Abstract: An electrical connector provides shielded signal pathways. The electrical connector includes a shield plate, a first finger that extends from an edge of the shield plate, and a second finger that extends from the edged of the shield and that is adjacent to the first finger. A channel is formed between the first finger and the second finger. A coupling is placed within the channel adjacent the first finger. The coupling includes a contact, a first connecting arm extending from a first end of the contact to a first portion of the first finger, and a second connecting arm extending from a second end of the contact to a second portion of the first finger. The first connecting arm and the second connecting arm provide at least two current paths from the contact to the first finger.

Abstract: A connector for connecting a first printed circuit board with a second printed circuit board that comprises a first column of differential signal pair launches offset from a second column of differential signal pair launches on the first printed circuit board so that each differential signal pair in the first column is closest to a launch of a first polarity in a corresponding differential signal pair in the second column on the first circuit board, a first column of differential signal pair launches offset from a second column of differential signal pair launches on the second printed circuit board so that each differential signal pair in the first column is closest to a launch of a second polarity, opposite the first polarity, in a corresponding signal pair in the second column on the second circuit board, and a connector electrically connecting the first column of differential signal pair launches on the first printed circuit board to the first column of differential signal pair launches on the second prin

Abstract: A connector for connecting a first printed circuit board with a second printed circuit board that comprises a first column of differential signal pair launches offset from a second column of differential signal pair launches on the first printed circuit board so that each differential signal pair in the first column is closest to a launch of a first polarity in a corresponding differential signal pair in the second column on the first circuit board, a first column of differential signal pair launches offset from a second column of differential signal pair launches on the second printed circuit board so that each differential signal pair in the first column is closest to a launch of a second polarity, opposite the first polarity, in a corresponding signal pair in the second column on the second circuit board, and a connector electrically connecting the first column of differential signal pair launches on the first printed circuit board to the first column of differential signal pair launches on the second prin

Abstract: A connection system has two connectors connected to each other by a plurality of differential signal pairs. The differential signal pairs alternate between a “straight connection” and a “reverse connection” between the connectors. The “straight connection” is formed by having a first signal trace connected from a positive launch in the first connector to a positive launch in the second connector, or P-P. And, the second signal trace has an N-N connection. The “reverse connection” has a first signal trace connected from a positive launch in the first connector to a negative launch in the second connector, or P-N. And, the second signal trace has a N-P connection. By inverting the pin connections of every other differential signal pair on the backplane, the forward crosstalk from the first connector is cancelled by the crosstalk generated by the second connector.

Abstract: A connection system has two connectors connected to each other by a plurality of differential signal pairs. The differential signal pairs alternate between a “straight connection” and a “reverse connection” between the connectors. The “straight connection” is formed by having a first signal trace connected from a positive launch in the first connector to a positive launch in the second connector, or P-P. And, the second signal trace has an N-N connection. The “reverse connection” has a first signal trace connected from a positive launch in the first connector to a negative launch in the second connector, or P-N. And, the second signal trace has a N-P connection. By inverting the pin connections of every other differential signal pair on the backplane, the forward crosstalk from the first connector is cancelled by the crosstalk generated by the second connector.

Abstract: A connection system has two connectors connected to each other by a plurality of differential signal pairs. The differential signal pairs alternate between a “straight connection” and a “reverse connection” between the connectors. The “straight connection” is formed by having a first signal trace connected from a positive launch in the first connector to a positive launch in the second connector, or P-P. And, the second signal trace has an N-N connection. The “reverse connection” has a first signal trace connected from a positive launch in the first connector to a negative launch in the second connector, or P-N. And, the second signal trace has a N-P connection. By inverting the pin connections of every other differential signal pair on the backplane, the forward crosstalk from the first connector is cancelled by the crosstalk generated by the second connector.

Abstract: A connection system has two connectors connected to each other by a plurality of differential signal pairs. The differential signal pairs alternate between a “straight connection” and a “reverse connection” between the connectors. The “straight connection” is formed by having a first signal trace connected from a positive launch in the first connector to a positive launch in the second connector, or P-P. And, the second signal trace has an N-N connection. The “reverse connection” has a first signal trace connected from a positive launch in the first connector to a negative launch in the second connector, or P-N. And, the second signal trace has a N-P connection. By inverting the pin connections of every other differential signal pair on the backplane, the forward crosstalk from the first connector is cancelled by the crosstalk generated by the second connector.