TWI885299B - Combined electrical connector - Google Patents

Abstract

A combined electrical connector is composed of at least a top electrical connector sub-assembly, a bottom electrical connector sub-assembly and a jumper conductive component. Therefore, after the electrical connector is designed, it can still be adjusted by the top electrical connector sub-assembly, the bottom electrical connector sub-assembly and the jumper conductive component to achieve customized adjustment of the number, structure and electrical connection relationship of the conductive terminals of the electrical connector to meet the special needs and development of electronic equipment.

Description

Combined electrical connector

The present application relates to the field of electronic device technology, and more specifically, to a modular electrical connector that can customize the number, structure, and electrical connection relationship of conductive terminals.

In modern electronic devices, electrical connectors are usually provided to provide transmission signals. However, in response to the special needs and development of electronic devices, the number and structure of the conductive terminals of the electrical connectors are required to be customized. However, after the current electrical connector design is completed, the number and structure of the conductive terminals are determined and cannot be customized, making it difficult to meet the signal transmission requirements of the electronic devices. This will limit the technical (functional) development of the electronic devices.

In addition, there may be a need for electrical connection between the multiple conductive terminals on the electrical connector. Currently, the industry can only choose to add a jumper that matches the electrical connector to achieve electrical connection between some of the conductive terminals on the electrical connector. However, the addition of the jumper will occupy the internal space of the electronic device, which will prevent the electronic device from continuing to develop in the direction of being thinner and smaller.

In view of this, how to customize the number, structure and electrical connection relationship of the conductive terminals of the electrical connector has become a technical issue that the industry is eager to challenge and overcome.

In view of the above-mentioned shortcomings of the prior art, the present application provides a combined electrical connector, which includes: a top electrical connector subassembly, the top electrical connector subassembly having a top rubber core, a top first conductive terminal and at least one top second conductive terminal, the top rubber core providing positioning for the top first conductive terminal and the top second conductive terminal, and the top rubber core having a top terminal jumper slot, the top terminal jumper slot exposing the top second conductive terminal a bottom electrical connector subassembly, the bottom electrical connector subassembly having a bottom rubber core, a bottom first conductive terminal and at least one bottom second conductive terminal, the bottom rubber core providing positioning for the bottom first conductive terminal and the bottom second conductive terminal, and the bottom rubber core having a bottom terminal jumper slot, the bottom terminal jumper slot exposing the jumper portion of the bottom second conductive terminal; and a jumper conductive assembly having a jumper conductive beam, at least A top pin and at least one bottom pin; wherein the top electrical connector subassembly, the bottom electrical connector subassembly and the jumper conductive assembly can be combined into an electrical connector assembly; in the electrical connector assembly, a jumper assembly accommodating space is provided between the top rubber core and the bottom rubber core, and the jumper conductive assembly is accommodated in the jumper assembly accommodating space, and the top terminal jumper slot and the bottom terminal jumper slot are respectively connected to the jumper assembly accommodating space, so that the top pin can be connected to the top pin through the top rubber core. The top terminal jumper slot jumps over the jumper portion of the top second conductive terminal to form a top terminal jumper circuit, and the bottom pin can jump over the jumper portion of the bottom second conductive terminal through the bottom terminal jumper slot to form a bottom terminal jumper circuit. The jumper conductive beam jumps over the top first conductive terminal and the bottom first conductive terminal to connect the top pin and the bottom pin, so that the top terminal jumper circuit is electrically connected to the bottom terminal jumper circuit to form a terminal jumper circuit.

Preferably, in the combined electrical connector of the present application, the top pin has a first top pin overlapping structure and a second top pin overlapping structure, wherein the first top pin overlapping structure and the second top pin overlapping structure overlap the overlapping portion of the top second conductive terminal at a first top overlapping position and a second top overlapping position, respectively. The bottom overlapping positions are different; the bottom pin has a first bottom pin overlapping structure and a second bottom pin overlapping structure, the first bottom pin overlapping structure and the second bottom pin overlapping structure overlap the overlapping parts of the bottom second conductive terminal at a first bottom overlapping position and a second bottom overlapping position respectively, and the first bottom overlapping position and the second bottom overlapping position are different.

Preferably, in the combined electrical connector of the present application, the first top pin lap structure is located on a first side of the jumper conductive beam, and the second top pin lap structure is located on a second side of the jumper conductive beam; the first bottom pin lap structure is located on the first side of the jumper conductive beam, and the second bottom pin lap structure is located on the second side of the jumper conductive beam; the first side and the second side are different.

Preferably, in the combined electrical connector of the present application, the first top pin overlapping structure, the second top pin overlapping structure, the first bottom pin overlapping structure, and the second bottom pin overlapping structure are spring arm structures.

Preferably, in the combined electrical connector of the present application, the top rubber core also has a top rubber core recessed structure, and the top rubber core recessed structure is provided to form a accommodating space for the jumper assembly.

Preferably, in the combined electrical connector of the present application, the bottom rubber core also has a bottom rubber core recessed structure, and the bottom rubber core recessed structure is provided to form a accommodating space for the jumper assembly.

Preferably, in the combined electrical connector of the present application, the jumper conductive component also has a conductive plastic series connection structure and a conductive plastic body, the conductive plastic series connection structure is connected in series with the conductive plastic body to form a conductive plastic circuit, and the jumper conductive beam is also connected to the conductive plastic series connection structure to electrically connect the terminal jumper circuit to the conductive plastic circuit.

Preferably, in the combined electrical connector of the present application, the top rubber core also has a top bonding structure, and the bottom rubber core also has a bottom bonding structure. In the electrical connector assembly, the top bonding structure and the bottom bonding structure are bonded to make the top rubber core and the bottom rubber core become one, and position the jumper conductive component in the jumper component accommodating space.

Preferably, in the combined electrical connector of the present application, the conductive plastic body has a joining channel, wherein the top joining structure or the bottom joining structure can pass through the conductive plastic body via the joining channel.

Preferably, in the combined electrical connector of the present application, in the electrical connector assembly, the top pin overlaps the top second conductive terminal at a top overlapping area, the bottom pin overlaps the bottom second conductive terminal at a bottom overlapping area, and the length of the conductive plastic body is greater than the length of the top overlapping area or greater than the length of the bottom overlapping area.

Preferably, in the combined electrical connector of the present application, in the electrical connector assembly, the top rubber core and the bottom rubber core are overlapped, so that the jumper assembly accommodating space becomes a closed space and prevents the jumper conductive assembly from leaving.

Preferably, in the combined electrical connector of the present application, the at least one top second conductive terminal is a plurality of top second conductive terminals, the at least one bottom second conductive terminal is a plurality of bottom second conductive terminals, the at least one top pin is a plurality of top pins, the at least one bottom pin is a plurality of bottom pins, each of the top pins corresponds to one of the plurality of top second conductive terminals, and each of the bottom pins corresponds to one of the plurality of bottom second conductive terminals.

Compared to the prior art, the combined electrical connector provided by the present application is composed of at least a top electrical connector subassembly, a bottom electrical connector subassembly and a jumper conductive assembly. Therefore, after the electrical connector design is completed, the number, structure and electrical connection relationship of the conductive terminals of the electrical connector can still be customized by adjusting the top electrical connector subassembly, the bottom electrical connector subassembly and the jumper conductive assembly to meet the special needs and development of electronic equipment.

In addition, the top electrical connector subassembly and the bottom electrical connector subassembly can form a jumper assembly accommodating space, and the jumper conductive assembly is accommodated in the jumper assembly accommodating space, and the jumper conductive member can achieve electrical connection between some conductive terminals on the electrical connector to provide transmission signals (such as ground signals), thereby reducing signal crosstalk between some conductive terminals on the electrical connector, thereby optimizing the transmission speed and quality of the electrical connector for signals. Furthermore, the present application can achieve electrical connection between some conductive terminals on the electrical connector without the need for additional jumpers, so that the electronic equipment equipped with the combined electrical connector of the present application can continue to develop in the direction of being thinner and smaller.

The following content will be accompanied by drawings to illustrate the technical content of this application through specific concrete embodiments. People familiar with this technology can easily understand other advantages and functions of this application from the content disclosed in this specification. This application can also be implemented or applied through other different specific embodiments. The details in this specification can also be modified and changed in various ways based on different viewpoints and applications without departing from the spirit of this application. In particular, the proportional relationship and relative position of each component in the drawings are only for exemplary purposes and do not represent the actual situation of the implementation of this application.

For the description of the embodiments of the present invention, please refer to FIGS. 1 to 26 .

The present application provides a combined electrical connector for transmitting signals. In the embodiments shown in FIGS. 24 to 26 of the present application, the combined electrical connector 1 includes a top electrical connector subassembly 11, a bottom electrical connector subassembly 12 and a jumper conductive assembly 13.

In the embodiment shown in FIGS. 19 to 20 of the present application, the top electrical connector subassembly 11 has a top rubber core 111, a top first conductive terminal 112, and a plurality of top second conductive terminals 113. The top first conductive terminal 112 and the plurality of top second conductive terminals 113 can provide transmission, such as differential signals or ground signals. The top rubber core 111 can be made of an insulating material, and can provide positioning for the top first conductive terminal 112 and the plurality of top second conductive terminals 113. In addition, the top rubber core 111 has a top terminal jumper slot 1111, so that the overlapping parts of the plurality of top second conductive terminals 113 are exposed through the top terminal jumper slot 1111.

In the embodiment shown in FIGS. 22 to 23 of the present application, the bottom electrical connector subassembly 12 has a bottom rubber core 121, a bottom first conductive terminal 122, and a plurality of bottom second conductive terminals 123. The bottom first conductive terminal 122 and the plurality of bottom second conductive terminals 123 can provide transmission, such as differential signals or ground signals. The bottom rubber core 121 can be made of an insulating material, and can provide positioning for the bottom first conductive terminal 122 and the plurality of bottom second conductive terminals 123. In addition, the bottom rubber core 121 has a bottom terminal jumper groove 1211, so that the overlapping parts of the plurality of bottom second conductive terminals 123 are exposed through the bottom terminal jumper groove 1211.

In the embodiment shown in FIG. 22 and FIG. 23 of the present application, the jumper conductive component 13 has a jumper conductive beam 131, a plurality of top pins 132, and a plurality of bottom pins 133. It should be noted that the jumper conductive beam 131, the plurality of top pins 132, and the plurality of bottom pins 133 can be integrally formed of a metal conductor material to provide a transmission signal (e.g., a ground signal).

In addition, it should be noted that the number of the top second conductive terminal 113 and the bottom second conductive terminal 123 is not limited to a plurality, and it is not excluded that the number of the top second conductive terminal 113 and the bottom second conductive terminal 123 is one. Correspondingly, the number of the top pin 132 and the bottom pin 133 is not limited to a plurality, and it is not excluded that the number of the top pin 132 and the bottom pin 133 is one.

It should be noted that each top pin 132 corresponds to one of the plurality of top second conductive terminals 113 , and each top pin 132 has a first top pin bridging structure 1321 and a second top pin bridging structure 1322 . In the embodiment shown in FIGS. 24 to 26 of the present application, the first top pin bridging structure 1321 is located at the first side L1 of the jumper conductive beam 131, and the second top pin bridging structure 1322 is located at the second side L2 of the jumper conductive beam 131 which is different from the first side L1. That is, the first top pin bridging structure 1321 and the second top pin bridging structure 1322 are respectively located at two sides of the jumper conductive beam 131.

In addition, each bottom pin 133 corresponds to one of the plurality of bottom second conductive terminals 123, and each bottom pin 133 has a first bottom pin overlapping structure 1331 and a second bottom pin overlapping structure 1332. In the embodiment shown in FIGS. 24 to 26 of the present application, the first bottom pin overlapping structure 1331 is located at a first side L1 of the jumper conductive beam 131, and the second bottom pin overlapping structure 1332 is located at a second side L2 of the jumper conductive beam 131 that is different from the first side L1, that is, the first bottom pin overlapping structure 1331 and the second bottom pin overlapping structure 1332 are respectively located at two sides of the jumper conductive beam 131.

In the embodiment shown in FIGS. 1 to 12 of the present application, the top electrical connector subassembly 11, the bottom electrical connector subassembly 12 and the jumper conductive assembly 13 can be combined into an electrical connector assembly C to form a modular electrical connector 1. It should be noted that in the above embodiment, the modular electrical connector 1 is formed by combining the top electrical connector subassembly 11, the bottom electrical connector subassembly 12 and the jumper conductive assembly 13. Therefore, after the electrical connector design is completed, the number, structure and electrical connection relationship of the conductive terminals of the electrical connector can still be customized by adjusting the top electrical connector subassembly 11, the bottom electrical connector subassembly 12 and the jumper conductive assembly 13 respectively to meet the special needs and development of electronic devices.

In addition, in the embodiments shown in FIG. 9 and FIG. 11 of the present application, the top rubber core 111 has a top rubber core recessed structure 1112, and correspondingly, the bottom rubber core 121 has a bottom rubber core recessed structure 1212. In the electrical connector assembly C, the top rubber core recessed structure 1112 is matched with the bottom rubber core recessed structure 1212, and a jumper component accommodating space S is formed between the top rubber core 111 and the bottom rubber core 121, so that the jumper conductive component 13 can be accommodated in the jumper component accommodating space S to achieve the function. It should be noted that in the above embodiment, the top rubber core 111 and the bottom rubber core 121 are overlapped, so that the jumper assembly accommodating space S becomes a closed space to prevent the jumper conductive component 13 from leaving, thereby preventing the jumper conductive component 13 from easily leaving the jumper assembly accommodating space S, so as to improve the service life of the combined electrical connector 1.

In the above embodiment, the top terminal jumper groove 1111 and the bottom terminal jumper groove 1211 are respectively connected to the jumper assembly accommodating space S, so that the jumper conductive component 13 accommodated in the jumper assembly accommodating space S can be connected to the top second conductive terminal 113 and the bottom second conductive terminal 123 through the top terminal jumper groove 1111 and the bottom terminal jumper groove 1211 respectively.

Specifically, as shown in FIG9 , the first top pin overlapping structure 1321 and the second top pin overlapping structure 1322 of each top pin 132 can overlap the overlapping parts of the corresponding top second conductive terminal 113 at different first top overlapping positions TP1 and second top overlapping positions TP2 respectively via the top terminal jumper slot 1111, so that each top pin 132 overlaps the corresponding top second conductive terminal 113 at two positions, so as to ensure that each top pin 132 can overlap the corresponding top second conductive terminal 113 to form a top terminal overlapping circuit that can provide a transmission signal (e.g., a ground signal). As shown in FIG. 11 , the first bottom pin overlapping structure 1331 and the second bottom pin overlapping structure 1332 of each bottom pin 133 can overlap the overlapping portion of the corresponding bottom second conductive terminal 123 at different first bottom overlapping positions BP1 and second bottom overlapping positions BP2 respectively via the bottom terminal jumper slot 1211, so that each bottom pin 133 overlaps the corresponding bottom second conductive terminal 123 at two positions, thereby ensuring that each bottom pin 133 can overlap the corresponding bottom second conductive terminal 123 to form a bottom terminal overlapping circuit that can provide a transmission signal (e.g., a ground signal).

It should be noted that, in the above embodiment, the first top pin overlapping structure 1321 and the second top pin overlapping structure 1322 are elastic arm structures, so that each top pin 132 can elastically abut against the top second conductive terminal 113, so that each top pin 132 can obtain a better effect of overlapping the top second conductive terminal 113. Similarly, the first bottom pin overlapping structure 1331 and the second bottom pin overlapping structure 1332 are elastic arm structures, so that each bottom pin 133 can elastically abut against the bottom second conductive terminal 123, so that each bottom pin 133 can obtain a better effect of overlapping the bottom second conductive terminal 123.

It should be noted that in the embodiments shown in FIGS. 16 and 17 of the present application, in the electrical connector assembly C, the jumper conductive beam 131 respectively crosses the top first conductive terminal 112 and the bottom first conductive terminal 122, and connects a plurality of top pins 132 and a plurality of bottom pins 133, so that the top terminal jumper circuit and the bottom terminal jumper circuit are electrically connected to form a terminal jumper circuit that can transmit signals (such as ground signals). Therefore, the present application can achieve electrical connection between some of the conductive terminals on the electrical connector by jumping the conductive beam 131, multiple top pins 132 and multiple bottom pins 133, without adding additional jumpers for the electrical connection between some of the conductive terminals on the electrical connector, thereby allowing electronic devices using the multi-combination electrical connector 1 of the present application to continue to develop in the direction of being lighter, thinner and smaller.

In addition, it should be noted that the terminal jumper circuit (including the top terminal jumper circuit and the bottom terminal jumper circuit) can provide a transmission signal (such as a ground signal), thereby effectively reducing the signal crosstalk between some conductive terminals on the electrical connector, thereby optimizing the electrical connector for signal transmission speed and quality to meet the special needs and development of electronic equipment.

In the embodiment shown in FIG. 24 to FIG. 26 of the present application, the jumper conductive component 13 has a conductive plastic series structure 134 and a conductive plastic body 135. The conductive plastic series structure 134 is connected in series with the conductive plastic body 135 to form a conductive plastic circuit that can provide a transmission signal (e.g., a ground signal), and the jumper conductive beam 131 is connected to the conductive plastic series structure 134, so that the terminal jumper circuit and the conductive plastic circuit are electrically connected to provide a transmission signal (e.g., a ground signal). In this way, the signal crosstalk between some conductive terminals on the electrical connector can be effectively reduced, thereby optimizing the transmission speed and quality of the signal of the electrical connector to meet the special needs and development of electronic equipment.

In the above embodiment, the top rubber core 111 has a top bonding structure 1113, and the bottom rubber core 121 has a bottom bonding structure 1213. In the electrical connector assembly C, the top bonding structure 1113 and the bottom bonding structure 1213 are bonded together into one by, for example, high frequency, crimping or adhesive bonding, so that the top rubber core 111 and the bottom rubber core 121 are positioned in the jumper component accommodating space S. Correspondingly, the conductive plastic body 135 has a bonding channel 1351 such as a through hole, so that the top bonding structure 1113 or the bottom bonding structure 1213 can pass through the conductive plastic body 135 through the bonding channel 1351, so that the top rubber core 111 and the bottom rubber core 121 are bonded into one body.

In addition, in the embodiment shown in Figures 16 and 17 of the present application, in the electrical connector assembly C, the top pin 132 overlaps the top second conductive terminal 113 in the top overlapping area TZ, and the bottom pin 133 overlaps the bottom second conductive terminal 123 in the bottom overlapping area BZ. Correspondingly, the length of the conductive plastic body 135 is greater than the length of the top overlapping area TZ or greater than the length of the bottom overlapping area BZ. In this way, the signal crosstalk between the upper conductive terminals of the electrical connector can be effectively reduced, thereby optimizing the signal transmission speed and quality of the electrical connector to meet the special needs and development of electronic equipment.

It should be noted that in the embodiments of the present application, some of the aforementioned components may be omitted. For example, the assembled electrical connector includes: a top electrical connector subassembly, a bottom electrical connector subassembly, and a jumper conductive assembly. The top electrical connector subassembly has a top rubber core, a top first conductive terminal, and at least one top second conductive terminal. The top rubber core provides positioning for the top first conductive terminal and the top second conductive terminal, and the top rubber core has a top terminal jumper groove, which exposes the overlapping parts of the multiple top second conductive terminals. The bottom electrical connector subassembly has a bottom rubber core, a bottom first conductive terminal, and at least one bottom second conductive terminal. The bottom rubber core provides positioning for the bottom first conductive terminal and the bottom second conductive terminal, and the bottom rubber core has a bottom terminal jumper slot, and the bottom terminal jumper slot exposes the overlapping portion of the bottom second conductive terminal.

In addition, the jumper conductive component has a jumper conductive beam, at least one top pin and at least one bottom pin. The top electrical connector subassembly, the bottom electrical connector subassembly and the jumper conductive component can be assembled into an electrical connector assembly. In the electrical connector assembly, there is a jumper assembly accommodating space between the top rubber core and the bottom rubber core, and the jumper conductive component is accommodated in the jumper assembly accommodating space. The top terminal jumper groove and the bottom terminal jumper groove are respectively connected to the jumper assembly accommodating space, so that the top pin can be overlapped with the overlapped part of the top second conductive terminal through the top terminal jumper groove to form a top terminal jumper circuit, and the bottom pin can be overlapped with the overlapped part of the bottom second conductive terminal through the bottom terminal jumper groove to form a bottom terminal jumper circuit. The jumper conductive beam spans the top first conductive terminal and the bottom first conductive terminal, and connects the top pin and the bottom pin, so that the top terminal jumper circuit and the bottom terminal jumper circuit are electrically connected to form a terminal jumper circuit.

In summary, the combined electrical connector provided by the present application is composed of at least a top electrical connector subassembly, a bottom electrical connector subassembly and a jumper conductive assembly. Therefore, after the electrical connector design is completed, the number, structure and electrical connection relationship of the conductive terminals of the electrical connector can still be customized by adjusting the top electrical connector subassembly, the bottom electrical connector subassembly and the jumper conductive assembly to meet the special needs and development of electronic equipment.

In addition, the top electrical connector subassembly and the bottom electrical connector subassembly can form a jumper assembly accommodating space, and the jumper conductive assembly is accommodated in the jumper assembly accommodating space, and the jumper conductive member can achieve electrical connection between some conductive terminals on the electrical connector to provide transmission signals (such as ground signals), thereby reducing signal crosstalk between some conductive terminals on the electrical connector, thereby optimizing the transmission speed and quality of the electrical connector for signals. Furthermore, the present application can achieve electrical connection between some conductive terminals on the electrical connector without the need for additional jumpers, so that the electronic equipment equipped with the combined electrical connector of the present application can continue to develop in the direction of being thinner and smaller.

The above embodiments are merely illustrative of the principles and effects of this application, and are not intended to limit this application. Anyone familiar with this technology may modify and alter the above embodiments without violating the spirit and scope of this application. Therefore, the scope of protection of this application should be as listed in the scope of the patent application of this application.

1                       Assembled electrical connector 11                     Top electrical connector subassembly 111                    Top rubber core 1111                  Top terminal jumper groove 1112                  Top rubber core recessed structure 1113                  Top bonding structure 112                      Top first conductive terminal 113                   Top second conductive terminal 12                       Bottom electrical connector subassembly 121                      Bottom rubber core 1211                 Bottom terminal jumper groove 1212                  Bottom rubber core recessed structure 1213    Bottom joint structure 122                    Bottom first conductive terminal 123                    Bottom second conductive terminal 13                     Jumper conductive assembly 131                    Jumper conductive beam 132                    Top pin 1321                 First top pin lap structure 1322                 Second top pin lap structure 133                      Bottom pin 1331                  First bottom pin lap structure 1332                  Second bottom pin lap structure 134                    Conductive plastic series connection structure 135                  Conductive plastic body 1351                 Joint channel C                         Electrical connector assembly S                       Jumper assembly accommodation space TP1                         First top lap position TP2                         Second top lap position BP1                  First bottom lap position BP2                  Second bottom lap position L1                         First side L2                         Second side TZ                       Top lap area BZ                       Bottom lap area

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.

FIG. 1 is a three-dimensional schematic diagram of the combined electrical connector of the present application.

FIG. 2 is a three-dimensional schematic diagram of the combined electrical connector of the present application.

FIG. 3 is a three-dimensional schematic diagram of the combined electrical connector of the present application.

FIG. 4 is a three-dimensional schematic diagram of the combined electrical connector of the present application.

FIG. 5 is a front view schematic diagram of an embodiment of the combined electrical connector of the present application.

FIG. 6 is a schematic rear view of an embodiment of the combined electrical connector of the present application.

FIG. 7 is a side view schematic diagram of an embodiment of the combined electrical connector of the present application.

FIG. 8 is a schematic top view of an embodiment of the combined electrical connector of the present application.

FIG. 9 is a schematic cross-sectional view of some components of the assembled electrical connector shown in FIG. 8 cut along line segment AA.

FIG. 10 is a bottom view of an embodiment of the combined electrical connector of the present application.

FIG. 11 is a schematic cross-sectional view of some components of the assembled electrical connector shown in FIG. 10 cut along line segment BB.

FIG. 12 is a schematic cross-sectional view of some components of the assembled electrical connector shown in FIG. 10 cut along line segment CC.

FIG. 13 is a schematic assembly diagram of some components of an embodiment of the combined electrical connector of the present application.

FIG. 14 is a schematic assembly diagram of some components of an embodiment of the combined electrical connector of the present application.

FIG. 15 is a schematic assembly diagram of some components of an embodiment of the combined electrical connector of the present application.

FIG. 16 is a bottom view of some components of an embodiment of the combined electrical connector of the present application.

FIG. 17 is a top view of some components of an embodiment of the combined electrical connector of the present application.

FIG. 18 is a schematic assembly diagram of some components of an embodiment of the combined electrical connector of the present application.

FIG. 19 is a schematic exploded view of an embodiment of the top electrical connector subassembly of the present application.

Figure 20 is a schematic diagram of an exploded view of an embodiment of the top electrical connector subassembly of the present application.

FIG. 21 is a rear view of an embodiment of the bottom electrical connector subassembly and the jumper conductive assembly of the present application.

FIG. 22 is an exploded schematic diagram of an embodiment of the bottom electrical connector subassembly and the jumper conductive assembly of the present application.

FIG. 23 is an exploded schematic diagram of an embodiment of the bottom electrical connector subassembly and the jumper conductive assembly of the present application.

FIG. 24 is a schematic assembly diagram of some components of an embodiment of the combined electrical connector of the present application.

FIG. 25 is a schematic assembly diagram of some components of an embodiment of the combined electrical connector of the present application.

FIG. 26 is a schematic side view of some components of an embodiment of the combined electrical connector of the present application.

1: Combined electrical connector

11: Top electrical connector subassembly

111: Top rubber core

1111: Top terminal jumper slot

1112: Top rubber core recessed structure

1113: Top joint structure

112: Top first conductive terminal

113: Second conductive terminal at the top

12: Bottom electrical connector subassembly

121: Bottom rubber core

1211: Bottom terminal jumper slot

1212: Bottom rubber core recessed structure

122: Bottom first conductive terminal

123: Bottom second conductive terminal

13: Jumper conductive components

131: Cross-connected conductive beam

132: Top pin

1321: First top pin lap joint structure

1322: Second top pin lap structure

133: Bottom pin

1331: First bottom pin lap joint structure

1332: Second bottom pin lap joint structure

134: Conductive plastic series connection structure

135: Conductive plastic body

1351:Joining channel

L1: First side

L2: Second side

Claims (11)

A combined electrical connector, the combined electrical connector comprising: A top electrical connector subassembly, the top electrical connector subassembly having a top rubber core, a top first conductive terminal and at least one top second conductive terminal, the top rubber core providing positioning for the top first conductive terminal and the top second conductive terminal, and the top rubber core having a top terminal jumper groove, the top terminal jumper groove exposing the overlapping portion of the top second conductive terminal; A bottom electrical connector subassembly, the bottom electrical connector subassembly having a bottom rubber core, a bottom first conductive terminal and at least one bottom second conductive terminal, the bottom rubber core providing positioning for the bottom first conductive terminal and the bottom second conductive terminal, and the bottom rubber core having a bottom terminal jumper slot, the bottom terminal jumper slot exposing the overlapping portion of the bottom second conductive terminal; and a jumper conductive assembly, the jumper conductive assembly having a jumper conductive beam, at least one top pin and at least one bottom pin; wherein, the top electrical connector subassembly, the bottom electrical connector subassembly and the jumper conductive assembly can be combined into an electrical connector assembly; In the electrical connector assembly, a jumper assembly accommodating space is provided between the top rubber core and the bottom rubber core, and the jumper conductive component is accommodated in the jumper assembly accommodating space, and the top terminal jumper slot and the bottom terminal jumper slot are respectively connected to the jumper assembly accommodating space, so that the top pin can overlap the overlapping portion of the top second conductive terminal through the top terminal jumper slot to form a top terminal. The jumper conductive component also has a conductive plastic series structure and a conductive plastic body. The conductive plastic series structure is connected in series with the conductive plastic body to form a conductive plastic circuit. The jumper conductive beam also connects the conductive plastic series structure to form a conductive plastic circuit. The combined electrical connector as described in claim 1, wherein the top pin has a first top pin overlapping structure and a second top pin overlapping structure, the first top pin overlapping structure and the second top pin overlapping structure overlap the overlapping portion of the top second conductive terminal at a first top overlapping position and a second top overlapping position, respectively, the first top overlapping position and the second top overlapping position overlap each other. The top overlapping position is different; the bottom pin has a first bottom pin overlapping structure and a second bottom pin overlapping structure, the first bottom pin overlapping structure and the second bottom pin overlapping structure overlap the overlapping part of the bottom second conductive terminal at a first bottom overlapping position and a second bottom overlapping position respectively, and the first bottom overlapping position and the second bottom overlapping position are different. A combined electrical connector as described in claim 2, wherein the first top pin lap structure is located on a first side of the jumper conductive beam, and the second top pin lap structure is located on a second side of the jumper conductive beam; the first bottom pin lap structure is located on the first side of the jumper conductive beam, and the second bottom pin lap structure is located on the second side of the jumper conductive beam; the first side and the second side are different. A combined electrical connector as described in claim 2, wherein the first top pin lap structure, the second top pin lap structure, the first bottom pin lap structure, and the second bottom pin lap structure are spring arm structures. As described in claim 1, the combined electrical connector, wherein the top rubber core also has a top rubber core recessed structure, and the top rubber core recessed structure is provided to form a accommodating space for the jumper assembly. As described in claim 1, the combined electrical connector, wherein the bottom rubber core also has a bottom rubber core recessed structure, and the bottom rubber core recessed structure is provided to form a accommodating space for the jumper assembly. As described in claim 1, the assembled electrical connector, wherein the top rubber core also has a top bonding structure, and the bottom rubber core also has a bottom bonding structure. In the electrical connector assembly, the top bonding structure and the bottom bonding structure are bonded to make the top rubber core and the bottom rubber core become one, and the jumper conductive component is positioned in the jumper component accommodating space. As described in claim 7, the combined electrical connector, wherein the conductive plastic body has a joining channel, wherein the top joining structure or the bottom joining structure can pass through the conductive plastic body through the joining channel. A combined electrical connector as described in claim 7, wherein, in the electrical connector assembly, the top pin overlaps the top second conductive terminal at a top overlapping area, the bottom pin overlaps the bottom second conductive terminal at a bottom overlapping area, and the length of the conductive plastic body is greater than the length of the top overlapping area or greater than the length of the bottom overlapping area. As described in claim 1, in the combined electrical connector, the top rubber core and the bottom rubber core are overlapped, so that the jumper component accommodating space becomes a closed space to prevent the jumper conductive component from leaving. A combined electrical connector as described in claim 1, wherein the at least one top second conductive terminal is a plurality of top second conductive terminals, the at least one bottom second conductive terminal is a plurality of bottom second conductive terminals, the at least one top pin is a plurality of top pins, the at least one bottom pin is a plurality of bottom pins, each of the top pins corresponds to one of the plurality of top second conductive terminals, and each of the bottom pins corresponds to one of the plurality of bottom second conductive terminals.

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