Patent classifications
H01R13/6476
CONNECTOR WITH CLAMP
In a plug connector, a ground contact conductor includes: a fitting portion to fit to a ground contact conductor of a mate connector; and a clamp portion to hold a second exposing portion of a coaxial cable (a portion of a terminal portion of the coaxial cable where a part of an insulating sheath has been removed) to contact a shield exposed at the second exposing portion, without the ground contact conductor overlapping an outer peripheral surface of the insulating sheath. The clamp portion is located at an end of the ground contact conductor farthest from the fitting portion. The second exposing portion is adjacent to a first exposing portion formed at the terminal portion where a signal line is exposed.
CONNECTOR WITH CLAMP
In a plug connector, a ground contact conductor includes: a fitting portion to fit to a ground contact conductor of a mate connector; and a clamp portion to hold a second exposing portion of a coaxial cable (a portion of a terminal portion of the coaxial cable where a part of an insulating sheath has been removed) to contact a shield exposed at the second exposing portion, without the ground contact conductor overlapping an outer peripheral surface of the insulating sheath. The clamp portion is located at an end of the ground contact conductor farthest from the fitting portion. The second exposing portion is adjacent to a first exposing portion formed at the terminal portion where a signal line is exposed.
Terminal Structure of High-Frequency Signal Connector and Manufacturing Method Thereof
The invention refers to a terminal structure of a high-frequency signal connector and the manufacturing method thereof, in which multiple first terminals and multiple second terminals, multiple excavation areas and multiple trimming lines are trimmed from a tape, each of the first terminals is located on one side of each of the second terminals, each of the excavation areas and each of the trimming lines are located between each of the first terminals and each of the second terminals, respectively, followed by stamping each of the first terminals and each of the second terminals to form a first terminal set and a second terminal set. Thereby, each of the first terminals and each of the second terminals may be stamped and formed simultaneously on a single tape, and in turn, the period for fabricating dies and development of dies may be reduced, and less material waste is available for metal tapes after blanking of each of the first terminals and each of the second terminals, in order to achieve the effects of decreasing processes and reducing a manufacturing cost of the connector effectively.
CONNECTOR
A connector includes multiple ground terminals, multiple signal terminals, a cable and a ground assembly. The cable includes multiple ground wires and multiple signal wires. The ground assembly includes a plate and multiple protrusion structures. Each protrusion structure is arranged spacedly and extended from the plate. A top of each protrusion structure is higher than a surface of the plate. Each ground wire is electrically connected with each ground terminal and each protrusion structure. Each signal wire is electrically connected with each signal terminal. Each signal wire is formed between any two of the protrusion structures adjacent to each other. Therefore, high-speed transmission of digital signals may be undistortedly implemented.
ELECTRICAL CONNECTOR AND CIRCUIT BOARD USED IN THE CONNECTOR
An electrical connector includes a terminal module having a circuit board having first through eighth conductive traces sequentially arranged in a transverse direction and corresponding first through eighth terminals, the third terminal and the sixth terminal being configured for transmitting a pair of differential signals, the fourth terminal and the fifth terminal being configured for transmitting another pair of differential signals, the first through eighth conductive traces being respectively electrically connected to corresponding first through eighth terminals, each of the third conductive trace and the fifth conductive trace including a coupling portion, a size of the coupling portion in the transverse direction is larger than a size of the other part of the corresponding conductive trace in the transverse direction, wherein the coupling portion of the third conductive trace and the coupling portion of the fifth conductive trace overlap in an up and down direction to increase mutual coupling.
ELECTRICAL CONNECTOR AND CIRCUIT BOARD USED IN THE CONNECTOR
An electrical connector includes a terminal module having a circuit board having first through eighth conductive traces sequentially arranged in a transverse direction and corresponding first through eighth terminals, the third terminal and the sixth terminal being configured for transmitting a pair of differential signals, the fourth terminal and the fifth terminal being configured for transmitting another pair of differential signals, the first through eighth conductive traces being respectively electrically connected to corresponding first through eighth terminals, each of the third conductive trace and the fifth conductive trace including a coupling portion, a size of the coupling portion in the transverse direction is larger than a size of the other part of the corresponding conductive trace in the transverse direction, wherein the coupling portion of the third conductive trace and the coupling portion of the fifth conductive trace overlap in an up and down direction to increase mutual coupling.
CONNECTOR
Provided is a technical system by which the impedance mismatch of the plug unit of a connector can be suppressed. A plug unit of a connector includes: a plurality of contacts; and a housing having a base portion provided with a plurality of through holes into which the plurality of contacts are inserted, and a header that protrudes from the base portion and is provided with a plurality of slits holding portions of the plurality of contacts exposed toward the header side from the through holes. A portion of the contact inserted into the through hole and a portion of the contact held by the slit are formed in a linear shape.
Passive two-piece inner conductor for compression connector
A compression connector comprises a connector body comprising an inner surface and a threaded clamp at least partially positioned within the connector body and configured to slide relative to the connector body. A contact cone is positioned within the connector body and comprises an outer surface configured to engage with the inner surface of the connector body. An insulator is positioned proximate the contact cone and defines an aperture. An inner conductor comprises a contact component comprising an inner conductor basket and a cylindrical portion extending from the conductor basket, and an interface component defining an opening configured to engage with the cylindrical portion of the contact component. The contact component, the interface component, and the insulator are held together such that they form a rigid three-piece assembly when the threaded clamp couples an end of a cable.
Passive two-piece inner conductor for compression connector
A compression connector comprises a connector body comprising an inner surface and a threaded clamp at least partially positioned within the connector body and configured to slide relative to the connector body. A contact cone is positioned within the connector body and comprises an outer surface configured to engage with the inner surface of the connector body. An insulator is positioned proximate the contact cone and defines an aperture. An inner conductor comprises a contact component comprising an inner conductor basket and a cylindrical portion extending from the conductor basket, and an interface component defining an opening configured to engage with the cylindrical portion of the contact component. The contact component, the interface component, and the insulator are held together such that they form a rigid three-piece assembly when the threaded clamp couples an end of a cable.
Electrical connector and circuit board used in the connector
An electrical connector includes a terminal module having a circuit board having first through eighth conductive traces sequentially arranged in a transverse direction and corresponding first through eighth terminals, the third terminal and the sixth terminal being configured for transmitting a pair of differential signals, the fourth terminal and the fifth terminal being configured for transmitting another pair of differential signals, the first through eighth conductive traces being respectively electrically connected to corresponding first through eighth terminals, each of the third conductive trace and the fifth conductive trace including a coupling portion, a size of the coupling portion in the transverse direction is larger than a size of the other part of the corresponding conductive trace in the transverse direction, wherein the coupling portion of the third conductive trace and the coupling portion of the fifth conductive trace overlap in an up and down direction to increase mutual coupling.