationship of multiple conductive terminals on the conductive connector, thereby meeting the special needs and development of electronic equipment.

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 may modify and alter the above embodiments without departing from the spirit and scope of this application. Therefore, the scope of protection of this application shall be as set forth in the scope of the patent application.

1 Electrical Connector 11 Main Electrical Connector Components 111 Main Insulating Core 1111 Main Core Assembly Structure 11111 Main Core Movement Restriction Structure 1112 Main Core Opening Structure 112 Main First Bridging Terminal 113 Main Second Bridging Terminal 114 Main Non-Bridge Terminal 115 Main Bridging Conductor 1151 Main Conductor Body 1152 Main First Conductor Abutment Structure 1153 Main Second Conductor Abutment Structure 1154 Main-side conductor protrusion structure 1155 Main-side first bend structure 1156 Main-side second bend structure 12 Secondary-side electrical connector assembly 121 Secondary-side insulating core 1211 Secondary-side core assembly structure 12111 Secondary-side core movement restriction structure 1212 Secondary-side core opening structure 122 Secondary-side first bridging terminal 123 Secondary-side second bridging terminal 124 Secondary-side non-bridging terminal 125 Secondary-side bridging conductor 1251 Secondary-side conductor body 1252 Secondary first conductor abutment structure 1253 Secondary second conductor abutment structure 1254 Secondary conductor protrusion structure 1255 Secondary first bend structure 1256 Secondary second bend structure A Electrical connector assembly

The drawings of the present application will be combined with the description of the following embodiments to make the features and other advantages of the present application more clearly understood.

Figure 1 is a first-view perspective schematic diagram of the electrical connector of this application in an embodiment.

Figure 2 is a perspective view of the electrical connector of this application from a second perspective in one embodiment.

Figure 3 is a front view schematic diagram of the electrical connector of this application in an embodiment.

Figure 4 is a schematic cross-sectional view of some components of the electrical connector shown in Figure 3, cut along line segment AA.

Figure 5 is a perspective view of some components of an embodiment of the electrical connector of this application from a first perspective.

Figure 6 is a perspective view of some components of an embodiment of the electrical connector of this application from a second perspective of an embodiment.

Figure 7 is a perspective view of some components of an embodiment of the electrical connector of this application from a first perspective.

Figure 8 is a perspective view of some components of an embodiment of the electrical connector of this application from a second perspective of an embodiment.

Figure 9 is a perspective view of some components of an embodiment of the electrical connector of this application from a first perspective.

Figure 10 is a perspective view of some components of an embodiment of the electrical connector of this application from a second perspective of an embodiment.

Figure 11 is a perspective view of some components of an embodiment of the electrical connector of this application from a first perspective.

Figure 12 is a perspective view of some components of an embodiment of the electrical connector of this application from a second perspective of an embodiment.

1. Electrical Connector 11. Main Electrical Connector Assembly 111. Main Insulating Core 112. Main First Bridge Terminal 113. Main Second Bridge Terminal 114. Main Non-Bridge Terminal 12. Secondary Electrical Connector Assembly 121. Secondary Insulating Core 122. Secondary First Bridge Terminal 123. Secondary Second Bridge Terminal 124. Secondary Non-Bridge Terminal A. Electrical Connector Assembly

Claims (11)

An electrical connector comprising: a main-side electrical connector assembly, the main-side electrical connector assembly having a main-side insulating core, a main-side first bridging terminal, a main-side second bridging terminal, a main-side non-bridging terminal, and a main-side bridging conductor; the main-side insulating core having a main-side core assembly structure, and the main-side insulating core engaging and positioning the main-side first bridging terminal, the main-side second bridging terminal, and the main-side non-bridging terminal; the main-side bridging conductor having a main-side conductor body and a main... A first-side conductor abutment structure and a second-side main-side conductor abutment structure are respectively disposed on the main-side conductor body, and the main-side bridging conductor is embedded in the main-side insulating core, allowing the main-side conductor body to cross the main-side non-bridging terminal, and the first-side conductor abutment structure and the second-side main-side conductor abutment structure to extend towards the first-side bridging terminal and the second-side bridging terminal, respectively; and A primary-side electrical connector assembly includes a primary-side insulating core, a primary-side first bridging terminal, a primary-side second bridging terminal, a primary-side non-bridging terminal, and a primary-side bridging conductor. The secondary-side insulating core has a primary-side core assembly structure, and the secondary-side insulating core engages and positions the primary-side first bridging terminal, the secondary-side second bridging terminal, and the secondary-side non-bridging terminal. The secondary-side bridging conductor includes a primary-side conductor body and a primary-side... A first conductor abutment structure and a secondary-side second conductor abutment structure are respectively disposed on the secondary-side conductor body, and the secondary-side bridging conductor is embedded in the secondary-side insulating core, allowing the secondary-side conductor body to cross the secondary-side non-bridging terminal, and the secondary-side first conductor abutment structure and the secondary-side second conductor abutment structure to extend towards the secondary-side first bridging terminal and the secondary-side second bridging terminal, respectively; wherein, The main-side rubber core assembly structure can be matched with the secondary-side rubber core assembly structure, so that the main-side electrical connector assembly and the secondary-side electrical connector assembly can be combined to form an electrical connector assembly. In the electrical connector assembly, the main-side conductor body and the secondary-side conductor body can contact each other to form a bridge circuit, and the main-side conductor body can push against the secondary-side conductor body to force the secondary-side first conductor abutment structure and the secondary-side second conductor abutment structure to respectively abut against each other. Connect the secondary-side first bridge terminal and the secondary-side second bridge terminal, respectively, to the bridge circuit. The secondary-side conductor body can push against the primary-side conductor body, forcing the primary-side first conductor abutment structure and the primary-side second conductor abutment structure to respectively abut against the primary-side first bridge terminal and the primary-side second bridge terminal, thus connecting the primary-side first bridge terminal and the primary-side second bridge terminal to the bridge circuit. The electrical connector as claimed in claim 1, wherein the main-side bridge conductor further comprises a first main-side bend structure and a second main-side bend structure, the first main-side bend structure and the second main-side bend structure being respectively disposed on the main-side conductor body, and the first main-side bend structure and the second main-side bend structure being respectively connected to the first main-side conductor abutment structure and the second main-side conductor abutment structure, wherein the first main-side bend structure and the second main-side bend structure are bendable, allowing the first main-side conductor abutment structure and the second main-side conductor abutment structure to extend respectively toward the first main-side bridge terminal and the second main-side bridge terminal; and The secondary bridge conductor further comprises a primary first bend structure and a primary second bend structure, which are respectively disposed on the body of the secondary conductor and are respectively connected to the secondary first conductor abutment structure and the secondary second conductor abutment structure. The secondary first bend structure and the secondary second bend structure are bendable, allowing the secondary first conductor abutment structure and the secondary second conductor abutment structure to extend towards the secondary first bridge terminal and the secondary second bridge terminal, respectively. The electrical connector as claimed in claim 1, wherein the primary bridge conductor and the secondary bridge conductor are metal conductors or conductive plastic. The electrical connector as claimed in claim 1, wherein the primary first conductor abutment structure, the primary second conductor abutment structure, the secondary first conductor abutment structure, and the secondary second conductor abutment structure are elastic arm structures. The electrical connector as described in claim 1, wherein the main-side rubber core assembly structure and the secondary-side rubber core assembly structure are respectively a guide block structure and a guide groove structure that are structurally matched, so that the main-side electrical connector assembly and the secondary-side electrical connector assembly can move relative to each other to form the electrical connector assembly. The electrical connector as described in claim 4, wherein the main-side rubber core assembly structure has a main-side rubber core movement limiting structure, the secondary-side rubber core assembly structure has a primary-side rubber core movement limiting structure, and the main-side rubber core movement limiting structure can be used in conjunction with the secondary-side rubber core movement limiting structure to limit the travel of the relative movement between the main-side electrical connector assembly and the secondary-side electrical connector assembly. The electrical connector as claimed in claim 1, wherein the primary bridge conductor further has a primary conductor protrusion structure disposed on the primary conductor body, and in the electrical connector assembly, the primary conductor protrusion structure pushes against the secondary conductor body. The electrical connector as described in claim 7, wherein the secondary bridge conductor further has a primary conductor protrusion structure disposed on the secondary conductor body, and in the electrical connector assembly, the secondary conductor protrusion structure pushes against the primary conductor body. The electrical connector as claimed in claim 8, wherein, in the electrical connector assembly, the primary conductor protrusion and the secondary conductor protrusion abut against each other. The electrical connector as claimed in claim 1, wherein the primary insulating core further has a primary core opening structure that exposes the primary conductor body, and the secondary insulating core further has a secondary core opening structure that exposes the secondary conductor body. In the electrical connector assembly, the primary core opening structure and the secondary core opening structure are opposite each other, so that the primary conductor body and the secondary conductor body can contact each other. A method for assembling an electrical connector, for manufacturing the electrical connector as described in claim 1, comprises the following steps: preparing a primary electrical connector assembly and a secondary electrical connector assembly respectively; and combining the primary core assembly structure with the secondary core assembly structure, such that the primary electrical connector assembly and the secondary electrical connector assembly are combined to form the electrical connector assembly.