Abstract:
A connector assembly includes a housing, a connector interface body, an elongated shaft, and a cam. The housing has an opening extending into the front face and an elongated channel oriented along the longitudinal axis. The cam is within the opening of the housing and includes a passageway through which a shaft of the housing extends. Rotation of the shaft rotates the cam to engage and drive the connector interface body away from the housing. The cam includes a collar protruding from the cam and extending along a periphery of the passageway. The collar has a clearance dimension along a first direction that is smaller than a gap between the retention features of the housing and an interference dimension along a transverse direction that is larger than the gap. The cam is retained in the housing when the collar engages retention features of the housing across the interference dimension.
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 moveable first and second mating arrays comprising respective mating surfaces having terminals arranged thereon. The connector also includes a coupling mechanism supported by the base frame. The coupling mechanism holds the first and second mating arrays and moves the first and second mating arrays between retracted and engaged positions. The first and second mating arrays are spaced apart from a select component when in the corresponding retracted position. The first and second mating arrays are communicatively coupled to the select component when in the corresponding engaged position. The coupling mechanism initiates movement of the first mating array from the retracted position toward the engaged position while the second mating array remains stationary with respect to the base frame.
Abstract:
An electrical connector assembly for electrically coupling primary and secondary circuit boards together. The secondary circuit board is held proximate to the primary circuit board and has a first contact array of board contacts thereon. The electrical connector assembly includes a circuit assembly having a second contact array of mating contacts configured to mate with the first contact array and a flexible circuit that electrically couples the second contact array to the primary circuit board. The electrical connector assembly also includes an alignment feature that is configured to engage the secondary circuit board. Also, the electrical connector assembly includes a coupling mechanism that is configured to move the alignment feature and the second contact array between a retracted position, in which the second contact array is located remotely from the first contact array, and an engaged position, in which the first and second contact arrays engage one another.
Abstract:
An electrical connector is provided that comprises a housing with a front wall that separates a mating end from a loading end. The housing has a module support shroud that extends from the front wall toward the loading end and that has a latch element provided thereon. The connector also includes a contact module having an array of contacts that are held in a dielectric carrier. The contact module includes a mating end, sides and a module end. The module end slides along the module support shroud as the contact is loaded into the housing, until the mating end is located proximate to the front wall when the contact module is fully loaded. A retention latch member is formed separate from, and held by, the contact module. The retention latch member extends beyond the module edge and engages the latch element on the module support shroud to retain securely the contact module in the housing.
Abstract:
A connector assembly includes a housing, a mating array, and a self-alignment subassembly. The housing is joined to a first circuit board and includes a header portion that moves in a mating direction toward a second circuit board. The mating array is joined to the header portion and includes a terminal. The mating array is moveable in the mating direction to couple the terminal with a mating terminal of the second circuit board. The self-alignment subassembly is disposed between the header portion and the mating array. The self-alignment subassembly applies a floating force on the mating array that permits alignment of the terminal of the mating array with the mating terminal while the mating array is moved in directions oriented approximately perpendicular to the mating direction. The self-alignment subassembly also applies a loading force on the mating array in the mating direction that couples the terminal of the mating array with the mating terminal.
Abstract:
An electrical connector assembly includes a connector having a connector housing and contacts held by the connector housing, where the contacts defining a separable mating interface for mating with a mating component. An actuator engages the contacts and is movable between an actuated position and an unactuated position. The contacts are deflected relative to the connector housing when the actuator is moved to the actuated position. An actuation device is configured to move the actuator between the actuated position and the unactuated position.
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 moveable first and second mating arrays comprising respective mating surfaces having terminals arranged thereon. The connector also includes a coupling mechanism supported by the base frame. The coupling mechanism holds the first and second mating arrays and moves the first and second mating arrays between retracted and engaged positions. The first and second mating arrays are spaced apart from a select component when in the corresponding retracted position. The first and second mating arrays are communicatively coupled to the select component when in the corresponding engaged position. The coupling mechanism initiates movement of the first mating array from the retracted position toward the engaged position while the second mating array remains stationary with respect to the base frame.
Abstract:
A connector includes a housing, a contact, an angled interface, and a resilient member. The contact is disposed in the housing and includes a mating end and an interface end. The angled interface includes a sliding surface that is oriented at an oblique angle with respect to the longitudinal axis. The resilient member is coupled with the contact and the housing and is configured to apply a force to the contact in a direction that is angled with respect to the longitudinal axis. The mating end of the contact engages a conductive element of a mating connector and the interface end of the contact slides along the sliding surface of the angled interface when the contact is moved in a mating direction toward the conductive element. The angled interface translates movement of the contact in the mating direction into lateral movement across the conductive element.
Abstract:
A connector assembly includes a housing, a connector interface, and an actuator. The housing extends from a front end to a back end and includes an elongated channel extending through the housing along an actuation axis disposed between the front and back ends. The connector interface is joined with the front end of the housing and is configured to be electrically joined with a circuit board when the connector interface is moved away from the front end and mates with the circuit board. The actuator is disposed within the channel of the housing and includes a ramp angled toward the front end of the housing. The connector interface mates with the circuit board by moving the actuator along the actuation axis to engage the ramp with the connector interface and move the connector interface toward the circuit board.
Abstract:
An interconnect assembly for interconnecting first and second electrical components includes a substrate having opposed first and second surfaces and a first array of contacts on the first surface for engaging corresponding elements on the first electrical component. The first array of contacts defines a compressible interface that mates with the first electrical component. The first array of contacts includes signal contacts transferring data signals across the compressible interface and the first array of contacts includes a combination of power contacts that jointly convey power across the compressible interface. The interconnect assembly also includes a second array of contacts on the second surface for engaging corresponding elements on the second electrical component. The second array of contacts having signal contacts electrically connected to the signal contact of the first array of contacts and power contacts electrically connected to the power contacts of the second array of contacts.