Abstract: This invention is directed generally to an electrical connector system and particularly to a connector system for interfacing with a circuit card. The card edge connector system includes a socket body that is formed to have a socket therein for receiving a printed circuit card, wherein the socket is configured to interface with a signal processing device or other device including another card or signal component as is known in the art to provide a suitable interface between the printed circuit card and another signal processing device.

Abstract: A high speed electrical connector assembly includes a mating female connector with sockets and male connector with pins. The female connector includes a connector body formed to define a mount face surface and contact face surface and one or more apertures extending therebetween. One or more sockets are positioned in the connector body apertures. The socket includes a mount portion and a pin receiving portion and the mount portion is configured for engaging an internal surface of the aperture proximate the mount face surface for securing the socket in the aperture. The pin receiving portion is maintained in a free-floating position away from the internal surface of the aperture with a tip end of the pin receiving portion being positioned below the contact face surface. An air gap is formed in the aperture around the free-floating portion and tip end.

Abstract: A high speed electrical connector assembly includes a mating female connector with sockets and male connector with pins. The female connector includes a connector body formed to define a mount face surface and contact face surface and one or more apertures extending therebetween. One or more sockets are positioned in the connector body apertures. The socket includes a mount portion and a pin receiving portion and the mount portion is configured for engaging an internal surface of the aperture proximate the mount face surface for securing the socket in the aperture. The pin receiving portion is maintained in a free-floating position away from the internal surface of the aperture with a tip end of the pin receiving portion being positioned below the contact face surface. An air gap is formed in the aperture around the free-floating portion and tip end.

Abstract: A connector lead has a lead terminal that includes a recessed solder wicking restriction area for ensuring that enough solder remains on or near the lead terminal. The lead terminal has a neck portion and a base portion extending from the neck portion. The neck portion has a width that is narrower than the width of the lead. The narrower neck portion defines a recessed solder wicking restriction area that encourages more solder to accumulate on or near the base portion instead of wicking up the lead. The width of the neck portion may also be narrower than the width of the base portion, causing the lead terminal to resemble an inverted “T” when viewed from the front. A band of solder resistive material may be applied circumferentially or laterally around the connector lead above the lead terminal to limit wicking in some embodiments.

Abstract: A coaxial connector includes a body element that has an inner bore configured for receiving a cable having inner and outer conductors. A center conductor element is configured for engaging an inner conductor of the cable. A tubular ground slide extends over the center conductor element and has a front end and rear end with the rear end of the slide engaging the body element for being axially movable on the f the body element. A spring is configured to engage an outer surface of the body element and abut the rear end of the ground slide for biasing the ground slide with respect to the body element. A conductive sleeve has a rear end configured for press fitting onto the body. The sleeve is further configured for capturing the spring and ground slide with the body element and has a plurality of spring fingers at a front end thereof that contact the front end of the movable ground slide for providing electrical connection with the body element.

Abstract: A connector lead has a lead terminal that includes a recessed solder wicking restriction area for ensuring that enough solder remains on or near the lead terminal. The lead terminal has a neck portion and a base portion extending from the neck portion. The neck portion has a width that is narrower than the width of the lead. The narrower neck portion defines a recessed solder wicking restriction area that encourages more solder to accumulate on or near the base portion instead of wicking up the lead. The width of the neck portion may also be narrower than the width of the base portion, causing the lead terminal to resemble an inverted “T” when viewed from the front. A band of solder resistive material may be applied circumferentially or laterally around the connector lead above the lead terminal to limit wicking in some embodiments.

Abstract: A low-profile, right angle connector assembly comprises six cable connectors and six board-mount connectors housed within a PCIe bracket and EMI shell. The PCIe bracket and EMI shell are braced to a low profile PCIe card. Each board-mount connector is designed to receive a cable connector and allows for the transmission and processing of high-speed data with lower latency. A removable latch mounted on the cable connectors helps ensure the cable connectors remain physically connected to the board-mount connectors. The removable latch may be replaced as needed for breakage and wear and tear.

Abstract: A low-profile, right angle connector assembly comprises six cable connectors and six board-mount connectors housed within a PCIe bracket and EMI shell. The PCIe bracket and EMI shell are braced to a low profile PCIe card. Each board-mount connector is designed to receive a cable connector and allows for the transmission and processing of high-speed data with lower latency. A removable latch mounted on the cable connectors helps ensure the cable connectors remain physically connected to the board-mount connectors. The removable latch may be replaced as needed for breakage and wear and tear.

Abstract: An attachable and removable protective rugged hood assembly for an electrical connector, including board-mounted electrical connectors. The rugged hood assembly comprises a male connector hood portion and a female connector hood portion. The rugged hood assembly allows standard electrical connectors to be used in harsh conditions, such as in military equipment, and also provides electromagnetic interference (“EMI”) shielding.

Abstract: A low-profile, right angle connector assembly comprises six cable connectors and six board-mount connectors housed within a PCIe bracket and EMI shell. The PCIe bracket and EMI shell are braced to a low profile PCIe card. Each board-mount connector is designed to receive a cable connector and allows for the transmission and processing of high-speed data with lower latency. A removable latch mounted on the cable connectors helps ensure the cable connectors remain physically connected to the board-mount connectors. The removable latch may be replaced as needed for breakage and wear and tear.

Abstract: A right angle transition adapter allows vertical connector components to be used in a right angle connector. The right angle transition adapter comprises a vertical connector housing, a wafer, overmolded lead frames, and a right angle transition housing. The overmolded lead frames can be mounted to a board while the vertical connector housing can connect with mating connectors as if it were a vertical connector.

Abstract: A low-profile, right angle connector assembly comprises six cable connectors and six board-mount connectors housed within a PCIe bracket and EMI shell. The PCIe bracket and EMI shell are braced to a low profile PCIe card. Each board-mount connector is designed to receive a cable connector and allows for the transmission and processing of high-speed data with lower latency. A removable latch mounted on the cable connectors helps ensure the cable connectors remain physically connected to the board-mount connectors. The removable latch may be replaced as needed for breakage and wear and tear.

Abstract: A field-replaceable printed circuit board (“PCB”) cable assembly comprises at least one field-replaceable PCB, at least one cable, a connector with a plurality of beams, and top and bottom hood portions. A first end of the at least one field-replaceable PCB is attached to the at least one cable, and a second end of the at least one field-replaceable PCB is attached to the plurality of beams. The at least one field-replaceable PCB can be replaced by disassembling the hood portions, detaching the at least one field-replaceable PCB from the plurality of beams, and attaching at least one new field-replaceable PCB.

Abstract: A low-profile, right angle connector assembly comprises six cable connectors and six board-mount connectors housed within a PCIe bracket and EMI shell. The PCIe bracket and EMI shell are braced to a low profile PCIe card. Each board-mount connector is designed to receive a cable connector and allows for the transmission and processing of high-speed data with lower latency. A removable latch mounted on the cable connectors helps ensure the cable connectors remain physically connected to the board-mount connectors. The removable latch may be replaced as needed for breakage and wear and tear.

Abstract: An attachable and removable protective rugged hood assembly for an electrical connector, including board-mounted electrical connectors. The rugged hood assembly comprises a male connector hood portion and a female connector hood portion. The rugged hood assembly allows standard electrical connectors to be used in harsh conditions, such as in military equipment, and also provides electromagnetic interference (“EMI”) shielding.

Abstract: A field-replaceable printed circuit board (“PCB”) cable assembly comprises at least one field-replaceable PCB, at least one cable, a connector with a plurality of beams, and top and bottom hood portions. A first end of the at least one field-replaceable PCB is attached to the at least one cable, and a second end of the at least one field-replaceable PCB is attached to the plurality of beams. The at least one field-replaceable PCB can be replaced by disassembling the hood portions, detaching the at least one field-replaceable PCB from the plurality of beams, and attaching at least one new field-replaceable PCB.