Electrical connector
Patent Information
- Application Number
- CN202522077380.5
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-09-26
- Publication Date
- 2026-09-22
- Estimated Expiration
- 2035-09-26
AI Technical Summary
然而,此类设计方式往往需要增加电路板的层数或结构复杂度,进而导致电连接器的体积增加,或是制造成本提升
[0018]相较于先前技术,本申请所提供的电连接器包括复数差分端子与一差分端子屏蔽框,如此,可以在不使用电路板的情况下,通过这些差分端子传输高速信号,且通过所述差分端子屏蔽框为这些差分端子的信号传输提供屏蔽,以解决电连接器在传输高速信号时所产生的信号干扰与效率不足的问题,进而优化电连接器对于高速信号的传输质量,而满足电子设备的特殊需求及发展。
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Figure CN224790098U_ABST
Abstract
Description
Technical Field
[0001] This application relates to the field of electronic device technology, and in particular to an electrical connector that can reduce the degree of interference when transmitting high-speed signals. Background Technology
[0002] In recent years, with the rapid increase in demand for high-speed computing, servers, and data center applications, electrical connectors have been widely used in various electronic devices. Electrical connectors typically transmit signals through their internal circuit boards to support multi-channel data exchange. However, as electronic devices increasingly demand high-speed and high-bandwidth data transmission, electrical connectors are required to support signals with even higher transmission rates.
[0003] In existing technologies, the circuit boards inside electrical connectors typically house multiple high-speed signal circuits for data transmission. However, due to the limited spacing between these high-speed signal circuits on the circuit board, crosstalk, impedance discontinuities, or other electromagnetic interference problems are prone to occur during high-speed signal transmission. Such interference reduces signal integrity, leading to an increased transmission error rate and failing to meet the stability and reliability requirements of servers or high-speed computing systems.
[0004] To mitigate these issues, existing technologies attempt to reduce signal interference by adding grounding layers, shielding structures, or adjusting the routing of high-speed signal circuits within the electrical connector's internal circuit board. However, such designs often require increasing the number of circuit board layers or structural complexity, leading to increased connector size or manufacturing costs. Furthermore, improper internal circuit board design can cause impedance discontinuities due to excessive grounding layers and shielding structures, which may actually reduce the connector's efficiency during high-speed signal transmission.
[0005] As can be seen from the above, how to effectively improve the signal interference and inefficiency of existing electrical connectors during high-speed signal transmission while maintaining the miniaturization of electrical connectors is a problem that urgently needs to be solved by those in the relevant technical field. Utility Model Content
[0006] In view of the shortcomings of the prior art, this application provides an electrical connector that can be used with a mating connector. The electrical connector includes: a main electrical connector submodule, the main electrical connector submodule including a main differential terminal mating side and a main differential terminal non-mating side, and the main electrical connector submodule further includes a first main differential terminal, a second main differential terminal, and a main differential terminal shielding frame. The first main differential terminal includes a first main differential terminal body and a first main differential terminal mating structure. The second main differential terminal includes a second main differential terminal body and a second main differential terminal mating structure. The main differential terminal shielding frame includes a main differential terminal shielding frame body segment and a main differential terminal shielding frame mating segment. The main differential terminal shielding frame body segment extends from the main differential terminal mating side and the main differential terminal non-mating side to form a main differential terminal passage space, and the main differential terminal shielding frame mating segment extends from the main differential terminal... The non-dating side extends and forms a main differential terminal docking channel on the main differential terminal docking side. The first main differential terminal body and the second main differential terminal body are respectively disposed in the main differential terminal passage space, so that the main differential terminal shielding frame body segment provides shielding for the first main differential terminal body and the second main differential terminal body on the main differential terminal docking side and the main differential terminal non-dating side. The first main differential terminal docking structure and the second main differential terminal docking structure are respectively located in the main differential terminal docking channel, so that the main differential terminal shielding frame docking segment provides shielding for the first main differential terminal docking structure and the second main differential terminal docking structure on the main differential terminal non-dating side, and the first main differential terminal docking structure provides docking with the docking connector on the main differential terminal docking side, and the second main differential terminal docking structure provides docking with the docking connector on the main differential terminal docking side.The secondary electrical connector submodule includes a primary differential terminal mating side and a primary differential terminal non-mating side. The secondary electrical connector submodule also includes a primary differential terminal, a secondary differential terminal, and a primary differential terminal shielding frame. The primary differential terminal includes a primary differential terminal body and a primary differential terminal mating structure. The secondary differential terminal includes a secondary differential terminal body and a secondary differential terminal mating structure. The secondary differential terminal shielding frame includes a primary differential terminal body and a primary differential terminal shielding frame. The secondary differential terminal shielding frame body segment and the primary differential terminal shielding frame mating segment are connected. The secondary differential terminal shielding frame body segment extends from the mating side of the secondary differential terminal to the non-matting side of the secondary differential terminal to form a primary differential terminal passage space. The secondary differential terminal shielding frame mating segment extends from the non-matting side of the secondary differential terminal to form a primary differential terminal mating channel on the mating side of the secondary differential terminal. The primary differential terminal body and the secondary differential terminal body are respectively inserted into the secondary differential terminal passage space, so that the... The secondary differential terminal shielding frame body segment provides shielding for the primary differential terminal body and the secondary differential terminal body on both the secondary differential terminal mating side and the secondary differential terminal non-mating side. The primary differential terminal mating structure and the secondary differential terminal mating structure are respectively located in the secondary differential terminal mating channel, so that the secondary differential terminal shielding frame mating segment provides shielding for the primary differential terminal mating structure and the secondary differential terminal mating structure on the secondary differential terminal non-mating side, and so that the primary differential terminal mating structure... A primary differential terminal mating structure provides a mating connection to the secondary differential terminal mating side of the connector, and a secondary differential terminal mating structure also provides a mating connection to the secondary differential terminal mating side of the connector; and a shielding frame bridging conductive member is located between the primary electrical connector submodule and the secondary electrical connector submodule to electrically bridge the primary differential terminal shielding frame and the secondary differential terminal shielding frame, thereby electrically connecting the primary differential terminal shielding frame and the secondary differential terminal shielding frame.
[0007] Preferably, in the electrical connector of this application, the electrical connector is an MCIO connector.
[0008] Preferably, the electrical connector of this application further includes an insulating shell, wherein the main electrical connector sub-module, the secondary electrical connector sub-module, and the shielding frame bridging conductive member can be assembled into an electrical connector assembly, and the insulating shell can be engaged with the electrical connector assembly to position the main electrical connector sub-module, the secondary electrical connector sub-module, and the shielding frame bridging conductive member.
[0009] Preferably, the electrical connector of this application can be equipped with a main differential cable and a secondary differential cable. The main differential cable includes a first main differential wire, a second main differential wire, and a main differential cable shielding conductor. The secondary differential cable includes a first secondary differential wire, a second secondary differential wire, and a primary differential cable shielding conductor. The main electrical connector submodule further includes a main differential terminal lap side, a main differential terminal non-lap side, and a main shielding bridging conductive member. The main shielding bridging conductive member crosses the first main differential wire and the second main differential wire respectively, electrically bridging the main differential cable shielding conductor and the main differential terminal shielding frame, thus electrically connecting the main differential cable shielding conductor and the main differential terminal shielding frame. The first main differential terminal further includes a first main differential terminal lap structure, the second main differential terminal further includes a second main differential terminal lap structure, and the main differential terminal shielding frame further includes a main differential terminal shielding frame lap section. The differential terminal shielding frame overlap section extends from the non-overlap side of the main differential terminal and forms a main differential terminal overlap channel on the overlap side of the main differential terminal. The first main differential terminal overlap structure and the second main differential terminal overlap structure are respectively located in the main differential terminal overlap channel, so that the main differential terminal shielding frame overlap section provides shielding for the first main differential terminal overlap structure and the second main differential terminal overlap structure respectively on the non-overlap side of the main differential terminal. The first main differential terminal overlap structure provides overlap for the first main differential wire on the overlap side of the main differential terminal, so that the first main differential terminal is electrically connected to the first main differential wire. The second main differential terminal overlap structure provides overlap for the second main differential wire on the overlap side of the main differential terminal, so that the second main differential terminal is electrically connected to the second main differential wire. The secondary electrical connector submodule also includes a primary differential terminal overlap side, a primary differential terminal non-overlap side, and a primary shielding bridging conductive member.The secondary shielding bridging conductive member spans the primary differential cable and the secondary differential cable to electrically bridging the secondary differential cable shielding conductor and the secondary differential terminal shielding frame, thus electrically connecting the secondary differential cable shielding conductor and the secondary differential terminal shielding frame. The primary differential terminal further includes a primary differential terminal overlap structure, and the secondary differential terminal further includes a secondary differential terminal overlap structure. The secondary differential terminal shielding frame further includes a primary differential terminal shielding frame overlap section. This overlap section extends from the non-overlap side of the secondary differential terminal and forms a primary differential terminal overlap channel on the overlap side of the secondary differential terminal. The terminal overlap structure and the second differential terminal overlap structure are respectively located in the secondary differential terminal overlap channel, so that the overlap section of the secondary differential terminal shielding frame provides shielding for the first differential terminal overlap structure and the second differential terminal overlap structure on the non-overlap side of the secondary differential terminal, and the first differential terminal overlap structure provides a connection for the first differential wire on the overlap side of the secondary differential terminal, so that the first differential terminal is electrically connected to the first differential wire. The second differential terminal overlap structure also provides a connection for the second differential wire on the overlap side of the secondary differential terminal, so that the second differential terminal is electrically connected to the second differential wire.
[0010] Preferably, in the electrical connector of this application, the main differential terminal shielding frame body segment includes an O-shaped cross section, the main differential terminal shielding frame mating segment and the main differential terminal shielding frame overlapping segment include a U-shaped cross section; and the secondary differential terminal shielding frame body segment includes an O-shaped cross section, the secondary differential terminal shielding frame mating segment and the secondary differential terminal shielding frame overlapping segment include a U-shaped cross section.
[0011] Preferably, in the electrical connector of this application, the shielding frame bridging conductive member is a plate-shaped conductive member.
[0012] Preferably, in the electrical connector of this application, the primary shielding bridging conductive member and the secondary shielding bridging conductive member are plate-shaped conductive members.
[0013] Preferably, in the electrical connector of this application, the primary shielding bridging conductive member includes a primary shielding bridging conductive member welding structure, the primary shielding bridging conductive member welding structure being provided for welding the primary differential cable shield conductor to electrically connect the primary differential cable shield conductor to the primary differential terminal shield frame; and the secondary shielding bridging conductive member includes a secondary shielding bridging conductive member welding structure, the secondary shielding bridging conductive member welding structure being provided for welding the secondary differential cable shield conductor to electrically connect the secondary differential cable shield conductor to the secondary differential terminal shield frame.
[0014] Preferably, in the electrical connector of this application, the main electrical connector submodule further includes a main insulating adhesive; and the secondary electrical connector submodule further includes a secondary insulating adhesive; wherein the main insulating adhesive can engage with the secondary insulating adhesive to form a tongue-shaped mating structure, the main insulating adhesive can position the first main differential terminal and the second main differential terminal, and the secondary insulating adhesive can position the first secondary differential terminal and the second secondary differential terminal, so that the first main differential terminal mating structure, the second main differential terminal mating structure, the first secondary differential terminal mating structure, and the second secondary differential terminal mating structure are respectively located in the tongue-shaped mating structure to provide mating with the mating connector.
[0015] Preferably, the electrical connector of this application may be equipped with a circuit board, the circuit board including a first main differential circuit, a second main differential circuit, a first secondary differential circuit, and a second secondary differential circuit. The main electrical connector submodule further includes a main differential terminal contact side and a main differential terminal non-contact side. The first main differential terminal further includes a first main differential terminal contact structure, the second main differential terminal further includes a second main differential terminal contact structure, and the main differential terminal shielding frame further includes a main differential terminal shielding frame contact segment. The main differential terminal shielding frame contact segment extends from the non-contact side of the main differential terminal and is located at the main differential terminal. A main differential terminal overlap channel is formed on the overlap side. The first main differential terminal overlap structure and the second main differential terminal overlap structure are respectively located in the main differential terminal overlap channel, so that the overlap section of the main differential terminal shielding frame provides shielding for the first main differential terminal overlap structure and the second main differential terminal overlap structure on the non-overlap side of the main differential terminal, and the first main differential terminal overlap structure provides overlap for the first main differential circuit on the main differential terminal overlap side, so that the first main differential terminal is electrically connected to the first main differential circuit. The second main differential terminal overlap structure also provides overlap on the main differential terminal overlap side. The second primary differential circuit is described, such that the second primary differential terminal is electrically connected to the second primary differential circuit; and the secondary electrical connector submodule further includes a primary differential terminal overlap side and a primary differential terminal non-overlap side, the primary differential terminal further includes a primary differential terminal overlap structure, the second differential terminal further includes a second differential terminal overlap structure, the secondary differential terminal shielding frame further includes a primary differential terminal shielding frame overlap section, the secondary differential terminal shielding frame overlap section extends from the non-overlap side of the secondary differential terminal and forms a primary differential terminal overlap channel on the secondary differential terminal overlap side, the primary differential terminal overlap structure and the second The secondary differential terminal connection structures are respectively located in the secondary differential terminal connection channels, so that the secondary differential terminal shielding frame connection section provides shielding for the first secondary differential terminal connection structure and the second secondary differential terminal connection structure on the non-connection side of the secondary differential terminal, and the first secondary differential terminal connection structure provides connection to the first secondary differential circuit on the secondary differential terminal connection side, so that the first secondary differential terminal is electrically connected to the first secondary differential circuit. The second secondary differential terminal connection structure provides connection to the second secondary differential circuit on the secondary differential terminal connection side, so that the second secondary differential terminal is electrically connected to the second secondary differential circuit.
[0016] Preferably, in the electrical connector of this application, the shielding frame bridging conductive member is a strip-shaped conductive member.
[0017] Preferably, in the electrical connector of this application, the electrical connector further includes an insulating shell, the insulating shell including a slot mating structure, the insulating shell positioning the first main differential terminal, the second main differential terminal, the main differential terminal shielding frame, the first secondary differential terminal, the second secondary differential terminal, the secondary differential terminal shielding frame and the shielding frame bridging conductive member, so that the first main differential terminal mating structure, the second main differential terminal mating structure, the first secondary differential terminal mating structure and the second secondary differential terminal mating structure are respectively located in the slot mating structure to provide mating with the mating connector, and the shielding frame bridging conductive member electrically bridges the main differential terminal shielding frame and the secondary differential terminal shielding frame.
[0018] Compared to prior art, the electrical connector provided in this application includes a plurality of differential terminals and a differential terminal shielding frame. In this way, high-speed signals can be transmitted through these differential terminals without the use of a circuit board, and the differential terminal shielding frame provides shielding for the signal transmission of these differential terminals, thereby solving the problems of signal interference and insufficient efficiency caused by the electrical connector when transmitting high-speed signals, thus optimizing the transmission quality of high-speed signals by the electrical connector and meeting the special needs and development of electronic devices. Attached Figure Description
[0019] Figure 1 The diagram shown is a perspective view of one embodiment of the main electrical connector submodule of this application.
[0020] Figure 2 The diagram shown is a perspective view of one embodiment of the main electrical connector submodule of this application.
[0021] Figure 3 The diagram shown is a perspective view of one embodiment of the main electrical connector submodule of this application.
[0022] Figure 4 The diagram shown is a perspective view of one embodiment of the main electrical connector submodule of this application.
[0023] Figure 5 The diagram shown is a perspective view of a secondary electrical connector submodule of this application in one embodiment.
[0024] Figure 6 The diagram shown is a perspective view of a secondary electrical connector submodule of this application in one embodiment.
[0025] Figure 7 The diagram shown is a perspective view of a secondary electrical connector submodule of this application in one embodiment.
[0026] Figure 8The diagram shown is a perspective view of a secondary electrical connector submodule of this application in one embodiment.
[0027] Figure 9 The diagram shows a perspective view of some components of the main electrical connector submodule of this application in one embodiment.
[0028] Figure 10 The diagram shown is a first-view perspective perspective of an embodiment of the electrical connector of this application.
[0029] Figure 11 The diagram shown is a second-view perspective perspective of an embodiment of the electrical connector of this application.
[0030] Figure 12 The diagram shown is a top view of an embodiment of the electrical connector of this application.
[0031] Figure 13 Displayed as Figure 12 The diagram shows a cross-section of a portion of the electrical connector cut along line segment AA.
[0032] Figure 14 This application shows Figure 12 The diagram shows a cross-sectional view of a portion of the electrical connector cut along line segment BB.
[0033] Figure 15 This application shows Figure 12 The diagram shows a cross-sectional view of a portion of the electrical connector cut along line segment DD.
[0034] Figure 16 The diagram shown is a perspective view of an embodiment of the electrical connector of this application.
[0035] Figure 17 The diagram shown is a perspective view of a primary electrical connector submodule and a secondary electrical connector submodule of this application in one embodiment.
[0036] Figure 18 The diagram shown is a perspective view of an embodiment of the electrical connector of this application.
[0037] Figure 19 The diagram shown is a perspective view of an embodiment of the electrical connector of this application.
[0038] Figure 20 The diagram shown is a side view of an embodiment of the electrical connector of this application.
[0039] Figure 21 The diagram shown is a side view of an embodiment of the electrical connector of this application.
[0040] Figure 22 Displayed as Figure 20The diagram shows a cross-section of a portion of the electrical connector cut along line segment AA.
[0041] Figure 23 Displayed as Figure 20 The diagram shows a cross-sectional view of a portion of the electrical connector cut along line segment BB.
[0042] Component designation explanation
[0043] 1 Electrical connector
[0044] 10 Insulating housing
[0045] 101 Tongue-shaped docking structure
[0046] 102 Slot mating structure
[0047] 11 Main Electrical Connector Submodule
[0048] 110 Main insulating colloids
[0049] 111 First major differential terminal
[0050] 1110 First main differential terminal body
[0051] 1111 First main differential terminal mating structure
[0052] 1112 First main differential terminal overlap structure
[0053] 112 Second main differential terminal
[0054] 1120 Second main differential terminal body
[0055] 1121 Second main differential terminal mating structure
[0056] 1122 Second main differential terminal overlap structure
[0057] 113 Main differential terminal shielding frame
[0058] 1130 Main differential terminal shielding frame body section
[0059] 1131 Main differential terminal shielding frame mating section
[0060] 1132 Main differential terminal shielding frame overlap section
[0061] 114 Main shielding bridging conductive components
[0062] 1141 Main shielding bridging conductive component welding structure
[0063] L1111 Main differential terminal mating side
[0064] L1112 Main differential terminal non-butt side
[0065] L1121 Main differential terminal overlap side
[0066] L1122 Main differential terminal non-lap side
[0067] S1131 Main differential terminal installation space
[0068] P1131 Main differential terminal mating channel
[0069] P1132 Main differential terminal overlap channel
[0070] 12 Secondary Electrical Connector Submodules
[0071] 120 Secondary Insulating Glue
[0072] 121 First time requiring differential terminals
[0073] 1210 First time requiring differential terminal body
[0074] 1211 First differential terminal mating structure required
[0075] 1212 First time requiring differential terminal overlap structure
[0076] 122 Second differential terminal required
[0077] 1220 Second time, differential terminal body is required
[0078] 1221 Second differential terminal mating structure
[0079] 1222 Second differential terminal overlap structure
[0080] 123 Secondary Differential Terminal Shielding Frame
[0081] 1230 Secondary Differential Terminal Shielding Frame Body Section
[0082] 1231 Secondary Differential Terminal Shielding Frame Connecting Section
[0083] 1232 Secondary Differential Terminal Shielding Frame Overlap Section
[0084] 124 secondary shielding bridging conductive components
[0085] 1241 Secondary shielding bridging conductive component welding structure
[0086] L1211 Secondary Differential Terminal Matching Side
[0087] L1212 Secondary Differential Terminal Non-Match Side
[0088] L1221 Secondary Differential Terminal Bridging Side
[0089] L1222 Secondary differential terminal non-lap side
[0090] S1231 Secondary Differential Terminal Installation Space
[0091] P1231 Secondary Differential Terminal Connector Channel
[0092] P1232 Secondary Differential Terminal Connection Channel
[0093] 13. Shielding frame bridging conductive components
[0094] A connector assembly
[0095] 2. Connector
[0096] 31. Main differential cables
[0097] 311 First Primary Differential Wire
[0098] 312 Second Main Differential Wire
[0099] 313 Main differential cable shielding conductor
[0100] 32 secondary differential cables
[0101] 321 First time requiring differential cable
[0102] 322 Second time, differential wire is needed.
[0103] 323 Secondary Differential Cable Shielding Conductor
[0104] 4. Circuit board
[0105] 411 First Main Differential Circuit
[0106] 412 Second Main Differential Circuit
[0107] 421 First time needing a differential circuit
[0108] 422 Second time, differential circuit is needed Detailed Implementation
[0109] The following specific examples illustrate the implementation of this application. Those skilled in the art can easily understand other advantages and effects of this application from the content disclosed in this specification. This application can also be implemented or applied through other different specific embodiments, and various details in this specification can also be modified or changed based on different viewpoints and applications without departing from the spirit of this application. It should be noted that, unless otherwise specified, the following embodiments and features in the embodiments can be combined with each other.
[0110] It should be noted that the illustrations provided in the following embodiments are only schematic representations of the basic concept of this application. Therefore, the drawings only show the components related to this application and are not drawn according to the actual number, shape and size of the components in the actual implementation. In the actual implementation, the form, quantity and proportion of each component can be arbitrarily changed, and the layout of the components may also be more complex.
[0111] Please refer to the description of the embodiments disclosed in this application. Figures 1 to 23 .
[0112] In the above embodiments, an electrical connector 1 is provided, which can be selected as an MCIO connector to transmit high-speed signals. The electrical connector 1 can be used with a mating connector 2, and the electrical connector 1 includes: a main electrical connector submodule 11, a secondary electrical connector submodule 12, and a shielding frame bridging conductive member 13.
[0113] Regarding the main electrical connector submodule 11, the main electrical connector submodule 11 includes a main differential terminal mating side L1111 and a main differential terminal non-mating side L1112, and the main electrical connector submodule 11 also includes a first main differential terminal 111, a second main differential terminal 112 and a main differential terminal shielding frame 113, wherein the first main differential terminal 111 can transmit a first main differential signal, the second main differential terminal 112 can transmit a second main differential signal, and the main differential terminal shielding frame 113 can transmit a main shielding signal. It should be noted that the first main differential signal and the second main differential signal are differential signals with different polarities, and the main shielding signal can be a ground signal.
[0114] In the above embodiments, the first main differential terminal 111 includes a first main differential terminal body 1110 and a first main differential terminal mating structure 1111. The second main differential terminal 112 includes a second main differential terminal body 1120 and a second main differential terminal mating structure 1121. The main differential terminal shielding frame 113 includes a main differential terminal shielding frame body segment 1130 and a main differential terminal shielding frame mating segment 1131.
[0115] It should be noted that the main differential terminal shielding frame body segment 1130 extends from the main differential terminal mating side L1111 and the main differential terminal non-matting side L1112 to form a main differential terminal passage space S1131, and the main differential terminal shielding frame mating segment 1131 extends from the main differential terminal non-matting side L1112 and forms a main differential terminal mating channel P1131 on the main differential terminal mating side L1111.
[0116] In response, the first main differential terminal body 1110 and the second main differential terminal body 1120 are respectively inserted into the main differential terminal insertion space S1131, so that the main differential terminal shielding frame body segment 1130 provides shielding for the first main differential terminal body 1110 and the second main differential terminal body 1120 on the main differential terminal mating side L1111 and the main differential terminal non-mating side L1112.
[0117] Additionally, the first primary differential terminal docking structure 1111 and the second primary differential terminal docking structure 1121 are respectively located in the primary differential terminal docking channel P1131, so that the primary differential terminal shielding frame docking section 1131 provides shielding for the first primary differential terminal docking structure 1111 and the second primary differential terminal docking structure 1121 on the non-dating side L1112 of the primary differential terminal, and the first primary differential terminal docking structure 1111 provides docking with the docking connector 2 on the primary differential terminal docking side L1111 to transmit the first primary differential signal, and the second primary differential terminal docking structure 1121 provides docking with the docking connector 2 on the primary differential terminal docking side L1111 to transmit the second primary differential signal.
[0118] Regarding the secondary electrical connector submodule 12, the secondary electrical connector submodule 12 includes a primary differential terminal mating side L1211 and a primary differential terminal non-mating side L1212, and the secondary electrical connector submodule 12 also includes a primary differential terminal 121, a secondary differential terminal 122, and a primary differential terminal shielding frame 123. The primary differential terminal 121 can transmit a primary differential signal, the secondary differential terminal 122 can transmit a secondary differential signal, and the secondary differential terminal shielding frame 123 can transmit a primary shielding signal. It should be noted that the primary differential signal and the secondary differential signal are differential signals with different polarities, and the secondary shielding signal can be a ground signal.
[0119] In the above embodiments, the first differential terminal 121 includes a first differential terminal body 1210 and a first differential terminal mating structure 1211. The second differential terminal 122 includes a second differential terminal body 1220 and a second differential terminal mating structure 1221. The secondary differential terminal shielding frame 123 includes a primary differential terminal shielding frame body segment 1230 and a primary differential terminal shielding frame mating segment 1231.
[0120] It should be noted that the secondary differential terminal shielding frame body segment 1230 extends from the secondary differential terminal mating side L1211 and the secondary differential terminal non-matting side L1212 to form a primary differential terminal passage space S1231, and the secondary differential terminal shielding frame mating segment 1231 extends from the secondary differential terminal non-matting side L1212 and forms a primary differential terminal mating channel P1231 on the secondary differential terminal mating side L1211.
[0121] In this regard, the primary differential terminal body 1210 and the secondary differential terminal body 1220 are respectively installed in the secondary differential terminal installation space S1231, so that the secondary differential terminal shielding frame body segment 1230 provides shielding for the primary differential terminal body 1210 and the secondary differential terminal body 1220 on the secondary differential terminal mating side L1211 and the secondary differential terminal non-mating side L1212.
[0122] Furthermore, the first differential terminal docking structure 1211 and the second differential terminal docking structure 1221 are respectively located in the secondary differential terminal docking channel P1231, so that the secondary differential terminal shielding frame docking section 1231 provides shielding for the first differential terminal docking structure 1211 and the second differential terminal docking structure 1221 on the non-dating side L1212 of the secondary differential terminal, and the first differential terminal docking structure 1211 provides docking with the docking connector 2 on the docking side L1211 of the secondary differential terminal to transmit the first differential signal, and the second differential terminal docking structure 1221 provides docking with the docking connector 2 on the docking side L1211 of the secondary differential terminal to transmit the second differential signal.
[0123] Regarding the shielding frame bridging conductive component 13, the shielding frame bridging conductive component 13 is located between the main electrical connector submodule 11 and the secondary electrical connector submodule 12 to electrically bridge the main differential terminal shielding frame 113 and the secondary differential terminal shielding frame 123, so that the main differential terminal shielding frame 113 and the secondary differential terminal shielding frame 123 are electrically connected to transmit the main shielding signal and the secondary shielding signal.
[0124] At Figure 16In the illustrated embodiment, the electrical connector 1 further includes an insulating shell 10, wherein the main electrical connector submodule 11, the secondary electrical connector submodule 12, and the shielding frame bridging conductive member 13 can be assembled into an electrical connector assembly A, and the insulating shell 10 can engage the electrical connector assembly A to position the main electrical connector submodule 11, the secondary electrical connector submodule 12, and the shielding frame bridging conductive member 13, thereby preventing the main electrical connector submodule 11, the secondary electrical connector submodule 12, and the shielding frame bridging conductive member 13 from separating.
[0125] At Figures 1 to 15 In the illustrated embodiment, the electrical connector 1 can be coupled with a primary differential cable 31 and a secondary differential cable 32 to provide differential signal transmission. The primary differential cable 31 includes a first primary differential wire 311, a second primary differential wire 312, and a primary differential cable shielding conductor 313. The first primary differential wire 311 transmits the first primary differential signal, the second primary differential wire 312 transmits the second primary differential signal, and the primary differential cable shielding conductor 313 transmits the primary shielded signal. The secondary differential cable 32 includes a first primary differential wire 321, a second primary differential wire 322, and a primary differential cable shielding conductor 323. The first primary differential wire 321 transmits the first primary differential signal, the second primary differential wire 322 transmits the second primary differential signal, and the secondary differential cable shielding conductor 323 transmits the secondary shielded signal.
[0126] Accordingly, the main electrical connector submodule 11 further includes a main differential terminal lap side L1121, a main differential terminal non-lap side L1122, and a main shielding bridging conductive member 114; the first main differential terminal 111 further includes a first main differential terminal lap structure 1112, the second main differential terminal 112 further includes a second main differential terminal lap structure 1122, and the main differential terminal shielding frame 113 further includes a main differential terminal shielding frame lap section 1132. The secondary electrical connector submodule 12 further includes a primary differential terminal lap side L1221, a primary differential terminal non-lap side L1222, and a primary shielding bridging conductive member 124; the primary differential terminal 121 further includes a primary differential terminal lap structure 1212, the secondary differential terminal 122 further includes a secondary differential terminal lap structure 1222, and the secondary differential terminal shielding frame 123 further includes a primary differential terminal shielding frame lap section 1232.
[0127] It should be noted that the main shielding bridging conductive member 114 crosses the first main differential wire 311 and the second main differential wire 312 respectively to electrically bridge the main differential cable shielding conductor 313 and the main differential terminal shielding frame 113, so that the main differential cable shielding conductor 313 and the main differential terminal shielding frame 113 are electrically connected to transmit the main shielding signal. The main differential terminal shielding frame overlap section 1132 extends on the non-overlapping side L1122 of the main differential terminal and forms a main differential terminal overlap channel P1132 on the overlapping side L1121 of the main differential terminal. The first main differential terminal overlap structure 1112 and the second main differential terminal overlap structure 1122 are respectively located in the main differential terminal overlap channel P1132, so that the main differential terminal shielding frame overlap section 1132 provides shielding for the first main differential terminal overlap structure 1112 and the second main differential terminal overlap structure 1122 on the non-overlapping side L1122 of the main differential terminal, thereby reducing the degree of interference to the signal transmission of the first main differential terminal overlap structure 1112 and the second main differential terminal overlap structure 1122.
[0128] It should be noted that, in the above embodiments, the first main differential terminal connection structure 1112 connects to the first main differential wire 311 at the main differential terminal connection side L1121, so that the first main differential terminal 111 is electrically connected to the first main differential wire 311, and the second main differential terminal connection structure 1122 connects to the second main differential wire 312 at the main differential terminal connection side L1121, so that the second main differential terminal 112 is electrically connected to the second main differential wire 312. Thus, the first main differential terminal 111 and the second main differential terminal 112 can respectively transmit differential signals with the first main differential wire 311 and the second main differential wire 312.
[0129] Additionally, the secondary shielding bridging conductive member 124 crosses the first differential wire 321 and the second differential wire 322 to electrically bridge the secondary differential cable shielding conductor 323 and the secondary differential terminal shielding frame 123, thereby electrically connecting the secondary differential cable shielding conductor 323 and the secondary differential terminal shielding frame 123 to transmit the secondary shielding signal. The secondary differential terminal shielding frame overlap section 1232 extends on the non-overlapping side L1222 of the secondary differential terminal and forms a primary differential terminal overlap channel P1232 on the overlapping side L1221 of the secondary differential terminal. The first primary differential terminal overlap structure 1212 and the second primary differential terminal overlap structure 1222 are respectively located in the secondary differential terminal overlap channel P1232, so that the secondary differential terminal shielding frame overlap section 1232 provides shielding for the first primary differential terminal overlap structure 1212 and the second primary differential terminal overlap structure 1222 on the non-overlapping side L1222 of the secondary differential terminal, thereby reducing the degree of interference to the signal transmission of the first primary differential terminal overlap structure 1212 and the second primary differential terminal overlap structure 1222.
[0130] It should be noted that, in the above embodiment, the first differential terminal connection structure 1212 connects to the first differential wire 321 on the secondary differential terminal connection side L1221, so that the first differential terminal 121 is electrically connected to the first differential wire 321, and the second differential terminal connection structure 1222 connects to the second differential wire 322 on the secondary differential terminal connection side L1221, so that the second differential terminal 122 is electrically connected to the second differential wire 322. Thus, the first differential terminal 121 and the second differential terminal 122 can respectively transmit differential signals with the first differential wire 321 and the second differential wire 322.
[0131] In the above embodiments, the main differential terminal shielding frame body segment 1130 includes an O-shaped cross-section to provide shielding in four directions, and the main differential terminal shielding frame mating segment 1131 and the main differential terminal shielding frame overlapping segment 1132 include U-shaped cross-sections to provide shielding in three directions. Additionally, the secondary differential terminal shielding frame body segment 1230 includes an O-shaped cross-section to provide shielding in four directions, and the secondary differential terminal shielding frame mating segment 1231 and the secondary differential terminal shielding frame overlapping segment 1232 include U-shaped cross-sections to provide shielding in three directions.
[0132] In addition, in the above embodiments, the shielding frame bridging conductive member 13, the main shielding bridging conductive member 114, or the secondary shielding bridging conductive member 124 are plate-shaped conductive members, which can reduce the size of the electrical connector 1 to meet the needs of electronic devices.
[0133] In the above embodiments, the primary shielding bridging conductive member 114 includes a primary shielding bridging conductive member welding structure 1141, which provides for welding the primary differential cable shielding conductor 313 to electrically connect the primary differential cable shielding conductor 313 to the primary differential terminal shielding frame 113 for transmitting the primary shielding signal; and the secondary shielding bridging conductive member 124 includes a secondary shielding bridging conductive member welding structure 1241, which provides for welding the secondary differential cable shielding conductor 323 to electrically connect the secondary differential cable shielding conductor 323 to the secondary differential terminal shielding frame 123 for transmitting the secondary shielding signal.
[0134] Additionally, the primary electrical connector submodule 11 further includes a primary insulating adhesive 110, and the secondary electrical connector submodule 12 further includes a secondary insulating adhesive 120. The primary insulating adhesive 110 can engage with the secondary insulating adhesive 120 to form a tongue-shaped mating structure 101. In the above embodiment, the primary insulating adhesive 110 can position the first primary differential terminal 111, the second primary differential terminal 112, and the primary differential terminal shielding frame 113, and the secondary insulating adhesive 120 can position the first secondary differential terminal 121, the second secondary differential terminal 122, and the secondary differential terminal shielding frame 123, such that the first primary differential terminal mating structure 1111, the second primary differential terminal mating structure 1121, the first secondary differential terminal mating structure 1211, and the second secondary differential terminal mating structure 1221 are respectively located in the tongue-shaped mating structure 101 to provide mating with the mating connector 2, thereby ensuring that the mating relationship between the electrical connector 1 and the mating connector 2 meets expectations. In this way, high-speed signals can be transmitted without the use of circuit boards, which solves the problems of signal interference and insufficient efficiency caused by electrical connectors when transmitting high-speed signals, thereby optimizing the transmission quality of high-speed signals by electrical connectors and meeting the special needs and development of electronic devices.
[0135] At Figures 17 to 23In the illustrated embodiment, the electrical connector 1 can be coupled with a circuit board 4 to provide differential signal transmission. It should be noted that the circuit board 4 includes a first primary differential circuit 411, a second primary differential circuit 412, a first secondary differential circuit 421, and a second secondary differential circuit 422. The first primary differential circuit 411 can transmit the first primary differential signal, the second primary differential circuit 412 can transmit the second primary differential signal, the first secondary differential circuit 421 can transmit the first secondary differential signal, and the second secondary differential circuit 422 can transmit the second secondary differential signal.
[0136] In this regard, the main electrical connector submodule 11 further includes a main differential terminal lap side L1121 and a main differential terminal non-lap side L1122. The first main differential terminal 111 further includes a first main differential terminal lap structure 1112, and the second main differential terminal 112 further includes a second main differential terminal lap structure 1122. The main differential terminal shielding frame 113 further includes a main differential terminal shielding frame lap section 1132. The secondary electrical connector submodule 12 further includes a primary differential terminal lap side L1221 and a primary differential terminal non-lap side L1222. The primary differential terminal 121 further includes a primary differential terminal lap structure 1212, and the secondary differential terminal 122 further includes a second differential terminal lap structure 1222. The secondary differential terminal shielding frame 123 further includes a primary differential terminal shielding frame lap section 1232.
[0137] It should be noted that the main differential terminal shielding frame overlap section 1132 extends from the non-overlapping side L1122 of the main differential terminal and forms a main differential terminal overlap channel P1132 on the overlapping side L1121 of the main differential terminal. The first main differential terminal overlap structure 1112 and the second main differential terminal overlap structure 1122 are respectively located in the main differential terminal overlap channel P1132, so that the main differential terminal shielding frame overlap section 1132 provides shielding for the first main differential terminal overlap structure 1112 and the second main differential terminal overlap structure 1122 on the non-overlapping side L1122 of the main differential terminal, thereby reducing the degree of interference to the signal transmission of the first main differential terminal overlap structure 1112 and the second main differential terminal overlap structure 1122.
[0138] It should be noted that, in the above embodiments, the first main differential terminal connection structure 1112 connects to the first main differential circuit 411 at the main differential terminal connection side L1121, so that the first main differential terminal 111 is electrically connected to the first main differential circuit 411, and the second main differential terminal connection structure 1122 connects to the second main differential circuit 412 at the main differential terminal connection side L1121, so that the second main differential terminal 112 is electrically connected to the second main differential circuit 412. Thus, the first main differential terminal 111 and the second main differential terminal 112 can respectively transmit differential signals to the first main differential circuit 411 and the second main differential circuit 412.
[0139] Furthermore, the secondary differential terminal shielding frame overlap section 1232 extends on the non-overlapping side L1222 of the secondary differential terminal and forms a primary differential terminal overlap channel P1232 on the overlapping side L1221 of the secondary differential terminal. The first primary differential terminal overlap structure 1212 and the second primary differential terminal overlap structure 1222 are respectively located in the secondary differential terminal overlap channel P1232, so that the secondary differential terminal shielding frame overlap section 1232 provides shielding for the first primary differential terminal overlap structure 1212 and the second primary differential terminal overlap structure 1222 on the non-overlapping side L1222 of the secondary differential terminal, thereby reducing the degree of interference to the signal transmission of the first primary differential terminal overlap structure 1112 and the second primary differential terminal overlap structure 1122.
[0140] It should be noted that, in the above embodiment, the first differential terminal connection structure 1212 connects to the first differential circuit 421 on the secondary differential terminal connection side L1221, so that the first differential terminal 121 is electrically connected to the first differential circuit 421. The second differential terminal connection structure 1222 connects to the second differential circuit 422 on the secondary differential terminal connection side L1221, so that the second differential terminal 122 is electrically connected to the second differential circuit 422. Thus, the first differential terminal 121 and the second differential terminal 122 can respectively transmit differential signals to the first differential circuit 421 and the second differential circuit 422.
[0141] In the above embodiments, the shielding frame bridging conductive member 13 is a strip-shaped conductive member, which can reduce the size of the electrical connector 1 to meet the needs of electronic devices. Additionally, the electrical connector 1 further includes an insulating shell 10, which includes a slot mating structure 102. The insulating shell 10 can position the first primary differential terminal 111, the second primary differential terminal 112, the primary differential terminal shielding frame 113, the first secondary differential terminal 121, the second secondary differential terminal 122, the secondary differential terminal shielding frame 123, and the shielding frame bridging conductive member 13, so that the first primary differential terminal mating structure 1111, the second primary differential terminal mating structure 1121, the first secondary differential terminal mating structure 1211, and the second secondary differential terminal mating structure 1221 are respectively located in the slot mating structure 102 to provide mating with the connector 2, and the shielding frame bridging conductive member 13 electrically bridges the primary differential terminal shielding frame 113 and the secondary differential terminal shielding frame 123.
[0142] It should be noted that, in the embodiments of this application, some of the aforementioned components may be omitted. For example, the electrical connector of this application may optionally include: a main electrical connector submodule, a secondary electrical connector submodule, and a shielding frame bridging conductive component. The main electrical connector submodule includes a main differential terminal mating side and a main differential terminal non-matting side, and further includes a first main differential terminal, a second main differential terminal, and a main differential terminal shielding frame. The first main differential terminal includes a first main differential terminal body and a first main differential terminal mating structure. The second main differential terminal includes a second main differential terminal body and a second main differential terminal mating structure. The main differential terminal shielding frame includes a main differential terminal shielding frame body segment and a main differential terminal shielding frame mating segment. The main differential terminal shielding frame body segment extends from the main differential terminal mating side and the main differential terminal non-matting side to form a main differential terminal passage space, and the main differential terminal shielding frame mating segment extends from the main differential terminal non-matting side and forms a main differential terminal mating passage on the main differential terminal mating side. The first main differential terminal body and the second main differential terminal body are respectively disposed in the main differential terminal passage space, so that the main differential terminal shielding frame body segment provides shielding for the first main differential terminal body and the second main differential terminal body on the main differential terminal mating side and the main differential terminal non-mating side. The first main differential terminal mating structure and the second main differential terminal mating structure are respectively located in the main differential terminal mating channel, so that the main differential terminal shielding frame mating segment provides shielding for the first main differential terminal mating structure and the second main differential terminal mating structure on the main differential terminal non-mating side, and the first main differential terminal mating structure provides mating with the mating connector on the main differential terminal mating side, and the second main differential terminal mating structure provides mating with the mating connector on the main differential terminal mating side.The secondary electrical connector submodule includes a secondary differential terminal mating side and a secondary differential terminal non-mating side. The submodule also includes a primary differential terminal, a secondary differential terminal, and a secondary differential terminal shielding frame. The primary differential terminal includes a primary differential terminal body and a primary differential terminal mating structure. The secondary differential terminal includes a secondary differential terminal body and a secondary differential terminal mating structure. The secondary differential terminal shielding frame includes a secondary differential terminal shielding frame body segment and a secondary differential terminal shielding frame mating segment. The secondary differential terminal shielding frame body segment extends from the secondary differential terminal mating side and the secondary differential terminal non-mating side to form a secondary differential terminal passage space. The secondary differential terminal shielding frame mating segment extends from the secondary differential terminal non-mating side and forms a secondary differential terminal on the secondary differential terminal mating side. The secondary differential terminal body and the secondary differential terminal body are respectively inserted into the secondary differential terminal insertion space in the secondary differential terminal insertion channel, so that the secondary differential terminal shielding frame body segment provides shielding for the primary differential terminal body and the secondary differential terminal body on the secondary differential terminal docking side and the secondary differential terminal non-dating side. The primary differential terminal docking structure and the secondary differential terminal docking structure are respectively located in the secondary differential terminal docking channel, so that the secondary differential terminal shielding frame docking segment provides shielding for the primary differential terminal docking structure and the secondary differential terminal docking structure on the secondary differential terminal non-dating side, and the primary differential terminal docking structure provides a docking connector on the secondary differential terminal docking side, and the secondary differential terminal docking structure provides a docking connector on the secondary differential terminal docking side. The shielding frame bridging conductive component is located between the main electrical connector submodule and the secondary electrical connector submodule to electrically bridge the main differential terminal shielding frame and the secondary differential terminal shielding frame, thereby electrically connecting the main differential terminal shielding frame and the secondary differential terminal shielding frame.
[0143] In summary, this application provides an electrical connector that can transmit high-speed signals through multiple differential terminals without using a circuit board. The differential terminal shielding frame provides shielding for the signal transmission of these differential terminals, thereby solving the problems of signal interference and insufficient efficiency caused by the electrical connector when transmitting high-speed signals. This optimizes the transmission quality of high-speed signals by the electrical connector and meets the special needs and development of electronic devices.
[0144] The above embodiments are merely illustrative of the principles and effects of this application and are not intended to limit this application. Any person skilled in the art can modify or alter the above embodiments without departing from the spirit and scope of this application. Therefore, all equivalent modifications or alterations made by those skilled in the art without departing from the spirit and technical concept disclosed in this application should still be covered by the claims of this application.
Claims
1. An electrical connector, characterized in that, The electrical connector can be used with a mating connector, and the electrical connector includes: A main electrical connector submodule includes a main differential terminal mating side and a main differential terminal non-matting side. The main electrical connector submodule also includes a first main differential terminal, a second main differential terminal, and a main differential terminal shielding frame. The first main differential terminal includes a first main differential terminal body and a first main differential terminal mating structure. The second main differential terminal includes a second main differential terminal body and a second main differential terminal mating structure. The main differential terminal shielding frame includes a main differential terminal shielding frame body segment and a main differential terminal shielding frame mating segment. The main differential terminal shielding frame body segment extends from the main differential terminal mating side and the main differential terminal non-matting side to form a main differential terminal passage space. The main differential terminal shielding frame mating segment extends from the main differential terminal non-matting side and forms a main differential terminal mating side. The main differential terminal body and the second main differential terminal body are respectively disposed in the main differential terminal passage space, so that the main differential terminal shielding frame body segment provides shielding for the first main differential terminal body and the second main differential terminal body on the main differential terminal docking side and the main differential terminal non-dating side. The first main differential terminal docking structure and the second main differential terminal docking structure are respectively located in the main differential terminal docking channel, so that the main differential terminal shielding frame docking segment provides shielding for the first main differential terminal docking structure and the second main differential terminal docking structure on the main differential terminal non-dating side, and the first main differential terminal docking structure provides docking with the docking connector on the main differential terminal docking side, and the second main differential terminal docking structure provides docking with the docking connector on the main differential terminal docking side. A primary electrical connector submodule includes a primary differential terminal mating side and a primary differential terminal non-matting side. The secondary electrical connector submodule also includes a primary differential terminal, a secondary differential terminal, and a primary differential terminal shielding frame. The primary differential terminal includes a primary differential terminal body and a primary differential terminal mating structure. The secondary differential terminal includes a secondary differential terminal body and a secondary differential terminal mating structure. The secondary differential terminal shielding frame includes a primary differential terminal shielding frame body segment and a primary differential terminal shielding frame mating segment. The secondary differential terminal shielding frame body segment extends from the secondary differential terminal mating side and the secondary differential terminal non-matting side to form a primary differential terminal passage space. The secondary differential terminal shielding frame mating segment extends from the secondary differential terminal non-matting side and forms a primary differential terminal mating side. A terminal mating channel is provided, wherein the primary differential terminal body and the secondary differential terminal body are respectively disposed within the secondary differential terminal passage space, so that the secondary differential terminal shielding frame body segment provides shielding for the primary differential terminal body and the secondary differential terminal body on the mating side and the non-mating side of the secondary differential terminal. The primary differential terminal mating structure and the secondary differential terminal mating structure are respectively located within the secondary differential terminal mating channel, so that the secondary differential terminal shielding frame mating segment provides shielding for the primary differential terminal mating structure and the secondary differential terminal mating structure on the non-mating side of the secondary differential terminal. Furthermore, the primary differential terminal mating structure provides mating with the connector on the mating side of the secondary differential terminal, and the secondary differential terminal mating structure provides mating with the connector on the mating side of the secondary differential terminal. A shielding frame bridging conductive component is located between the main electrical connector submodule and the secondary electrical connector submodule to electrically bridge the main differential terminal shielding frame and the secondary differential terminal shielding frame, thereby electrically connecting the main differential terminal shielding frame and the secondary differential terminal shielding frame.
2. The electrical connector according to claim 1, characterized in that, The electrical connector is an MCIO connector.
3. The electrical connector according to claim 1, characterized in that, It also includes an insulating shell, wherein the main electrical connector submodule, the secondary electrical connector submodule and the shielding frame bridging conductive component can be assembled into an electrical connector assembly, and the insulating shell can be engaged with the electrical connector assembly to position the main electrical connector submodule, the secondary electrical connector submodule and the shielding frame bridging conductive component.
4. The electrical connector according to claim 1, characterized in that, It can be equipped with a primary differential cable and a secondary differential cable. The primary differential cable includes a first primary differential wire, a second primary differential wire, and a primary differential cable shielding conductor. The secondary differential cable includes a first secondary differential wire, a second secondary differential wire, and a primary differential cable shielding conductor. The main electrical connector submodule further includes a main differential terminal lap side, a main differential terminal non-lap side, and a main shielding bridging conductive member; wherein, the main shielding bridging conductive member crosses the first main differential wire and the second main differential wire respectively, electrically bridging the shielding conductor of the main differential cable and the shielding frame of the main differential terminal, so that the shielding conductor of the main differential cable and the shielding frame of the main differential terminal are electrically connected; the first main differential terminal further includes a first main differential terminal lap structure, the second main differential terminal further includes a second main differential terminal lap structure, and the shielding frame of the main differential terminal further includes a shielding frame lap section, the shielding frame lap section extending from the non-lap side of the main differential terminal and at the main differential terminal. A main differential terminal overlap channel is formed on the overlap side. The first main differential terminal overlap structure and the second main differential terminal overlap structure are respectively located in the main differential terminal overlap channel, so that the overlap section of the main differential terminal shielding frame provides shielding for the first main differential terminal overlap structure and the second main differential terminal overlap structure on the non-overlap side of the main differential terminal, and the first main differential terminal overlap structure provides overlap for the first main differential wire on the main differential terminal overlap side, so that the first main differential terminal is electrically connected to the first main differential wire; the second main differential terminal overlap structure provides overlap for the second main differential wire on the main differential terminal overlap side, so that the second main differential terminal is electrically connected to the second main differential wire; and The secondary electrical connector submodule further includes a primary differential terminal lap side, a primary differential terminal non-lap side, and a primary shielding bridging conductive member; wherein, the secondary shielding bridging conductive member spans the primary differential wire and the secondary differential wire to electrically bridge the secondary differential cable shield conductor and the secondary differential terminal shield frame, thereby electrically connecting the secondary differential cable shield conductor and the secondary differential terminal shield frame. The primary differential terminal further includes a primary differential terminal lap structure, the secondary differential terminal further includes a secondary differential terminal lap structure, and the secondary differential terminal shield frame further includes a primary differential terminal shield frame lap section, which extends from the secondary differential terminal non-lap side and is located at the secondary differential terminal. A primary differential terminal overlap channel is formed on the overlap side. The first primary differential terminal overlap structure and the second primary differential terminal overlap structure are respectively located in the secondary differential terminal overlap channel, so that the secondary differential terminal shielding frame overlap section provides shielding for the first primary differential terminal overlap structure and the second primary differential terminal overlap structure on the non-overlap side of the secondary differential terminal. The first primary differential terminal overlap structure provides overlap for the first primary differential wire on the secondary differential terminal overlap side, so that the first primary differential terminal is electrically connected to the first primary differential wire. The second primary differential terminal overlap structure also provides overlap for the second primary differential wire on the secondary differential terminal overlap side, so that the second primary differential terminal is electrically connected to the second primary differential wire.
5. The electrical connector according to claim 4, characterized in that, The main differential terminal shielding frame body segment includes an O-shaped cross section, and the main differential terminal shielding frame mating segment and the main differential terminal shielding frame overlapping segment include a U-shaped cross section; and the secondary differential terminal shielding frame body segment includes an O-shaped cross section, and the secondary differential terminal shielding frame mating segment and the secondary differential terminal shielding frame overlapping segment include a U-shaped cross section.
6. The electrical connector according to claim 4, characterized in that, The shielding frame bridging conductive component is a plate-shaped conductive component.
7. The electrical connector according to claim 4, characterized in that, The primary shielding bridging conductive component and the secondary shielding bridging conductive component are plate-shaped conductive components.
8. The electrical connector according to claim 4, characterized in that, The primary shielding bridging conductive member includes a primary shielding bridging conductive member welding structure, which provides for welding the primary differential cable shielding conductor to electrically connect the primary differential cable shielding conductor to the primary differential terminal shielding frame; and the secondary shielding bridging conductive member includes a secondary shielding bridging conductive member welding structure, which provides for welding the secondary differential cable shielding conductor to electrically connect the secondary differential cable shielding conductor to the secondary differential terminal shielding frame.
9. The electrical connector according to claim 4, characterized in that, The primary electrical connector submodule further includes a primary insulating adhesive; and the secondary electrical connector submodule further includes a secondary insulating adhesive; wherein the primary insulating adhesive can engage with the secondary insulating adhesive to form a tongue-shaped mating structure, the primary insulating adhesive can position the first primary differential terminal and the second primary differential terminal, and the secondary insulating adhesive can position the first secondary differential terminal and the second secondary differential terminal, such that the first primary differential terminal mating structure, the second primary differential terminal mating structure, the first secondary differential terminal mating structure, and the second secondary differential terminal mating structure are respectively located in the tongue-shaped mating structure to provide mating with the mating connector.
10. The electrical connector according to claim 1, characterized in that, A circuit board can be used, the circuit board including a first main differential circuit, a second main differential circuit, a first secondary differential circuit, and a second secondary differential circuit, wherein, The main electrical connector submodule further includes a main differential terminal lap side and a main differential terminal non-lap side. The first main differential terminal further includes a first main differential terminal lap structure, and the second main differential terminal further includes a second main differential terminal lap structure. The main differential terminal shielding frame further includes a main differential terminal shielding frame lap section. The main differential terminal shielding frame lap section extends from the non-lap side of the main differential terminal and forms a main differential terminal lap channel on the lap side of the main differential terminal. The first main differential terminal lap structure and the second main differential terminal lap structure are respectively located on the main differential terminal. In the sub-overlap channel, the overlapping section of the main differential terminal shielding frame provides shielding for the first main differential terminal overlap structure and the second main differential terminal overlap structure on the non-overlap side of the main differential terminal, and the first main differential terminal overlap structure provides an overlap for the first main differential circuit on the main differential terminal overlap side, so that the first main differential terminal is electrically connected to the first main differential circuit; the second main differential terminal overlap structure also provides an overlap for the second main differential circuit on the main differential terminal overlap side, so that the second main differential terminal is electrically connected to the second main differential circuit; and The secondary electrical connector submodule also includes a primary differential terminal lap side and a primary differential terminal non-lap side. The primary differential terminal also includes a primary differential terminal lap structure, and the secondary differential terminal also includes a secondary differential terminal lap structure. The secondary differential terminal shielding frame also includes a primary differential terminal shielding frame lap section. The secondary differential terminal shielding frame lap section extends from the non-lap side of the secondary differential terminal and forms a primary differential terminal lap channel on the lap side of the secondary differential terminal. The primary differential terminal lap structure and the secondary differential terminal lap structure are respectively located on the secondary differential terminal... In the terminal overlap channel, the overlap section of the secondary differential terminal shielding frame provides shielding for the primary differential terminal overlap structure and the secondary differential terminal overlap structure on the non-overlap side of the secondary differential terminal, respectively. The primary differential terminal overlap structure provides overlap for the primary differential circuit on the secondary differential terminal overlap side, so that the primary differential terminal is electrically connected to the primary differential circuit. The secondary differential terminal overlap structure also provides overlap for the secondary differential circuit on the secondary differential terminal overlap side, so that the secondary differential terminal is electrically connected to the secondary differential circuit.
11. The electrical connector according to claim 10, characterized in that, The shielding frame bridging conductive component is a strip-shaped conductive component.
12. The electrical connector according to claim 10, characterized in that, The electrical connector further includes an insulating shell with a slot mating structure. The insulating shell can position the first primary differential terminal, the second primary differential terminal, the primary differential terminal shielding frame, the first secondary differential terminal, the second secondary differential terminal, the secondary differential terminal shielding frame, and the shielding frame bridging conductive member, so that the first primary differential terminal mating structure, the second primary differential terminal mating structure, the first secondary differential terminal mating structure, and the second secondary differential terminal mating structure are respectively located in the slot mating structure to provide mating with the connector, and the shielding frame bridging conductive member electrically bridges the primary differential terminal shielding frame and the secondary differential terminal shielding frame.