Abstract:
An enclosure includes a first enclosure member and a second enclosure member for securing a monitor, a printed circuit board and a switch therebetween. An actuator is formed of unitary construction with the first enclosure member. The first and second enclosure members are secured by a plurality of connections. A tool is configured to substantially simultaneously disengage the plurality of connections.
Abstract:
A small form factor pluggable (SFP) cage is provided having an upper and lower shell. The upper shell has pins configured to fit into a circuit board. The upper shell has a top wall extending between front and back ends, and a rear wall closing the back end. The upper shell also includes side walls extending between the front and back ends and base portions integral with the bottom of the side walls. The base portions are bent inward toward one another. The lower shell has a bottom wall and interlocking members that extended to from a front end of the bottom wall. The upper and lower shells are joined with one another to form a module retention chamber therebetween. The module retention chamber has an open front end configured to accept an SFP module. The interlocking members overlap and inter-connect with the base portions.
Abstract:
A connector assembly that includes a base frame that extends along a longitudinal axis between a pair of frame ends. The connector assembly also includes a moveable mating side that is supported by the base frame and extends in a longitudinal direction along the longitudinal axis. The mating side has a mating array of terminals configured to communicate data signals. The connector assembly also includes a power connector that is configured to establish an electrical connection. The power connector is coupled to the mating side. Also, the connector assembly includes a coupling mechanism that is supported by the base frame and is operatively coupled to the mating side. The coupling mechanism is configured to be actuated to move the mating side between retracted and engaged positions in a mating direction with respect to the longitudinal axis.
Abstract:
A connector assembly includes a connector housing configured to be coupled to a primary circuit board. A connector is held within the connector housing. The connector has a connector circuit board having a mating surface and a cable surface. The mating surface has mating contacts configured to be mated to corresponding mating contacts of a secondary circuit board. The cable surface has cable contacts. Cables extend between a first end and a second end. The first end of each cable is coupled to corresponding cable contacts of the connector circuit board. The second end of each cable is configured to be coupled to a cable contact on the primary circuit board or a second connector assembly on the primary circuit board.
Abstract:
A connector assembly includes a connector housing configured to be coupled to a primary circuit board. A connector is held within the connector housing. The connector has a connector circuit board having a mating surface and a cable surface. The mating surface has mating contacts configured to be mated to corresponding mating contacts of a secondary circuit board. The cable surface has cable contacts. Cables extend between a first end and a second end. The first end of each cable is coupled to corresponding cable contacts of the connector circuit board. The second end of each cable is configured to be coupled to a cable contact on the primary circuit board or a second connector assembly on the primary circuit board.
Abstract:
A flexible circuit assembly including a pair of mating panels. Each of the mating panels has an engagement face and a power contact. The circuit assembly also includes adjacent first and second flex interconnects that mechanically and electrically couple the mating panels. The first and second flex interconnects extend alongside each other and have respective interior surfaces. The first and second flex interconnects are stacked with respect to each other such that the interior surfaces face each other and define a heat-dissipating interspace therebetween. The circuit assembly also includes a plurality of power conductors that extend through the first and second flex interconnects between the mating panels. The power conductors are electrically parallel to one another between the power contacts. At least one of the power conductors extends proximate to the interior surface of one of the first and second flex interconnects.
Abstract:
A connector assembly that includes a communication connector comprising a base frame and a moveable side that is supported by the base frame. The moveable side has a mating array of terminals thereon and is configured to move with respect to the base frame between retracted and engaged positions to engage a communication component. The connector assembly also includes a flexible circuit including a flex interconnect that has opposite exterior surfaces. The flexible circuit is coupled to the moveable side. The connector assembly also includes a plurality of heat-dissipation elements that are attached to the flex interconnect and project away from one of the exterior surfaces. The heat-dissipation elements are configured to conduct thermal energy from the flex interconnect and transfer the thermal energy to an ambient environment.
Abstract:
A flexible circuit assembly including a pair of mating panels. Each of the mating panels has an engagement face and a power contact. The circuit assembly also includes adjacent first and second flex interconnects that mechanically and electrically couple the mating panels. The first and second flex interconnects extend alongside each other and have respective interior surfaces. The first and second flex interconnects are stacked with respect to each other such that the interior surfaces face each other and define a heat-dissipating interspace therebetween. The circuit assembly also includes a plurality of power conductors that extend through the first and second flex interconnects between the mating panels. The power conductors are electrically parallel to one another between the power contacts. At least one of the power conductors extends proximate to the interior surface of one of the first and second flex interconnects.
Abstract:
A connector configured to communicatively couple different components. The connector includes a base frame that extends along a longitudinal axis between a pair of frame ends and first and second moveable mating arrays having mating surfaces with terminals arranged thereon. The connector also includes a coupling mechanism that is supported by the base frame. The coupling mechanism holds the first and second mating arrays so that the mating surfaces of the first and second mating arrays extend along the longitudinal axis. The coupling mechanism moves the first and second mating arrays along different mating directions with respect to select components. The coupling mechanism moves the first and second mating arrays, between retracted and engaged positions, wherein the corresponding mating array is spaced apart from the select component in the retracted position and engaged to the select component in the engaged position.
Abstract:
An electrical connector for electrically coupling an electronic module and an electrical component. The connector includes a substrate that has first and second surfaces separated by a thickness. The substrate includes interconnects that extend through the substrate and are arranged in an array. The interconnects are configured to engage the module along the first surface and engage the electrical component along the second surface. The connector also includes alignment members that extend through openings in the substrate. The alignment members include heads that project beyond and away from the first surface. The heads are located about the substrate relative to each other to collectively form a module reception area therebetween to hold the module in a predetermined position and orientation with respect to the first surface and with respect to the interconnects.