Abstract: An arresting cable retraction mechanism for use across an aircraft runway. The retraction mechanism functions to extend a cable across a runway (for capture by a tailhook of an aircraft) without causing the cable to recede below the runway surface during an aircraft rollover/deflection event. The arresting cable retraction mechanism is also designed to help prevent damage to a retraction motion actuator due to high speed aircraft rollover. The disclosed system separates components related to retraction vs. deflection due to rollover, such that rollover events do not affect or load the motion actuator used for retraction.

Abstract: A retractable runway edge sheave for use in an aircraft arresting system. The arresting system functions to extend a cable across a runway for capture by a tailhook of an aircraft. The retractable runway edge sheave is designed to raise and lower the cable. The disclosed system may also feature a ramping system.

Abstract: An arresting cable retraction mechanism for use across an aircraft runway. The retraction mechanism functions to extend a cable across a runway (for capture by a tailhook of an aircraft) without causing the cable to recede below the runway surface during an aircraft rollover/deflection event. The arresting cable retraction mechanism is also designed to help prevent damage to a retraction motion actuator due to high speed aircraft rollover. The disclosed system separates components related to retraction vs. deflection due to rollover, such that rollover events do not affect or load the motion actuator used for retraction.

Abstract: A retractable runway edge sheave for use in an aircraft arresting system. The arresting system functions to extend a cable across a runway for capture by a tailhook of an aircraft. The retractable runway edge sheave is designed to raise and lower the cable. The disclosed system may also feature a ramping system.

Abstract: Embodiments of the present disclosure relate generally to safe arrestment and recovery of an airborne unmanned air vehicle (UAV). Specific embodiments provide a 360 degree capture engagement cage that can recover a UAV approaching from any direction. The systems described herein may be used regardless of wind direction. The systems described herein may also be used as an air-only based system. Other embodiments may be used as including both an upper and lower tether for the engagement cage.

Abstract: Embodiments of the present disclosure relate generally to safe arrestment and recovery of an airborne unmanned air vehicle (UAV). Specific embodiments provide a recovery net that can recover a UAV approaching a cargo plane, the UAV either traveling in the same direction as the cargo plane or in an opposite direction of the cargo plane. The systems described herein may also be used as an air-only based system.

Abstract: Embodiments of the present disclosure relate generally to safe arrestment and recovery of an airborne unmanned air vehicle (UAV). Specific embodiments provide a 360 degree capture engagement cage that can recover a UAV approaching from any direction. The systems described herein may be used regardless of wind direction. The systems described herein may also be used as an air-only based system. Other embodiments may be used as including both an upper and lower tether for the engagement cage.

Abstract: Memory module adapters and methods for connecting memory modules to computing systems are disclosed. The memory module adapter includes memory connectors, a multi-memory connector, and a support that supports the memory connectors and multi-memory connector. The memory connectors are electrically connected to the multi-memory connector. Memory modules are connected to a computing system by inserting the memory modules along a first insertion axis into a memory connector of a memory module adapter and inserting the memory module adapter along a second insertion axis to a platform connector of a computing platform within the computing system.

Abstract: Card adapter modules and methods for connecting peripheral cards to computing systems are disclosed. The card adapter modules each include a card connector, a peripheral connector, and a housing that supports the card connector and peripheral connector. A peripheral card is connected to a computing system having a chassis with an input/output slot by inserting the peripheral card along a first insertion axis (y-axis) into a card connector of a card adapter module and inserting the card adapter module along a second insertion axis (x-axis) extending through the input/output slot to a platform connector of a computing platform within the computing system. The card connector is electrically connected to the peripheral connector.

Abstract: A system is provided for mounting a computer component. The system has at least one rail with first and second mounting portions. The first mounting portion defines a recess. The second mounting portion has at least one detent. The system also has first and second supports. The first support has an extension extending into the recess and allows sliding of the first mounting portion relative to the first support. The second support defines at least one aperture that receives the detent and limits sliding of the second mounting portion relative to the second support.

Abstract: A computer system including a frame defining a plurality of cells is provided. Each of the cells is configured to receive a computer module through a respective opening adjacent the cell. The computer system also includes a computer module configured for insertion into a respective one of the cells through a respective one of the openings. The computer system also includes a cell cover substantially covering at least one other of the openings adjacent a cell not occupied by a computer module.

Abstract: A shield and method for inhibiting electromagnetic interference (EMI) emissions from an enclosure is disclosed. The shield includes a cover portion and a plurality of extensions adjacent the cover portion, the extensions together at least partially defining a channel extending along at least a portion of the cover portion, the channel having substantially parallel boundaries, the channel being configured to received a portion of the enclosure and to slidably engage the enclosure such that, when engaged, the cover portion inhibits electromagnetic interference emissions from the enclosure. The method includes aligning a plurality of extensions of a shield with a portion of the enclosure and sliding the extensions into engagement with the portion of the enclosure until the shield covers an opening in the enclosure, thereby inhibiting electromagnetic interference emissions from the enclosure through the opening.

Abstract: A cable routing system facilitating interconnection between a computer system and a chassis that may be extended and retracted with respect to the computer system along at least one support member is provided. The system includes a folding arm assembly supported by the at least one support member such that the folding arm assembly is moveable between a retracted position when the chassis is retracted with respect to the computer system and an extended position when the chassis is extended with respect to the computer system. The folding arm assembly defines at least one channel for routing a cable between the chassis and the computer system. The system also includes a strain relief supported by the at least one support member and positioned between the folding arm assembly and a termination point of the cable such that the strain relief substantially stabilizes the cable at the termination point.

Abstract: A clamp for securing a cabinet frame having at least one support member is provided. The clamp includes a body portion configured to be fastened to a supporting surface. The clamp also includes at least one mounting portion coupled to the body portion. The mounting portion defines a recess positioned to at least partially surround a portion of the support member. The mounting portion includes a surface positioned to contact another portion of the support member when the body portion is fastened to the supporting surface, thereby securing the cabinet frame.

Abstract: A system is provided for releasable engagement between two structures. The system includes a stud extending outwardly from one of the structures along an axis. The system also includes a resilient member positioned adjacent a surface of the other one of the structures. The resilient member is configured to expand radially outwardly to permit passage of the stud, yet the surface of the structure contacting the outer surface of the resilient member prevents movement of the outer surface radially outwardly. The resilient member is configured to engage the stud for releasable engagement, thereby providing releasable engagement between the structures.

Abstract: An apparatus is provided for reducing or eliminating a gap defined between adjacent components of an electronic system, thereby reducing electromagnetic interference generated by the electronic system. The apparatus includes a cam having a cam surface positionable adjacent a component of the electronic system. The cam is moveable to an actuated position in which the cam surface applies a force to the component. The apparatus further includes a support mountable to the electronic system. The support engages the cam and facilitates the movement of the cam. The movement of the cam with respect to the support and into the actuated position causes the cam surface to apply the force to the component, thereby reducing or eliminating a gap between the component and an adjacent component of the electronic system.

Abstract: A fastener assembly and method are provided to engage a component to a circuit board assembly having a circuit board and a retainer positioned adjacent the circuit board. The fastener assembly comprises an elongated member extending between proximal and distal ends. The member includes a proximal portion having threads, and a distal portion having threads configured to engage the retainer of the circuit board assembly. A shoulder is spaced from the distal end of the member, and is configured to contact a surface of the retainer and to limit the travel of the distal end of the member toward the circuit board. The distance between the distal end and the shoulder of the member is equal to or more preferably less than the distance between the surface of the retainer and the circuit board, thereby reducing or eliminating interference between the distal end of the member and the circuit board. The fastener assembly also comprises a fastener adapted to engage the threads of the proximal portion of the member.