TWI893375B - Assembled electrical connector - Google Patents

Abstract

An assembled electrical connector is constituted by assembling at least a plurality of conductive terminal groups and a plurality of conductive metal jumper components, wherein each conductive metal jumper component corresponds to one of the plurality of conductive terminal groups, and each conductive terminal group has multiple jumper conductive terminals, and each conductive metal jumper components can bridge multiple jumper conductive terminals of the corresponding conductive terminal group. Therefore, after the design of the assembled electrical connector is completed, the number, structure and electrical connection relationship of the jumper conductive terminals can be customized and adjusted by adjusting the conductive terminal group and the conductive metal jumper components to meet the special needs and development of electronic equipment.

Description

Assembled electrical connector

This application relates to the field of electronic device technology, and more specifically, to an assembled electrical connector that can customize the number, structure, and electrical connection relationship of conductive terminals.

In modern electronic devices, electrical connectors are often used to transmit signals. However, to meet the specific needs and development of electronic devices, the number, structure, and electrical connection relationship of the electrical connector's conductive terminals are required to be customized. However, once the current electrical connector design is completed, the number, structure, and electrical connection relationship of the electrical connector's conductive terminals are determined and cannot be customized. This makes it difficult to meet the signal transmission requirements of electronic devices, thus limiting the technological (functional) development of electronic devices.

Furthermore, multiple conductive terminals on an electrical connector may need to be electrically connected to one another. Currently, the industry has no choice but to add a jumper that works with the electrical connector to achieve electrical connection between the multiple conductive terminals on the electrical connector. However, the addition of the jumper takes up internal space within the electronic device, thus preventing the continued development of electronic devices towards being thinner and smaller.

In light of this, customizing the number, structure, and electrical connection relationships of electrical connectors has become a technical challenge that the industry is eager to overcome.

In view of the above-mentioned shortcomings of the prior art, the present application provides an assembled electrical connector, which comprises: a main-side terminal assembly, the main-side terminal assembly having a main-side terminal insulation base and a main-side conductive terminal set; the main-side terminal insulation base having an internal space of the main-side insulating base; the main-side conductive terminal set having a main-side first jumper conductive terminal and a main-side second jumper conductive terminal, and the main-side conductive terminal set is The primary terminal is embedded in the primary terminal insulation base, and the crossover portion of the primary side first jumper conductive terminal and the primary side second jumper conductive terminal extends into the internal space of the primary side insulation base; the primary terminal assembly, the secondary terminal assembly has a primary side terminal insulation base and a primary side conductive terminal group; the secondary terminal insulation base has an internal space of the primary side insulation base; the secondary side conductive terminal group has a primary side first jumper conductive terminal and a primary side second jumper conductive terminal. The secondary conductive terminal assembly is embedded in the secondary terminal insulation base, and the bridging portion of the secondary first jumper conductive terminal and the secondary second jumper conductive terminal extends into the internal space of the secondary insulation base; a conductive plastic shielding component, the conductive plastic shielding component has a conductive plastic wall; a primary conductive metal jumper component, the primary conductive metal jumper component has a primary conductive metal wall .... The conductive metal wall has a primary side first conductive metal jumper structure and a primary side second conductive metal jumper structure; and a primary side conductive metal jumper assembly, the secondary side conductive metal jumper assembly has a primary side conductive metal wall, the secondary side conductive metal wall has a primary side first conductive metal jumper structure and a primary side second conductive metal jumper structure; wherein the main side terminal assembly, the secondary side terminal assembly, the conductive plastic shielding assembly, the main side conductive The conductive metal jumper assembly and the secondary conductive metal jumper assembly can be assembled to form an electrical connector assembly component, wherein, in the electrical connector assembly component, the internal space of the primary side insulating base body is connected to the internal space of the secondary side insulating base body to form an insulating base body assembly internal space; the primary side conductive metal wall extends in the internal space of the primary side insulating base body, so that the primary side first conductive metal jumper structure and the primary side second conductive metal jumper structure can be connected. The main side first jumper conductive terminal and the main side second jumper conductive terminal are respectively overlapped at the jumper portion in the internal space of the main side insulating base, so that the main side conductive metal wall can jumper the main side first jumper conductive terminal and the main side second jumper conductive terminal to form a main side jumper circuit; the secondary side conductive metal wall extends in the internal space of the secondary side insulating base, so that the secondary side first conductive metal jumper structure and the secondary side second conductive metal jumper structure are overlapped. The structure can respectively connect the bridging parts of the secondary first jumper conductive terminal and the secondary second jumper conductive terminal in the internal space of the secondary insulating base, so that the secondary conductive metal wall can jump over the secondary first jumper conductive terminal and the secondary second jumper conductive terminal to form a primary-side jumper circuit; and the conductive plastic wall extends in the internal space of the insulating base assembly and provides electrical connection between the primary conductive terminal set and the secondary conductive terminal set. The conductive plastic wall is located between the primary-side conductive metal wall and the secondary-side conductive metal wall, and the conductive plastic wall is electrically connected to the primary-side conductive metal wall and the secondary-side conductive metal wall, respectively, so that the primary-side jumper circuit is electrically connected to the secondary-side jumper circuit, and the primary-side first jumper conductive terminal, the primary-side second jumper conductive terminal, the secondary-side first jumper conductive terminal, and the secondary-side second jumper conductive terminal are electrically connected.

Preferably, in the assembled electrical connector of the present application, the main-side first conductive metal jumper structure comprises a plurality of main-side first conductive metal jumper substructures, wherein the plurality of main-side first conductive metal jumper substructures are respectively connected to the main-side first jumper conductive terminal at different connecting positions, so that the main-side first conductive metal jumper structure can be connected to the main-side first jumper conductive terminal at multiple connecting positions; the main-side second conductive metal jumper structure comprises a plurality of main-side second conductive metal jumper substructures, wherein the plurality of main-side second conductive metal jumper substructures are respectively connected to the main-side second jumper conductive terminal at different connecting positions, so that the main-side second conductive metal jumper structure can be connected to the main-side second jumper conductive terminal at multiple connecting positions. The secondary first conductive metal jumper structure comprises a plurality of secondary first conductive metal jumper substructures, each of which is connected to the secondary first conductive jumper terminal at different connecting positions, so that the secondary first conductive metal jumper structure can connect to the secondary first conductive jumper terminal at multiple connecting positions; and the secondary second conductive metal jumper structure comprises a plurality of secondary second conductive metal jumper substructures, each of which is connected to the secondary second conductive jumper terminal at different connecting positions, so that the secondary second conductive metal jumper structure can connect to the secondary second conductive jumper terminal at multiple connecting positions.

Preferably, in the assembled electrical connector of the present application, the primary-side conductive metal wall is a metal plate, and the primary-side first conductive metal jumper structure and the primary-side second conductive metal jumper structure are bent structures on the metal plate; and the secondary-side conductive metal wall is a metal plate, and the secondary-side first conductive metal jumper structure and the secondary-side second conductive metal jumper structure are bent structures on the metal plate.

Preferably, in the assembled electrical connector of the present application, the main-side conductive metal wall further has a main-side conductive metal anchoring structure, which is anchored to the main-side first conductive metal jumper structure and the main-side second conductive metal jumper structure to define the main-side first conductive metal jumper structure and the main-side second conductive metal jumper structure. and the secondary conductive metal wall further has a primary conductive metal docking structure, the secondary conductive metal docking structure is docked with the secondary first conductive metal jumper structure and the secondary second conductive metal jumper structure to define the relative position relationship of the secondary first conductive metal jumper structure and the secondary second conductive metal jumper structure.

Preferably, in the assembled electrical connector of the present application, the primary-side conductive terminal set further includes a primary-side non-crossover conductive terminal. In the electrical connector assembly, the primary-side conductive metal wall spans the primary-side non-crossover conductive terminal to prevent the primary-side non-crossover conductive terminal from overlapping the primary-side conductive metal wall. Furthermore, the secondary-side conductive terminal set further includes a primary-side non-crossover conductive terminal. In the electrical connector assembly, the secondary-side conductive metal wall spans the secondary-side non-crossover conductive terminal to prevent the secondary-side non-crossover conductive terminal from overlapping the secondary-side conductive metal wall.

Preferably, in the assembled electrical connector of the present application, the main-side conductive metal wall further has a main-side conductive metal hollow structure, which is arranged at a position corresponding to the main-side non-crossing conductive terminal so that the main-side conductive metal wall can cross over the main-side non-crossing conductive terminal; and the secondary-side conductive metal wall further has a primary-side conductive metal hollow structure, which is arranged at a position corresponding to the secondary-side non-crossing conductive terminal so that the secondary-side conductive metal wall can cross over the secondary-side non-crossing conductive terminal.

Preferably, in the assembled electrical connector of the present application, the conductive plastic wall has a main-side conductive plastic wall assembly structure and a primary-side conductive plastic wall assembly structure, the main-side conductive metal wall further has a main-side conductive metal wall assembly structure, and the secondary-side conductive metal wall further has a primary-side conductive metal wall assembly structure, wherein the main-side conductive metal wall assembly structure and the main-side conductive plastic wall assembly structure are corresponding structures. The primary conductive metal wall assembly structure and the primary conductive plastic wall assembly structure are compatible with each other, allowing the primary conductive metal wall to be assembled on the conductive plastic wall. The secondary conductive metal wall assembly structure and the secondary conductive plastic wall assembly structure are corresponding structures, allowing the secondary conductive metal wall assembly structure and the secondary conductive plastic wall assembly structure to be compatible with each other, allowing the secondary conductive metal wall to be assembled on the conductive plastic wall.

Preferably, in the assembled electrical connector of the present application, the primary-side conductive metal wall assembly structure and the primary-side conductive plastic wall assembly structure are respectively structurally corresponding jack structures and plug structures, so that the primary-side conductive plastic wall assembly structure can be inserted into the primary-side conductive metal wall assembly structure; and the secondary-side conductive metal wall assembly structure and the secondary-side conductive plastic wall assembly structure are respectively structurally corresponding jack structures and plug structures, so that the secondary-side conductive plastic wall assembly structure can be inserted into the secondary-side conductive metal wall assembly structure.

Preferably, in the assembled electrical connector of the present application, the conductive plastic wall further comprises a main-side conductive plastic wall alignment structure and a primary-side conductive plastic wall alignment structure, the main-side conductive metal wall further comprises a main-side conductive metal wall alignment structure, and the secondary-side conductive metal wall further comprises a primary-side conductive metal wall alignment structure, wherein the main-side conductive metal wall alignment structure and the main-side conductive plastic wall alignment structure are corresponding structures, so that the main-side conductive metal wall alignment structure and the main-side conductive plastic wall alignment structure can be matched to align with each other. The primary conductive metal wall assembly structure and the primary conductive plastic wall assembly structure provide alignment, allowing the primary conductive metal wall to be assembled on the conductive plastic wall. Furthermore, the secondary conductive metal wall alignment structure and the secondary conductive plastic wall alignment structure are corresponding structures, allowing the secondary conductive metal wall alignment structure and the secondary conductive plastic wall alignment structure to be matched to provide alignment between the secondary conductive metal wall assembly structure and the secondary conductive plastic wall assembly structure, allowing the secondary conductive metal wall to be assembled on the conductive plastic wall.

Preferably, in the assembled electrical connector of the present application, the primary-side conductive metal wall alignment structure and the primary-side conductive plastic wall alignment structure are respectively structurally corresponding plug structures and socket structures, so that the primary-side conductive metal wall alignment structure can be inserted into the primary-side conductive plastic wall alignment structure; and the secondary-side conductive metal wall alignment structure and the secondary-side conductive plastic wall alignment structure are respectively structurally corresponding plug structures and socket structures, so that the secondary-side conductive metal wall alignment structure can be inserted into the secondary-side conductive plastic wall alignment structure.

Preferably, in the assembled electrical connector of the present application, in the electrical connector assembly component, the primary-side conductive metal wall alignment structure extends from the end edge of the primary-side conductive metal wall to the primary-side conductive plastic wall alignment structure; and in the electrical connector assembly component, the secondary-side conductive metal wall alignment structure extends from the end edge of the secondary-side conductive metal wall to the secondary-side conductive plastic wall alignment structure.

Compared to prior art, the assembled electrical connector provided by this application is composed of at least a plurality of conductive terminal sets and a plurality of conductive metal jumper assemblies. Each conductive metal jumper assembly corresponds to one of the plurality of conductive terminal sets, each conductive terminal set having a plurality of jumper conductive terminals, and each conductive metal jumper assembly can jumper across the plurality of jumper conductive terminals of the corresponding conductive terminal set. Therefore, after the assembled electrical connector is designed, the number, structure, and electrical connection relationship of the jumper conductive terminals can be customized by adjusting the conductive terminal sets and the conductive metal jumper assemblies to meet the specific needs and developments of electronic devices.

Furthermore, because the conductive metal jumper assembly can jumper across multiple jumper conductive terminals of a corresponding conductive terminal set, thereby electrically connecting the multiple jumper conductive terminals, it is possible to achieve electrical connection of multiple conductive terminals on the electrical connector without the need for additional jumpers, thereby allowing electronic devices equipped with the assembled electrical connector of this application to continue to develop in the direction of being lighter, thinner, and smaller.

Furthermore, the assembled electrical connector of the present application is provided with a conductive plastic wall between the multiple conductive terminal sets. The conductive plastic wall provides shielding between the multiple conductive terminal sets, thereby reducing signal interference between the multiple conductive terminal sets, thereby optimizing the transmission speed and quality of telecommunication signals for the multiple conductive terminal sets to meet the special needs and development of electronic equipment.

The following description, accompanied by figures, illustrates the technical content of this application through specific embodiments. Those familiar with the art will readily understand the other advantages and benefits of this application from the disclosures herein. This application may also be implemented or applied through various other specific embodiments. The details in this description may be modified and altered based on different viewpoints and applications without departing from the spirit of this application. In particular, the proportions and relative positions of the various components in the figures are for illustrative purposes only and do not represent actual implementations of this application.

For an explanation of the embodiments disclosed in this application, please refer to Figures 1 to 13.

This application provides an assembled electrical connector that can customize the number, structure, and electrical connection relationship of conductive terminals. It should be noted that the conductive terminals provide signal transmission.

In the embodiment shown in FIG. 1 to FIG. 13 of the present application, the assembled electrical connector 1 includes: a primary-side terminal assembly 11, a secondary-side terminal assembly 12, a conductive plastic shielding assembly 13, a primary-side conductive metal jumper assembly 14, and a secondary-side conductive metal jumper assembly 15.

The main-side terminal assembly 11 comprises a main-side terminal insulating base 111 and a main-side conductive terminal set 112. The main-side terminal insulating base 111 defines an internal space 1111 within the main-side insulating base. The main-side conductive terminal set 112 comprises a first main-side jumper conductive terminal 1121, a second main-side jumper conductive terminal 1122, and a main-side non-jumper conductive terminal 1123. In the above embodiment, the main-side conductive terminal set 112 is embedded in the main-side terminal insulating base 111, with the jumper portion between the first main-side jumper conductive terminal 1121 and the second main-side jumper conductive terminal 1122 extending into the internal space 1111 within the main-side insulating base.

It should be noted that the main-side terminal assembly 11 can provide for transmitting differential signals or ground signals, for example. In the above-described embodiment, the main-side first jumper conductive terminal 1121 and the main-side second jumper conductive terminal 1122 can provide for transmitting ground signals, but this is not limiting. The main-side first jumper conductive terminal 1121 and the main-side second jumper conductive terminal 1122 can also provide for transmitting other forms of electrical signals. Furthermore, the number of jumper conductive terminals provided in the main-side terminal assembly 11 is not limited to multiple. The main-side terminal assembly 11 can also be provided with only one jumper conductive terminal, that is, one of the main-side first jumper conductive terminal 1121 and the main-side second jumper conductive terminal 1122 can be omitted. In addition, the number of non-crossover conductive terminals provided in the main-side terminal assembly 11 is not limited to one, and it is not excluded that the number of non-crossover conductive terminals provided in the main-side terminal assembly 11 is multiple, that is, there can be multiple main-side non-crossover conductive terminals 1123.

The secondary terminal assembly 12 comprises a secondary terminal insulating base 121 and a secondary conductive terminal set 122. The secondary terminal insulating base 121 defines an internal space 1211 within the secondary terminal insulating base. The secondary conductive terminal set 122 comprises a first secondary jumper conductive terminal 1221, a second secondary jumper conductive terminal 1222, and a secondary non-jumper conductive terminal 1223. In the above embodiment, the secondary conductive terminal set 122 is embedded in the secondary terminal insulating base 121, with the jumper portion between the first secondary jumper conductive terminal 1221 and the second secondary jumper conductive terminal 1222 extending into the internal space 1211 within the secondary terminal insulating base.

It should be noted that the secondary terminal assembly 12 can provide for transmission of differential signals or ground signals, for example. In the aforementioned embodiment, the secondary first jumper conductive terminal 1221 and the secondary second jumper conductive terminal 1222 can provide for transmission of ground signals, but this is not limiting. The secondary first jumper conductive terminal 1221 and the secondary second jumper conductive terminal 1222 can also provide for transmission of other electrical signals. Furthermore, the number of jumper conductive terminals provided in the secondary terminal assembly 12 is not limited to multiple. The secondary terminal assembly 12 can also be provided with only one jumper conductive terminal, that is, one of the secondary first jumper conductive terminal 1221 and the secondary second jumper conductive terminal 1222 can be omitted. In addition, the number of non-crossover conductive terminals provided in the secondary terminal assembly 12 is not limited to one, and it is not excluded that the number of non-crossover conductive terminals provided in the secondary terminal assembly 12 is multiple, that is, there can be multiple secondary non-crossover conductive terminals 1223.

The conductive plastic shielding assembly 13 comprises a conductive plastic wall 131. The conductive plastic wall 131 comprises a primary conductive plastic wall assembly structure 1311, a secondary conductive plastic wall assembly structure 1312, a primary conductive plastic wall alignment structure 1313, and a primary conductive plastic wall alignment structure 1314.

The main-side conductive metal jumper assembly 14 comprises a main-side conductive metal wall 141. The main-side conductive metal wall 141 comprises a main-side first conductive metal jumper structure 1411, a main-side second conductive metal jumper structure 1412, a main-side conductive metal anchor structure 1413, a main-side conductive metal wall assembly structure 1415, and a main-side conductive metal wall alignment structure 1416. The main-side conductive metal anchor structure 1413 anchors the main-side first conductive metal jumper structure 1411 and the main-side second conductive metal jumper structure 1412 to define the relative position relationship between the main-side first conductive metal jumper structure 1411 and the main-side second conductive metal jumper structure 1412, so that the relative position relationship between the main-side first conductive metal jumper structure 1411 and the main-side second conductive metal jumper structure 1412 meets expectations.

The secondary conductive metal jumper assembly 15 comprises a secondary conductive metal wall 151. The secondary conductive metal wall 151 comprises a secondary first conductive metal jumper structure 1511, a secondary second conductive metal jumper structure 1512, a secondary conductive metal anchor structure 1513, a secondary conductive metal wall assembly structure 1515, and a secondary conductive metal wall alignment structure 1516. The secondary conductive metal anchor structure 1513 anchors the secondary first conductive metal jumper structure 1511 and the secondary second conductive metal jumper structure 1512 to define the relative position relationship between the secondary first conductive metal jumper structure 1511 and the secondary second conductive metal jumper structure 1512, so that the relative position relationship between the secondary first conductive metal jumper structure 1511 and the secondary second conductive metal jumper structure 1512 meets expectations.

In this application, the primary-side terminal assembly 11, the secondary-side terminal assembly 12, the conductive plastic shielding assembly 13, the primary-side conductive metal jumper assembly 14, and the secondary-side conductive metal jumper assembly 15 are structurally matched and can be assembled to form an electrical connector assembly A.

It should be noted that the main-side conductive metal wall assembly structure 1415 and the main-side conductive plastic wall assembly structure 1311 are corresponding structures, allowing the main-side conductive metal wall assembly structure 1415 and the main-side conductive plastic wall assembly structure 1311 to be matched, allowing the main-side conductive metal wall 141 to be assembled on the conductive plastic wall 131. In addition, in this application, the main-side conductive metal wall assembly structure 1415 and the main-side conductive plastic wall assembly structure 1311 can be selected to have corresponding snap-fit structures, buckle structures, interference structures, or other assembly structures.

Correspondingly, the main-side conductive metal wall alignment structure 1416 and the main-side conductive plastic wall alignment structure 1313 are corresponding structures, allowing the main-side conductive metal wall alignment structure 1416 and the main-side conductive plastic wall alignment structure 1313 to be matched to provide alignment for the main-side conductive metal wall assembly structure 1415 and the main-side conductive plastic wall assembly structure 1311. This allows the main-side conductive metal wall assembly structure 1415 and the main-side conductive plastic wall assembly structure 1311 to be matched, allowing the main-side conductive metal wall 141 to be assembled on the conductive plastic wall 131. In addition, in this application, the main-side conductive metal wall alignment structure 1416 and the main-side conductive plastic wall alignment structure 1313 can be selected to be corresponding snap-fit structures, buckle structures, interference structures, or other alignment structures.

In the above embodiment, the main-side conductive metal wall assembly structure 1415 and the main-side conductive plastic wall assembly structure 1311 are respectively a socket structure and a plug structure with corresponding structures, so that the main-side conductive plastic wall assembly structure 1311 can be inserted into the main-side conductive metal wall assembly structure 1415 to achieve the assembly of the main-side conductive metal wall 141 on the conductive plastic wall 131.

Furthermore, the main-side conductive metal wall alignment structure 1416 and the main-side conductive plastic wall alignment structure 1313 are structurally corresponding plug structures and socket structures, respectively, allowing the main-side conductive metal wall alignment structure 1416 to be inserted into the main-side conductive plastic wall alignment structure 1313. Specifically, in the electrical connector assembly component A, the main-side conductive metal wall alignment structure 1416 extends from the end edge of the main-side conductive metal wall 141 into the main-side conductive plastic wall alignment structure 1313 to achieve alignment between the main-side conductive metal wall assembly structure 1415 and the main-side conductive plastic wall assembly structure 1311.

The secondary conductive metal wall assembly structure 1515 corresponds to the secondary conductive plastic wall assembly structure 1312, allowing the secondary conductive metal wall assembly structure 1515 and the secondary conductive plastic wall assembly structure 1312 to be compatible, allowing the secondary conductive metal wall 151 to be assembled on the conductive plastic wall 131. Furthermore, the secondary conductive metal wall assembly structure 1515 and the secondary conductive plastic wall assembly structure 1312 can be configured as corresponding snap-fit structures, buckle structures, interference structures, or other assembly structures.

Correspondingly, the secondary conductive metal wall alignment structure 1516 and the secondary conductive plastic wall alignment structure 1314 are corresponding structures, allowing the secondary conductive metal wall alignment structure 1516 and the secondary conductive plastic wall alignment structure 1314 to be matched to provide alignment between the secondary conductive metal wall assembly structure 1515 and the secondary conductive plastic wall assembly structure 1312. This allows the secondary conductive metal wall assembly structure 1515 and the secondary conductive plastic wall assembly structure 1312 to be matched, allowing the secondary conductive metal wall 151 to be assembled on the conductive plastic wall 131. In addition, in this application, the secondary conductive metal wall alignment structure 1516 and the secondary conductive plastic wall alignment structure 1314 can be selected to be corresponding snap-fit structures, buckle structures, interference structures, or other alignment structures.

In the above embodiment, the secondary conductive metal wall assembly structure 1515 and the secondary conductive plastic wall assembly structure 1312 are respectively a socket structure and a plug structure with corresponding structures, so that the secondary conductive plastic wall assembly structure 1312 can be inserted into the secondary conductive metal wall assembly structure 1515 to achieve the assembly of the secondary conductive metal wall 151 on the conductive plastic wall 131.

In addition, the secondary conductive metal wall alignment structure 1516 and the secondary conductive plastic wall alignment structure 1314 are respectively a plug structure and a socket structure with corresponding structures, so that the secondary conductive metal wall alignment structure 1516 can be inserted into the secondary conductive plastic wall alignment structure 1314. Specifically, in the electrical connector assembly A, the secondary conductive metal wall alignment structure 1516 extends from the end of the secondary conductive metal wall 151 into the secondary conductive plastic wall alignment structure 1314 to provide alignment for the secondary conductive metal wall assembly structure 1515 and the secondary conductive plastic wall assembly structure 1312.

In the electrical connector assembly component A, the internal space 1111 of the primary-side insulating seat body is connected to the internal space 1211 of the secondary-side insulating seat body to form the internal space S of the insulating seat body assembly.

Furthermore, in the electrical connector assembly A, the main-side conductive metal wall 141 extends within the internal space 1111 of the main-side insulating base, allowing the main-side first conductive metal jumper structure 1411 and the main-side second conductive metal jumper structure 1412 to respectively bridge the bridge portions of the main-side first jumper conductive terminal 1121 and the main-side second jumper conductive terminal 1122 within the internal space 1111 of the main-side insulating base. This allows the main-side conductive metal wall 141 to bridge the main-side first jumper conductive terminal 1121 and the main-side second jumper conductive terminal 1122 to form a main-side jumper circuit.

It should be noted that in the electrical connector assembly A, the main-side conductive metal wall 141 spans the main-side non-crossing conductive terminals 1123 to prevent the main-side non-crossing conductive terminals 1123 from overlapping the main-side conductive metal wall 141, thereby preventing the main-side non-crossing conductive terminals 1123 from electrically connecting to the main-side crossover circuit. Optionally, in the above embodiment, the main-side conductive metal wall 141 has a main-side conductive metal hollow structure 1414. The main-side conductive metal hollow structure 1414 is disposed at a position corresponding to the main-side non-crossing conductive terminals 1123, allowing the main-side conductive metal wall 141 to span the main-side non-crossing conductive terminals 1123.

Furthermore, in the electrical connector assembly component A, the secondary conductive metal wall 151 extends within the internal space 1211 of the secondary insulating base, allowing the secondary first conductive metal jumper structure 1511 and the secondary second conductive metal jumper structure 1512 to respectively bridge the bridge portions of the secondary first jumper conductive terminal 1221 and the secondary second jumper conductive terminal 1222 within the internal space 1211 of the secondary insulating base. This allows the secondary conductive metal wall 151 to bridge the secondary first jumper conductive terminal 1221 and the secondary second jumper conductive terminal 1222 to form a secondary jumper circuit.

It should be noted that in the electrical connector assembly A, the secondary conductive metal wall 151 spans the secondary non-crossover conductive terminals 1223 to prevent the secondary non-crossover conductive terminals 1223 from overlapping the secondary conductive metal wall 151, thereby preventing the secondary non-crossover conductive terminals 1223 from electrically connecting to the primary-side crossover circuit. Optionally, in the above embodiment, the secondary conductive metal wall 151 has a secondary conductive metal hollow structure 1514. The secondary conductive metal hollow structure 1514 is disposed at a position corresponding to the secondary non-crossover conductive terminals 1223, allowing the secondary conductive metal wall 151 to span the secondary non-crossover conductive terminals 1223.

In the electrical connector assembly A, the conductive plastic wall 131 extends within the interior space S of the insulating base assembly to provide electrical shielding between the primary-side conductive terminal set 112 and the secondary-side conductive terminal set 122. Furthermore, the conductive plastic wall 131 is located between the primary conductive metal wall 141 and the secondary conductive metal wall 151. The conductive plastic wall 131 is electrically connected to the primary conductive metal wall 141 and the secondary conductive metal wall 151, respectively, to electrically connect the primary jumper circuit to the secondary jumper circuit, thereby electrically connecting the primary first jumper conductive terminal 1121, the primary second jumper conductive terminal 1122, the secondary first jumper conductive terminal 1221, and the secondary second jumper conductive terminal 1222.

In the above embodiment, the main side conductive metal wall 141 is a metal plate, and the main side first conductive metal jumper structure 1411 and the main side second conductive metal jumper structure 1412 are bent structures on the metal plate, so that the main side first conductive metal jumper structure 1411 and the main side second conductive metal jumper structure 1412 can become a spring arm structure, so that the main side first conductive metal jumper structure 1411 and the main side second conductive metal jumper structure 1412 can be bent. The jumper structure 1412 can elastically abut the jumper portion of the first main-side jumper conductive terminal 1121 and the second main-side jumper conductive terminal 1122, thereby ensuring that the first main-side conductive metal jumper structure 1411 and the second main-side conductive metal jumper structure 1412 can respectively overlap the jumper portion of the first main-side jumper conductive terminal 1121 and the second main-side jumper conductive terminal 1122 within the internal space 1111 of the main-side insulating base.

Similarly, the secondary conductive metal wall 151 is a metal plate, and the secondary first conductive metal jumper structure 1511 and the secondary second conductive metal jumper structure 1512 are bent structures on the metal plate, so that the secondary first conductive metal jumper structure 1511 and the secondary second conductive metal jumper structure 1512 can become spring arm structures to allow the secondary first conductive metal jumper structure 1511 and the secondary second conductive metal jumper structure 1512 to be bent. The structure 1512 can elastically abut the bridging portions of the secondary-side first jumper conductive terminal 1221 and the secondary-side second jumper conductive terminal 1222, respectively, thereby ensuring that the secondary-side first conductive metal jumper structure 1511 and the secondary-side second conductive metal jumper structure 1512 can respectively overlap the bridging portions of the secondary-side first jumper conductive terminal 1221 and the secondary-side second jumper conductive terminal 1222 within the internal space 1111 of the primary-side insulating base.

Furthermore, the primary-side first conductive metal jumper structure 1411 includes multiple primary-side first conductive metal jumper substructures 14111. The primary-side second conductive metal jumper structure 1412 includes multiple primary-side second conductive metal jumper substructures 14121. The secondary-side first conductive metal jumper structure 1511 includes multiple secondary-side first conductive metal jumper substructures 15111. The secondary-side second conductive metal jumper structure 1512 includes multiple secondary-side second conductive metal jumper substructures 15121.

It should be noted that the multiple main-side first conductive metal jumper substructures 14111 are respectively connected to the main-side first jumper conductive terminal 1121 at different connecting positions, allowing the main-side first conductive metal jumper structure 1411 to connect to the main-side first jumper conductive terminal 1121 at multiple connecting positions. The multiple main-side second conductive metal jumper substructures 14121 are respectively connected to the main-side second jumper conductive terminal 1122 at different connecting positions, allowing the main-side second conductive metal jumper structure 1412 to connect to the main-side second jumper conductive terminal 1122 at multiple connecting positions. The plurality of secondary-side first conductive metal jumper substructures 15111 are respectively connected to the secondary-side first jumper conductive terminal 1221 at different connecting positions, allowing the secondary-side first conductive metal jumper structure 1511 to connect to the secondary-side first jumper conductive terminal 1221 at multiple connecting positions. The plurality of secondary-side second conductive metal jumper substructures 15121 are respectively connected to the secondary-side second jumper conductive terminal 1222 at different connecting positions, allowing the secondary-side second conductive metal jumper structure 1512 to connect to the secondary-side second jumper conductive terminal 1222 at multiple connecting positions.

It should be noted that the assembled electrical connector of the present application is composed of at least a plurality of conductive terminal sets and a plurality of conductive metal jumper assemblies. Each conductive metal jumper assembly corresponds to one of the plurality of conductive terminal sets. Each conductive terminal set has a plurality of jumper conductive terminals, and each conductive metal jumper assembly can jumper the plurality of jumper conductive terminals of the corresponding conductive terminal set.

Therefore, each conductive metal jumper assembly can achieve electrical connections between multiple conductive terminals, eliminating the need for additional jumpers for electrical connections between multiple conductive terminals. This allows electronic devices using the assembled electrical connector of this application to continue to develop in a direction of being lighter, thinner, and smaller. Furthermore, after the assembled electrical connector design is completed, the number, structure, and electrical connection relationship of the conductive terminals can still be customized by adjusting each conductive terminal set and each conductive metal jumper assembly individually to meet the specific needs and development of the electronic device.

In addition, the assembled electrical connector of the present application has a conductive plastic wall that provides shielding between multiple conductive terminal sets, thereby reducing signal interference between the multiple conductive terminal sets, thereby optimizing the transmission speed and quality of telecommunication signals through the multiple conductive terminal sets to meet the special needs and development of electronic equipment.

It should be noted that in the above-mentioned embodiments, some of the aforementioned components may be omitted. For example, in this application, the assembled electrical connector may include only a primary-side terminal assembly, a secondary-side terminal assembly, a conductive plastic shield assembly, a primary-side conductive metal jumper assembly, and a secondary-side conductive metal jumper assembly. The primary-side terminal assembly comprises a primary-side terminal insulating base and a primary-side conductive terminal assembly. The primary-side terminal insulating base comprises an internal space within the primary-side insulating base. The main side conductive terminal assembly includes a main side first jumper conductive terminal and a main side second jumper conductive terminal, and the main side conductive terminal assembly is embedded in the main side terminal insulation base, and the jumper portion of the main side first jumper conductive terminal and the main side second jumper conductive terminal extends into the internal space of the main side insulation base. The secondary terminal assembly comprises a secondary terminal insulating base and a secondary conductive terminal set; the secondary terminal insulating base comprises an internal space within the secondary terminal insulating base; the secondary conductive terminal set comprises a first secondary jumper conductive terminal and a second secondary jumper conductive terminal, and the secondary conductive terminal set is embedded in the secondary terminal insulating base, with the jumper portion between the first secondary jumper conductive terminal and the second secondary jumper conductive terminal extending into the internal space within the secondary terminal insulating base.

In addition, the conductive plastic shielding assembly has a conductive plastic wall. The main-side conductive metal jumper assembly has a main-side conductive metal wall, and the main-side conductive metal wall has a main-side first conductive metal jumper structure and a main-side second conductive metal jumper structure. The secondary conductive metal jumper assembly has a secondary conductive metal wall, which has a secondary first conductive metal jumper structure and a secondary second conductive metal jumper structure. The primary terminal assembly, the secondary terminal assembly, the conductive plastic shielding assembly, the primary conductive metal jumper assembly, and the secondary conductive metal jumper assembly can be assembled to form an electrical connector assembly. In the electrical connector assembly, the internal space of the primary insulating base is connected to the secondary insulating base. The internal space forms an internal space for assembling the insulating base body; the main-side conductive metal wall extends within the internal space of the main-side insulating base body, so that the main-side first conductive metal jumper structure and the main-side second conductive metal jumper structure can respectively overlap the jumper portion of the main-side first jumper conductive terminal and the main-side second jumper conductive terminal within the internal space of the main-side insulating base body, so that the main-side conductive metal wall can jumper the main-side first jumper conductive terminal and the main-side second jumper conductive terminal to form a main-side jumper circuit. The secondary conductive metal wall extends within the interior space of the secondary insulating base, allowing the secondary first conductive metal jumper structure and the secondary second conductive metal jumper structure to respectively bridge the bridge portions of the secondary first jumper conductive terminal and the secondary second jumper conductive terminal within the interior space of the secondary insulating base, thereby allowing the secondary conductive metal wall to bridge the secondary first jumper conductive terminal and the secondary second jumper conductive terminal to form a secondary jumper circuit. The conductive plastic wall extends within the interior space of the insulating base assembly and provides electrical shielding between the primary-side conductive terminal set and the secondary-side conductive terminal set. The conductive plastic wall is located between the primary-side conductive metal wall and the secondary-side conductive metal wall, and the conductive plastic wall electrically connects the primary-side conductive metal wall and the secondary-side conductive metal wall, respectively, to electrically connect the primary-side jumper circuit and the secondary-side jumper circuit, thereby electrically connecting the primary-side first jumper conductive terminal, the primary-side second jumper conductive terminal, the secondary-side first jumper conductive terminal, and the secondary-side second jumper conductive terminal.

In summary, the assembled electrical connector provided by this application is constructed by assembling at least a plurality of conductive terminal sets and a plurality of conductive metal jumper assemblies. Each conductive metal jumper assembly corresponds to one of the plurality of conductive terminal sets, each conductive terminal set having a plurality of jumper conductive terminals, and each conductive metal jumper assembly can jumper across the plurality of jumper conductive terminals of the corresponding conductive terminal set. Therefore, after the assembled electrical connector is designed, the number, structure, and electrical connection relationship of the jumper conductive terminals can be customized by adjusting the conductive terminal sets and the conductive metal jumper assemblies to meet the specific needs and developments of electronic devices.

Furthermore, because the conductive metal jumper assembly can jumper across multiple jumper conductive terminals of a corresponding conductive terminal set, thereby electrically connecting the multiple jumper conductive terminals, it is possible to achieve electrical connection of multiple conductive terminals on the electrical connector without the need for additional jumpers, thereby allowing electronic devices equipped with the assembled electrical connector of this application to continue to develop in the direction of being lighter, thinner, and smaller.

Furthermore, the assembled electrical connector of the present application is provided with a conductive plastic wall between the multiple conductive terminal sets. The conductive plastic wall provides shielding between the multiple conductive terminal sets, thereby reducing signal interference between the multiple conductive terminal sets, thereby optimizing the transmission speed and quality of telecommunication signals for the multiple conductive terminal sets to meet 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. Anyone 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 for this application shall be as set forth in the scope of the patent application.

1: Assembled electrical connector 11: Primary terminal assembly 111: Primary terminal insulation housing 1111: Internal space of the primary insulation housing 112: Primary conductive terminal assembly 1121: Primary first jumper conductive terminal 1122: Primary second jumper conductive terminal 1123: Primary non-jumper conductive terminal 12: Secondary terminal assembly 121: Secondary terminal insulation housing 1211: Internal space of the secondary insulation housing 122: Secondary conductive terminal assembly 1221: Secondary first jumper conductive terminal 1222: Secondary second jumper conductive terminal 1223: Secondary-side non-jumper conductive terminal 13: Conductive plastic shield assembly 131: Conductive plastic wall 1311: Primary-side conductive plastic wall assembly 1312: Secondary-side conductive plastic wall assembly 1313: Primary-side conductive plastic wall alignment structure 1314: Secondary-side conductive plastic wall alignment structure 14: Primary-side conductive metal jumper assembly 141: Primary-side conductive metal wall 1411: Primary-side first conductive metal jumper structure 14111: Primary-side first conductive metal jumper substructure 1412: Primary-side second conductive metal jumper structure 14121: Primary-side second conductive metal jumper substructure 1413: Primary-side conductive metal anchor structure 1414: Primary-side conductive metal hollow structure 1415: Primary-side conductive metal wall assembly structure 1416: Primary-side conductive metal wall alignment structure 15: Secondary-side conductive metal jumper assembly 151: Secondary-side conductive metal wall 1511: Secondary-side first conductive metal jumper structure 15111: Secondary-side first conductive metal jumper substructure 1512: Secondary-side second conductive metal jumper structure 15121: Secondary-side second conductive metal jumper substructure 1513: Secondary conductive metal anchor structure 1514: Secondary conductive metal hollow structure 1515: Secondary conductive metal wall assembly structure 1516: Secondary conductive metal wall alignment structure A: Electrical connector assembly components S: Insulation base assembly internal space

The above and other aspects, features and other advantages of the present application will be more clearly understood through the following description of embodiments in conjunction with the drawings.

FIG1 is a perspective diagram of the assembled electrical connector of the present application at a first viewing angle according to an embodiment.

FIG2 is a perspective schematic diagram of the assembled electrical connector of the present application at a second viewing angle according to an embodiment.

FIG3 is a perspective schematic diagram of the assembled electrical connector of the present application at a third viewing angle in one embodiment.

FIG4 is a perspective schematic diagram of the assembled electrical connector of the present application at a fourth viewing angle in one embodiment.

FIG5 is a schematic top view of some components of an embodiment of the assembled electrical connector of the present application.

FIG6 is a schematic cross-sectional view of some components of the assembled electrical connector shown in FIG5 taken along line segment AA.

FIG7 is a schematic cross-sectional view of some components of the assembled electrical connector shown in FIG5 taken along line BB.

FIG8 is a schematic assembly diagram of some components of an embodiment of the assembled electrical connector of the present application.

FIG9 is a schematic assembly diagram of some components of an embodiment of the assembled electrical connector of the present application.

FIG10 is a schematic assembly diagram of some components of an embodiment of the assembled electrical connector of the present application.

FIG11 is a schematic assembly diagram of some components of an embodiment of the assembled electrical connector of the present application.

FIG12 is a schematic assembly diagram of some components of an embodiment of the assembled electrical connector of the present application.

FIG13 is a schematic assembly diagram of some components of an embodiment of the assembled electrical connector of the present application.

1: Assembled electrical connector

11: Main side terminal assembly

111: Main terminal insulation seat

112: Main side conductive terminal assembly

1121: Primary side first jumper conductive terminal

1122: Second jumper conductive terminal on the main side

1123: Main side non-crossover conductive terminal

12: Secondary terminal assembly

121: Secondary terminal insulation seat

1211: Secondary insulating seat internal space

13: Conductive plastic shielding assembly

131: Conductive plastic wall

1311: Main side conductive plastic wall assembly structure

1313: Main side conductive plastic wall alignment structure

14: Main side conductive metal jumper assembly

141: Main side conductive metal wall

1411: Main-side first conductive metal jumper structure

14111: Main-side first conductive metal jumper structure

1412: Second conductive metal jumper structure on the main side

14121: Second conductive metal jumper structure on the main side

1413: Main side conductive metal connection structure

1414: Main side conductive metal hollow structure

1415: Main side conductive metal wall assembly structure

1416: Main side conductive metal wall alignment structure

15: Secondary conductive metal jumper assembly

1511: Secondary side first conductive metal jumper structure

15111: Secondary side first conductive metal jumper structure

1512: Secondary side second conductive metal jumper structure

15121: Secondary side second conductive metal jumper structure

1513: Secondary conductive metal connection structure

1514: Secondary conductive metal hollow structure

1515: Secondary conductive metal wall assembly structure

1516: Secondary side conductive metal wall alignment structure

A: Electrical connector assembly components

Claims (11)

An assembled electrical connector comprises: A main-side terminal assembly comprising a main-side terminal insulating base and a main-side conductive terminal set; the main-side terminal insulating base having an internal space; the main-side conductive terminal set comprising a first main-side jumper conductive terminal and a second main-side jumper conductive terminal, the main-side conductive terminal set being embedded in the main-side terminal insulating base, with the jumper portion between the first main-side jumper conductive terminal and the second main-side jumper conductive terminal extending into the internal space of the main-side insulating base; A primary terminal assembly comprising an insulating primary terminal base and a primary conductive terminal assembly; the insulating secondary terminal base having an internal space within the primary insulating base; the secondary conductive terminal assembly comprising a first primary jumper conductive terminal and a second primary jumper conductive terminal, the secondary conductive terminal assembly being embedded in the insulating secondary terminal base, with the jumper portion between the first and second secondary jumper conductive terminals extending into the internal space within the secondary insulating base; A conductive plastic shielding assembly comprising a conductive plastic wall; A primary-side conductive metal jumper assembly comprising a primary-side conductive metal wall having a primary-side first conductive metal jumper structure and a primary-side second conductive metal jumper structure; and a secondary-side conductive metal jumper assembly comprising a primary-side conductive metal wall having a primary-side first conductive metal jumper structure and a primary-side second conductive metal jumper structure; wherein: The primary-side terminal assembly, the secondary-side terminal assembly, the conductive plastic shield assembly, the primary-side conductive metal jumper assembly, and the secondary-side conductive metal jumper assembly can be assembled to form an electrical connector assembly. In this electrical connector assembly, the internal space of the primary-side insulating base is connected to the internal space of the secondary-side insulating base to form an insulating base assembly internal space. The main-side conductive metal wall extends within the interior space of the main-side insulating base, allowing the main-side first conductive metal jumper structure and the main-side second conductive metal jumper structure to respectively bridge the bridge portions of the main-side first jumper conductive terminal and the main-side second jumper conductive terminal within the interior space of the main-side insulating base, thereby enabling the main-side conductive metal wall to bridge the main-side first jumper conductive terminal and the main-side second jumper conductive terminal to form a main-side jumper circuit. The secondary conductive metal wall extends within the interior space of the secondary insulating base, allowing the secondary first conductive metal jumper structure and the secondary second conductive metal jumper structure to respectively overlap the bridging portions of the secondary first jumper conductive terminal and the secondary second jumper conductive terminal within the interior space of the secondary insulating base, thereby allowing the secondary conductive metal wall to bridge the secondary first jumper conductive terminal and the secondary second jumper conductive terminal to form a primary jumper circuit; and The conductive plastic wall extends within the interior space of the insulating base assembly and provides electrical shielding between the primary-side conductive terminal set and the secondary-side conductive terminal set. The conductive plastic wall is located between the primary-side conductive metal wall and the secondary-side conductive metal wall, and the conductive plastic wall electrically connects the primary-side conductive metal wall and the secondary-side conductive metal wall, respectively, to electrically connect the primary-side jumper circuit and the secondary-side jumper circuit, thereby electrically connecting the primary-side first jumper conductive terminal, the primary-side second jumper conductive terminal, the secondary-side first jumper conductive terminal, and the secondary-side second jumper conductive terminal. As described in claim 1, the assembled electrical connector, wherein the main-side first conductive metal jumper structure has a plurality of main-side first conductive metal jumper substructures, the plurality of main-side first conductive metal jumper substructures are respectively connected to the main-side first jumper conductive terminal at different overlapping positions, so that the main-side first conductive metal jumper structure can be connected to the main-side first jumper conductive terminal at multiple overlapping positions; the main-side second conductive metal jumper structure has a plurality of main-side second conductive metal jumper substructures, the plurality of main-side second conductive metal jumper substructures are respectively connected to the main-side second jumper conductive terminal at different overlapping positions, so that the main-side second conductive metal jumper structure can be connected to the main-side second jumper conductive terminal at multiple overlapping positions. The secondary first conductive metal jumper structure comprises a plurality of secondary first conductive metal jumper substructures, each of which is connected to the secondary first conductive jumper terminal at different connecting positions, so that the secondary first conductive metal jumper structure can connect to the secondary first conductive jumper terminal at multiple connecting positions; and the secondary second conductive metal jumper structure comprises a plurality of secondary second conductive metal jumper substructures, each of which is connected to the secondary second conductive jumper terminal at different connecting positions, so that the secondary second conductive metal jumper structure can connect to the secondary second conductive jumper terminal at multiple connecting positions. As described in claim 1, the assembled electrical connector, wherein the main-side conductive metal wall is a metal plate, and the main-side first conductive metal jumper structure and the main-side second conductive metal jumper structure are bent structures on the metal plate; and the secondary-side conductive metal wall is a metal plate, and the secondary-side first conductive metal jumper structure and the secondary-side second conductive metal jumper structure are bent structures on the metal plate. The assembled electrical connector as claimed in claim 1, wherein the main-side conductive metal wall further has a main-side conductive metal anchoring structure, the main-side conductive metal anchoring structure anchoring the main-side first conductive metal jumper structure and the main-side second conductive metal jumper structure to define the main-side first conductive metal jumper structure and the main-side second conductive metal jumper structure. and the secondary conductive metal wall further has a primary conductive metal docking structure, the secondary conductive metal docking structure is docked with the secondary first conductive metal jumper structure and the secondary second conductive metal jumper structure to define the relative position relationship of the secondary first conductive metal jumper structure and the secondary second conductive metal jumper structure. As described in claim 1, the assembled electrical connector, wherein the main-side conductive terminal set also has a main-side non-crossing conductive terminal, and in the electrical connector assembly component, the main-side conductive metal wall spans the main-side non-crossing conductive terminal to prevent the main-side non-crossing conductive terminal from overlapping the main-side conductive metal wall; and the secondary-side conductive terminal set also has a primary-side non-crossing conductive terminal, and in the electrical connector assembly component, the secondary-side conductive metal wall spans the secondary-side non-crossing conductive terminal to prevent the secondary-side non-crossing conductive terminal from overlapping the secondary-side conductive metal wall. As described in claim 5, the assembled electrical connector, wherein the main-side conductive metal wall also has a main-side conductive metal hollow structure, which is arranged at a position corresponding to the main-side non-crossing conductive terminal so that the main-side conductive metal wall can cross the main-side non-crossing conductive terminal; and the secondary-side conductive metal wall also has a primary-side conductive metal hollow structure, which is arranged at a position corresponding to the secondary-side non-crossing conductive terminal so that the secondary-side conductive metal wall can cross the secondary-side non-crossing conductive terminal. The assembled electrical connector of claim 1, wherein the conductive plastic wall comprises a primary-side conductive plastic wall assembly structure and a primary-side conductive plastic wall assembly structure, the primary-side conductive metal wall further comprises a primary-side conductive metal wall assembly structure, and the secondary-side conductive metal wall further comprises a primary-side conductive metal wall assembly structure, wherein the primary-side conductive metal wall assembly structure and the primary-side conductive plastic wall assembly structure are corresponding structures. The primary conductive metal wall assembly structure and the primary conductive plastic wall assembly structure are compatible with each other, allowing the primary conductive metal wall to be assembled on the conductive plastic wall. The secondary conductive metal wall assembly structure and the secondary conductive plastic wall assembly structure are corresponding structures, allowing the secondary conductive metal wall assembly structure and the secondary conductive plastic wall assembly structure to be compatible with each other, allowing the secondary conductive metal wall to be assembled on the conductive plastic wall. As described in claim 7, the assembled electrical connector, wherein the main-side conductive metal wall assembly structure and the main-side conductive plastic wall assembly structure are respectively structurally corresponding jack structures and plug structures, so that the main-side conductive plastic wall assembly structure can be inserted into the main-side conductive metal wall assembly structure; and the secondary-side conductive metal wall assembly structure and the secondary-side conductive plastic wall assembly structure are respectively structurally corresponding jack structures and plug structures, so that the secondary-side conductive plastic wall assembly structure can be inserted into the secondary-side conductive metal wall assembly structure. As described in claim 7, the assembled electrical connector, wherein the conductive plastic wall further comprises a main-side conductive plastic wall alignment structure and a primary-side conductive plastic wall alignment structure, the main-side conductive metal wall further comprises a main-side conductive metal wall alignment structure, and the secondary-side conductive metal wall further comprises a primary-side conductive metal wall alignment structure, wherein the main-side conductive metal wall alignment structure and the main-side conductive plastic wall alignment structure are corresponding structures, so that the main-side conductive metal wall alignment structure and the main-side conductive plastic wall alignment structure can be matched to align The primary conductive metal wall assembly structure and the primary conductive plastic wall assembly structure provide alignment, allowing the primary conductive metal wall to be assembled on the conductive plastic wall. Furthermore, the secondary conductive metal wall alignment structure and the secondary conductive plastic wall alignment structure are corresponding structures, allowing the secondary conductive metal wall alignment structure and the secondary conductive plastic wall alignment structure to be matched to provide alignment between the secondary conductive metal wall assembly structure and the secondary conductive plastic wall assembly structure, allowing the secondary conductive metal wall to be assembled on the conductive plastic wall. As described in claim 9, the assembled electrical connector, wherein the main-side conductive metal wall alignment structure and the main-side conductive plastic wall alignment structure are respectively structurally corresponding plug structures and socket structures, so that the main-side conductive metal wall alignment structure can be inserted into the main-side conductive plastic wall alignment structure; and the secondary-side conductive metal wall alignment structure and the secondary-side conductive plastic wall alignment structure are respectively structurally corresponding plug structures and socket structures, so that the secondary-side conductive metal wall alignment structure can be inserted into the secondary-side conductive plastic wall alignment structure. An assembled electrical connector as described in claim 10, wherein, in the electrical connector assembly component, the main-side conductive metal wall alignment structure extends from the end edge of the main-side conductive metal wall to the main-side conductive plastic wall alignment structure; and in the electrical connector assembly component, the secondary-side conductive metal wall alignment structure extends from the end edge of the secondary-side conductive metal wall to the secondary-side conductive plastic wall alignment structure.