Abstract: Apparatus (100) is provided for mounting media drives. Top and bottom frames (102, 104) are coupled together in a pivoting relationship (106, 108). The frames (102, 104) are configured to receive top and bottom media drives, respectively. In a closed position, the top frame (102) fits substantially over the bottom frame (104). In an open position, the top frame (102) pivots away from the bottom frame (104) by a pivot angle (136) sufficient to insert the bottom media drive into or remove the bottom media drive from the bottom tray (104).

Abstract: A fastener useable with a peripheral component interconnect riser cage is provided herein. The fastener includes a body, a rotation limiter, and a housing. The body includes an engagement end that engages with a receptacle on a sub-pan and a cap end that positions the body. The rotation limiter includes a receiving member and a positioning member. The receiving member couples with the body. The positioning member extends from the rotation limiter to limit rotation of the body coupled thereto. The housing receives the rotation limiter and the body. The housing includes a rotation aperture that receives a positioning member such that the rotation limiter is rotatable along the rotation aperture. The housing further includes a lateral aperture to receive the body such that the body is inserted through the lateral aperture and coupled to the rotation limiter.

Abstract: A fastener useable with a system board is provided herein. The fastener includes a fastener body and a spool. The fastener body has a mating member at one end and a threaded member at an opposite end. The mating member extends from the fastener body and positions the fastener body on a chassis. The spool engages with the threaded member of the fastener body and is secured to the chassis.

Abstract: A method and apparatus for loading IC's into a socket lid is disclosed. The IC is first loaded into a lid. Once the IC has been loaded into the lid, the lid is rotated into a closed position on the frame. The lid is then locked in place on the frame by rotating at least one locking lever into a closed lacked position, where the locking lever forces the lid down against the socket contacts against a spring.

Abstract: A drive carrier comprises a base adapted to receive a drive, two opposing sides extending from the base with each side having first and second stand-off receiving apertures that each receives a stand-off from a surface on which the drive carrier is positioned. The carrier comprises a handle coupled to each side via a hinge. The handle has a stand-off receiving notch associated with each side and each stand-off receiving notch receives one of the stand-offs when the drive carrier is locked in place on the surface. Each notch applies insertion and removal forces against the received stand-off during insertion and removal of the carrier. The hinge defines a plane through the hinges and parallel to the base. The handle pivots downward toward the plane and base to lock the drive carrier to the surface. When the drive carrier is in a locked position, the handle rests above the plane.

Abstract: A method and apparatus for mounting a semiconductor is disclosed. First, the semiconductor is mounted into the bracket of a lid while the lid is detached from a frame. Once the semiconductor has been loaded into the lid/bracket assembly, the loaded lid is mounted onto the frame. The lid is then locked in place on the frame by rotating a locking lever into a closed locked position.

Abstract: An embodiment of a mounting kit has first and second rails connectable to a frame and first and second spacers respectively connectable to the first and second rails. The first and second spacers are configured to engage an object therebetween when the first and second rails are connected to the frame. The first and second rails each comprise a portion configured to extend under the object when the object is between the first and second spacers. A distance from the first spacer to an end of the first rail and a distance from the second spacer to an end of the second rail are based on a length of the object.

Abstract: A bezel includes a dock for a portable display device. The bezel also includes a hinge component that, when coupled to an enclosure, allows the bezel to be rotatably moved with respect to the enclosure.

Abstract: Apparatus (100) is provided for mounting media drives. Top and bottom frames (102, 104) are coupled together in a pivoting relationship (106, 108). The frames (102, 104) are configured to receive top and bottom media drives, respectively. In a closed position, the top frame (102) fits substantially over the bottom frame (104). In an open position, the top frame (102) pivots away from the bottom frame (104) by a pivot angle (136) sufficient to insert the bottom media drive into or remove the bottom media drive from the bottom tray (104).

Abstract: An assembly for engaging a rail with support structures includes a bracket disposed at an end of the rail. The bracket is configured to rotate between at least first and second positions such that the bracket can present at least first or second different engagement features for engaging with different kinds of support structures.

Abstract: A drive carrier comprises a base adapted to receive a drive, two opposing sides extending from the base with each side having first and second stand-off receiving apertures that each receives a stand-off from a surface on which the drive carrier is positioned. The carrier comprises a handle coupled to each side via a hinge. The handle has a stand-off receiving notch associated with each side and each stand-off receiving notch receives one of the stand-offs when the drive carrier is locked in place on the surface. Each notch applies insertion and removal forces against the received stand-off during insertion and removal of the carrier. The hinge defines a plane through the hinges and parallel to the base. The handle pivots downward toward the plane and base to lock the drive carrier to the surface. When the drive carrier is in a locked position, the handle rests above the plane.

Abstract: An embodiment of a mounting kit has first and second rails connectable to a frame and first and second spacers respectively connectable to the first and second rails. The first and second spacers are configured to engage an object therebetween when the first and second rails are connected to the frame. The first and second rails each comprise a portion configured to extend under the object when the object is between the first and second spacers. A distance from the first spacer to an end of the first rail and a distance from the second spacer to an end of the second rail are based on a length of the object.

Abstract: An assembly for engaging a rail with support structures includes a bracket disposed at an end of the rail. The bracket is configured to rotate between at least first and second positions such that the bracket can present at least first or second different engagement features for engaging with different kinds of support structures.

Abstract: A mechanical assist apparatus is provided for biasing an access cover relative to a housing. The mechanical assist apparatus comprises a user-engageable lever, an arm rotatably coupled to the user-engageable lever at a first joint, and a sled rotatably coupled to the arm at a second joint offset from the first joint, wherein the sled comprises a biasing member.

Abstract: A computer system comprising a computer chassis supporting at least one electronic component, the computer chassis having a volume and at least one interactive surface; an indicator panel supported by the computer chassis and coupled to the electronic component, the indicator panel having a display and an outer edge; wherein the indicator panel comprises a first position wherein the indicator panel is received within an aperture in the interactive surface, the indicator panel and the display are disposed within the chassis volume, and the outer edge is exposed and indicates a condition of the electronic component.

Abstract: A cable support arm is provided. In one embodiment, the cable support arm includes first and second arm sections that are rotatably coupled one over the other at a hinge structure. In this embodiment, the first and second arm sections include attachment mechanisms configured to couple the arm sections to a respective housing and device. One of the attachment mechanisms of this embodiment may include a mounting base and a mounting bracket that is reversibly coupleable to the mounting base to enable ambidextrous mounting of one of the arm sections to the device.

Abstract: A computer system comprising a computer chassis supporting at least one electronic component, the computer chassis having a volume and at least one interactive surface; an indicator panel supported by the computer chassis and coupled to the electronic component, the indicator panel having a display and an outer edge; wherein the indicator panel comprises a first position wherein the indicator panel is received within an aperture in the interactive surface, the indicator panel and the display are disposed within the chassis volume, and the outer edge is exposed and indicates a condition of the electronic component.

Abstract: A mechanical assist apparatus is provided for biasing an access cover relative to a housing. The mechanical assist apparatus comprises a user-engageable lever, an arm rotatably coupled to the user-engageable lever at a first joint, and a sled rotatably coupled to the arm at a second joint offset from the first joint, wherein the sled comprises a biasing member.

Abstract: A captive screw for use in electronic assemblies includes a screw with a shaft having a pair of spaced grooves and a cover captivating the screw and for attaching the captive screw. A knob for rotating the screw can be moved along the shaft between an extended position and a lowered position corresponding to the grooves on the shaft, and releasably locked to the shaft in either position. A lock wafer is used to secure the knob to the shaft. A release button with a large head actuates the lock wafer.