Patent classifications
H01R13/6467
System for reducing crosstalk and return loss within electrical communication connectors
A system that reduces crosstalk and return loss within electrical communication connectors includes at least two compensating capacitors connected in series that compensate each offending capacitor. An additional inductive component that is connected between two compensating capacitors so that the adjustable inductance of the inductive component can be varied to modify the capacitive coupling effect achieved by the compensating capacitors as a function of frequency. A shape-neutral structure containing two compensating capacitors and one series inductive component in between is positioned so that each compensating capacitor is juxtaposed parallel to the offending capacitor. There is no direct contact between the shape-neutral structure and the transmission lines, and the shape-neutral structure does not change the shape of PCB traces and reduces both crosstalk and return loss.
Contact and Shield Configuration for Ground Current Optimization
An electrical connector and a ground system which includes ground contacts and ground shields positioned proximate the ground contacts. The ground contacts have receiving sections, securing sections and mounting sections. The receiving sections have first engagement portions and second engagement portions. The ground shields have a nonplanar configuration, with portions of the ground shields passing between signal contacts. Surfaces of the securing sections of the ground contacts are positioned in mechanical and electrical engagement with surfaces of the ground shields, providing first ground contact areas across which ground currents may flow. The first engagement portions of the ground contacts are provided in electrical and mechanical engagement with the surfaces of the ground shields, providing second ground contact areas across which the ground currents may flow. The second ground contact areas are spaced from the first ground contact areas to allow the ground currents to properly flow through the entire ground shields.
Contact and Shield Configuration for Ground Current Optimization
An electrical connector and a ground system which includes ground contacts and ground shields positioned proximate the ground contacts. The ground contacts have receiving sections, securing sections and mounting sections. The receiving sections have first engagement portions and second engagement portions. The ground shields have a nonplanar configuration, with portions of the ground shields passing between signal contacts. Surfaces of the securing sections of the ground contacts are positioned in mechanical and electrical engagement with surfaces of the ground shields, providing first ground contact areas across which ground currents may flow. The first engagement portions of the ground contacts are provided in electrical and mechanical engagement with the surfaces of the ground shields, providing second ground contact areas across which the ground currents may flow. The second ground contact areas are spaced from the first ground contact areas to allow the ground currents to properly flow through the entire ground shields.
Balanced pin and socket connectors
Communications connectors include a housing and a plurality of substantially rigid conductive pins that are mounted in the housing. The conductive pins are arranged as a plurality of differential pairs of conductive pins that each include a tip conductive pin and a ring conductive pin. Each conductive pin has a first end that is configured to be received within a respective socket of a mating connector and a second end. The tip conductive pin of each differential pair of conductive pins crosses over its associated ring conductive pin to form a plurality of tip-ring crossover locations.
Balanced pin and socket connectors
Communications connectors include a housing and a plurality of substantially rigid conductive pins that are mounted in the housing. The conductive pins are arranged as a plurality of differential pairs of conductive pins that each include a tip conductive pin and a ring conductive pin. Each conductive pin has a first end that is configured to be received within a respective socket of a mating connector and a second end. The tip conductive pin of each differential pair of conductive pins crosses over its associated ring conductive pin to form a plurality of tip-ring crossover locations.
WAFER GROUP AND SIGNAL TERMINAL ASSEMBLY
A wafer group and a signal terminal assembly are disclosed in this invention. The wafer group includes a first wafer and a second wafer, which are arranged side by side. The first wafer is a signal wafer and includes a first frame and multiple first signal terminals supported by the first frame. The second wafer is a signal wafer and includes a second frame and multiple second signal terminals supported by the second frame. A first middle portion of each first signal terminal and a second middle portion of the corresponding second signal terminal are configured to be coupled together in an edge-coupled manner, thereby reducing the loss of signal transmission and improving the quality of differential signal transmission.
HIGH DENSITY CONNECTOR AND WAFER GROUP
A high density connector and a wafer group are disclosed in this invention. The high density connector includes an insulating housing, which forms a guide bracket to provide a guiding and locking function for a plug connector. The wafer group includes two signal wafers and a grounding wafer, which are adjacent to be arranged. The two adjacent signal wafers make up a group. Signal terminals of the two adjacent signal wafers can form multiple differential pairs in an edge-coupled manner, thereby reducing the loss of signal transmission and improving the quality of differential signal transmission.
DIFFERENTIAL CONNECTOR AND DIFFERENTIAL PAIR ARRANGEMENT STRUCTURE THEREOF AND DIFFERENTIAL CONNECTOR PLUG
A differential connector and a differential pair arrangement structure thereof and a differential connector plug, and relates to the field of electric connectors. The differential connector plug includes: two or more signal modules stacked up in a layered manner, wherein the signal modules are combined two by two to form signal module pairs, two signal modules of the same signal module pair respectively form a first signal module and a second signal module, at least one differential pair of the first signal module and at least one differential pair of the second signal module are respectively a first differential pair and a second differential pair, differential pair contact elements of the first differential pair and the second differential pair are respectively a first differential pair contact element and a second differential pair contact element, and projections, in the layered direction of the first signal module and the second signal module, of at least one of two first differential pair contact elements of at least one first differential pair and at least one of two second differential pair contact elements of at least one second differential pair have a point of intersection. The differential connector plug does not need to be additionally provided with a shielding plate, is simple in structure, and solves the problems of low assembly efficiency and high processing cost caused by complicated structure of existing differential connectors.
High data rate connectors and cable assemblies that are suitable for harsh environments and related methods and systems
An inline communications connector is provided that includes a housing and tip and ring contacts that are mounted in the housing. The tip contact includes an input tip socket, an output tip socket and a tip socket connection section that physically and electrically connects the input and output tip sockets. The ring contact includes an input ring socket, an output ring socket and a ring socket connection section that physically and electrically connects the input and output ring sockets. The input tip socket is not collinear with the output tip socket and the input ring socket is not collinear with the output ring socket.
High data rate connectors and cable assemblies that are suitable for harsh environments and related methods and systems
An inline communications connector is provided that includes a housing and tip and ring contacts that are mounted in the housing. The tip contact includes an input tip socket, an output tip socket and a tip socket connection section that physically and electrically connects the input and output tip sockets. The ring contact includes an input ring socket, an output ring socket and a ring socket connection section that physically and electrically connects the input and output ring sockets. The input tip socket is not collinear with the output tip socket and the input ring socket is not collinear with the output ring socket.