Abstract: An intercoupling component includes first male contacts, each first male contact received within a corresponding aperture of a first array of apertures and extending beyond a second surface of a first insulative support member toward a second insulative support member, each first male contact having a first axis; second contacts, each second contact received within a corresponding aperture of a second array of apertures, each second contact having a second axis; and an alignment member configured to establish a specified position of the first insulative support member relative to the second insulative support member. The first axis of each male contact is offset from the second axis of a corresponding second contact when the first insulative support member is in the specified position relative to the second insulative support member.

Abstract: A terminal includes a resilient member extending from a first end to a second end, the first end including a contact portion configured to engage a male contact and the second end including a retention feature configured to hold the male contact in place against a first force applied to the male contact by the first end. A plurality of such terminals can be included within an assembly that includes: a first insulative support member defining a first plurality of apertures extending from first surface of the first insulative support member to an opposite second surface of the first insulative support member; with the plurality of terminals received in the apertures.

Abstract: An intercoupling component includes first male contacts, each first male contact received within a corresponding aperture of a first array of apertures and extending beyond a second surface of a first insulative support member toward a second insulative support member, each first male contact having a first axis; second contacts, each second contact received within a corresponding aperture of a second array of apertures, each second contact having a second axis; and an alignment member configured to establish a specified position of the first insulative support member relative to the second insulative support member. The first axis of each male contact is offset from the second axis of a corresponding second contact when the first insulative support member is in the specified position relative to the second insulative support member.

Abstract: A male contact having a longitudinal axis includes a head configured to contact a corresponding electrical contact and a first portion extending along the longitudinal axis and configured to be received within a socket of a corresponding terminal assembly. The first portion comprises resilient members extending axially from the head, the resilient members defining an interior cavity within the male contact, at least one of the resilient members having an arcuate inner surface in parallel with the longitudinal axis of the corresponding male contact.

Abstract: A hermaphroditic terminal assembly for connecting electrical devices includes an insulating support member for supporting female sockets and male pins, a number of female sockets, and a number of male pins. An intercoupling component for connecting electrical devices includes two hermaphroditic terminal assemblies configured such that the first hermaphroditic terminal assembly can be mated with the second hermaphroditic terminal assembly.

Abstract: A hermaphroditic terminal assembly for connecting electrical devices includes an insulating support member for supporting female sockets and male pins, a number of female sockets, and a number of male pins. An intercoupling component for connecting electrical devices includes two hermaphroditic terminal assemblies configured such that the first hermaphroditic terminal assembly can be mated with the second hermaphroditic terminal assembly.

Abstract: A compression device has a frame sized to accept an integrated circuit package and a pressor. The frame includes a surface defining an opening with an axis and at least one ramp extending from the surface. The ramp or ramps have upper and lower flat portions, substantially parallel with a plane perpendicular to the axis, and a sloped portion at an angle relative to the plane, the sloped portion connecting the upper and lower flat portions. The pressor is configured to engage the ramp and rotate in response to applied force. When the pressor is engaged with the sloped portion(s) of the ramp(s), this rotation causes movement of the pressor along the axis. However, when engagement between the ramps and the pressor is in the flat portions of the ramp, continued movement of the pressor along the axis is limited in spite of any continued rotation.

Abstract: A hermaphroditic terminal assembly for connecting electrical devices includes an insulating support member for supporting female sockets and male pins, a number of female sockets, and a number of male pins. An intercoupling component for connecting electrical devices includes two hermaphroditic terminal assemblies configured such that the first hermaphroditic terminal assembly can be mated with the second hermaphroditic terminal assembly.

Abstract: A socket terminal assembly is configured to electrically connect a contacting area of an integrated circuit with a corresponding connection region of a substrate, the socket terminal assembly comprising a socket shell including a first end configured to contact the corresponding connection region of the substrate and a second end defining a first open cavity; a pin including an end defining a second open cavity; and a coiled spring interposed between the socket shell and the pin, the spring including a first end section received within the first open cavity and a second end section received within the second open cavity.

Abstract: A hermaphroditic terminal assembly for connecting electrical devices includes an insulating support member for supporting female sockets and male pins, a number of female sockets, and a number of male pins. An intercoupling component for connecting electrical devices includes two hermaphroditic terminal assemblies configured such that the first hermaphroditic terminal assembly can be mated with the second hermaphroditic terminal assembly.

Abstract: A socket terminal assembly includes a socket body having a first end with a first opening to receive a contact element and a second opening at a second end to receive a pin. A contact element, located in the first opening, is configured to contact the corresponding connection region of a printed circuit board; a pin has an end adapted to contact an electrical contacting area of an integrated circuit package and an opposite end configured to be inserted within the opening of the socket body. A contact spring in the second opening receives the pin and applies a frictional force sufficient to retain the lower end of the pin within the opening of the socket body. A resilient member is disposed within the opening between the contact element and the contact spring. The resilient member applies to the pin and contact element, in response to a downward force applied to the pin or an upward force applied to the contact element, a force sufficient to overcome the frictional force of the contact spring.

Abstract: An intercoupling component is of the type used to couple an array of electrical connection regions disposed on a first substrate to an array of electrical connection regions disposed on a second substrate. The intercoupling component comprises: an insulative support member; a plurality of electrically conductive terminal elements; a second insulative support member; and a seal member positioned between the first insulative support member and the second insulative member to restrict fluid flow along the terminal elements.

Abstract: An intercoupling component for receiving an array of contacts within a digital or analog transmission system having an electrical ground circuit and chassis ground circuit, the intercoupling component including a segment formed of electrically insulative material and having an upper and lower surface, the segment including a plurality of holes disposed on its upper surface and arranged in a predetermined footprint and one or more a shield members formed of electrically conductive material disposed within the segment and configured to connect to the chassis ground circuit of the system. The intercoupling component may include an array of electrically conductive contacts within the plurality of holes disposed on the segment. One or more of these contacts may be configured to electrically connect with the electrical ground circuit of the system. The intercoupling component may also include a cavity located between signal contacts to adjust the differential impedance between signal contacts.

Abstract: An intercoupling component includes an electrically insulated terminal base, a shroud, separate from the base, and an array of electrically conductive terminal elements. The terminal base having an array of holes configured to receive the terminal elements, each terminal element having a first end adapted for insertion into the holes of the base and a second end configured to extend outwardly from the base. The shroud includes a plurality of walls, which in aggregate define a first end and a second end. The first end of the shroud is configured to receive and be attached to the terminal base and allow the terminal elements to be positioned within the plurality of walls, and the second end is configured to allow access to the terminal elements.

Abstract: A hermaphroditic terminal assembly for connecting electrical devices includes an insulating support member for supporting female sockets and male pins, a number of female sockets, and a number of male pins. An intercoupling component for connecting electrical devices includes two hermaphroditic terminal assemblies configured such that the first hermaphroditic terminal assembly can be mated with the second hermaphroditic terminal assembly.

Abstract: A socket terminal assembly includes a socket body having a first end with a first opening to receive a contact element and a second opening at a second end to receive a pin. A contact element, located in the first opening, is configured to contact the corresponding connection region of a printed circuit board; a pin has an end adapted to contact an electrical contacting area of an integrated circuit package and an opposite end configured to be inserted within the opening of the socket body. A contact spring in the second opening receives the pin and applies a frictional force sufficient to retain the lower end of the pin within the opening of the socket body. A resilient member is disposed within the opening between the contact element and the contact spring. The resilient member applies to the pin and contact element, in response to a downward force applied to the pin or an upward force applied to the contact element, a force sufficient to overcome the frictional force of the contact spring.

Abstract: An intercoupling component for receiving an array of contacts includes a non-conductive substrate having a plurality of holes disposed on its upper surface and arranged in a predetermined footprint corresponding to the array of contacts. Contacts are disposed within the holes and a cavities, which may be open to air or filled with some other dielectric material, are disposed in the substrate between adjacent contacts.

Abstract: An intercoupling component for receiving an array of contacts within a digital or analog transmission system having an electrical ground circuit and chassis ground circuit, the intercoupling component including a segment formed of electrically insulative material and having an upper and lower surface, the segment including a plurality of holes disposed on its upper surface and arranged in a predetermined footprint and one or more a shield members formed of electrically conductive material disposed within the segment and configured to connect to the chassis ground circuit of the system. The intercoupling component may include an array of electrically conductive contacts within the plurality of holes disposed on the segment. One or more of these contacts may be configured to electrically connect with the electrical ground circuit of the system. The intercoupling component may also include a cavity located between signal contacts to adjust the differential impedance between signal contacts.

Abstract: An intercoupling component for receiving an array of contacts includes a non-conductive substrate having a plurality of holes disposed on its upper surface and arranged in a predetermined footprint corresponding to the array of contacts. Contacts are disposed within the holes and a cavities, which may be open to air or filled with some other dielectric material, are disposed in the substrate between adjacent contacts.

Abstract: An intercoupling component for receiving an array of contacts within a digital or analog transmission system having an electrical ground circuit and chassis ground circuit, the intercoupling component may include a segment formed of electrically insulative material and having an upper and lower surface, the segment including a plurality of holes disposed on its upper surface and arranged in a predetermined footprint, one or more a shield members formed of electrically conductive material disposed within the segment and configured to connect to the chassis ground circuit of the system and a frame formed of electrically conductive material and configured to connect with the chassis ground circuit of the system. The intercoupling component may include an array of electrically conductive contacts grouped to multi-contact groupings configured to transmit single-ended or differential signals.