Abstract:
A connector assembly includes a housing, a contact and a compressive coupling member. The housing has a mating interface and a mounting interface on opposing sides of the housing. The mounting interface is configured to engage a first substrate when the housing is mounted to the first substrate. The mating interface is configured to mate with a mating connector that is mounted to a second substrate. The housing is configured to engage and interconnect the substrates in a parallel arrangement. The contact extends between and protrudes from the interfaces of the housing and is configured to provide an electrical connection between the substrates. The compressive coupling member is configured to extend through the substrates and the housing in a direction transverse to the interfaces. The coupling member is configured to apply a compressive force to the housing to secure the housing with the mating connector to electrically and mechanically interconnect the substrates.
Abstract:
A terminal for use with a zero insertion force socket is disclosed which electrically connects a mating connector to a printed circuit board or the like. The terminal has a pin engaging portion which has a pair of nonsymmetrical contact arms which are positioned to make electrical engagement with the mating pin. A first contact arm of the pair of contact arms is configured to have a longer electrical path across which signals are transmitted than a second contact arm. The first contact arm also has a reduced cross section compared to the second contact arm, such that the first contact arm is configured to have a matched inductance to the second contact arm. A retention portion extends from the pin engaging portion. Side edges of the retention portion are dimensioned to create a frictional interference with side wall of a cavity of the socket. A mounting portion extends from the retention portion in an opposite direction from the pin engaging portion. The mounting portion has at least one resilient leg which extends from the retention portion to a solder pad which is soldered to a substrate. The solder pad is spaced from the retention portion a sufficient distance to allow the at least one resilient leg to provide the resilient characteristics required to allow the at least one resilient leg to resiliently compensate for misalignment or movement of the solder relative to the solder pad.
Abstract:
A connector assembly includes a housing and substantially identical contacts. The housing is configured to mate with a mating connector. The contacts are arranged in a plurality of sets in the housing. The contacts are configured to electrically couple with the mating connector. Each set of contacts is arranged to communicate a different type of data signal with the mating connector. Optionally, the contacts are formed as substantially identical pins. The different sets of contacts may concurrently communicate the different types of data signals.
Abstract:
A connector assembly includes a housing, a signal contact and a power contact. The housing has a mounting body and a mating body coupled together and separated by a gap. The gap permits air to flow between the lower and mating bodies. The mating body is configured to engage an upper substrate and the mounting body is configured to engage a lower substrate to mechanically interconnect the upper and lower substrates. The signal contact extends between and protrudes from the mating and mounting bodies and is configured to communicate a data signal between the mating and mounting bodies. The power contact extends between and protrudes from the mating and mounting bodies and is configured to communicate electrical power between the upper and lower substrates. The housing separates the upper and lower substrates by a predetermined stack height.
Abstract:
A connector assembly includes a housing and contacts. The housing extends between mating and mounting interfaces. The mating and mounting interfaces have contact openings in a noise-reducing contact pattern. The contact openings in the pattern are arranged in pairs along respective contact lines. The contact lines of adjacent pairs are transverse to one another. The contacts extend through the contact openings and are arranged in the noise-reducing contact pattern through the housing between the mating and mounting interfaces to reduce at least one of electric noise and cross-talk in signals communicated by the contacts.
Abstract:
A connector family that has a central housing having a connector mating face and a board mounting interface. An outer shell is shaped to fit over the central housing. The outer shell at least partially encloses the board mounting interface and exposes the connector mating interface of the central housing. The outer shell has a cable interface that is configured to be joined to a cable. Contacts are held in the central housing. The contacts, central housing and outer shell are used in different configurations depending upon the application. In a first application, the outer shell is mounted over the central housing to form a first configuration. In a second application, the outer shell is removed to expose the board mounting interface on the central housing to form a second configuration.
Abstract:
An electrical connector includes a housing having a forward mating end and a rearward contact loading end. The housing includes first and second opposite sides. The housing is configured for insertion into a panel opening that has an inner edge. The housing is inserted into the panel opening in a first direction in an insertion position and is movable within the panel opening in a second direction substantially perpendicular to the first direction from the insertion position to a latched position. A latch member extends from the first side of the housing and has first and second ends attached to first and second opposite ends of the first side of the housing. An arcuate latch beam joins the first and second ends of the latch member, and a latch element positioned on a forward facing surface of the latch beam engages the inner edge of the panel opening to hold the housing in the latched position.
Abstract:
A socket is provided for receiving electronic packages having different first and second sizes. The socket comprises a base housing having a top surface including an array of pin receiving chambers as well as base side walls. The socket also comprises a cover having a top surface including an array of holes corresponding to the array of pin receiving chambers. The cover also includes cover side walls that slidably engage the base side walls. Further, the socket comprises first and second locating members provided on at least one of the base housing and cover. The first locating member is positioned to engage and align an electronic package having a first size with the array of holes in the cover, and the second locating member is positioned to engage and align an electronic package of a second size with the array of holes in the cover.
Abstract:
A zero insertion force socket is provided having a cover and housing slidably mounted to one another. The housing includes a pocket receiving a cam assembly. The cam assembly is slidably moveable within the housing in a direction perpendicular to the direction of movement between the cover and housing. The lever is rotatably mounted within the housing and engages the cam assembly to transfer rotational movement of the lever into axial movement of the cam assembly in a transverse direction. The cam assembly communicates with the cover such that the cam assembly drives the cover in a longitudinal direction as the cam assembly moves in a transverse direction. The lever and cam assembly cooperate to spread actuation forces across the cover and housing.
Abstract:
An electrical contact including an elongated contact body that has a compliant tail, a mating beam, and a channel section extending between the compliant tail and the mating beam. The channel section has a base wall and sidewalls that extend from the base wall. The base wall and the sidewalls extend around a central longitudinal axis to define a flow channel. The channel section includes a flow-limiting feature that is configured to impede capillary flow of a plating solution along the channel section from the compliant tail to the mating beam.