Abstract: An apparatus provides power for computer devices, such as servers, facilitating their testing outside of the typical server rack. A platform of supports the computer device while providing for a power supply unit beneath the platform to be connected to the device. The location of the power supply beneath the platform decreases the combined footprint of the apparatus and device under test. The power supply unit may be configured to connect to standard voltages, allowing the computer device to be tested where connection to rack-level voltage is not convenient.

Abstract: An apparatus is provided for ensuring the proper orientation of an electronic device within a rack slot. A constraint is added to one of a pair of rail assemblies and a corresponding constraint is added to the rack, the pair of constraints cooperating to allow the pair of rail assemblies to be installed only in the proper sides of the rack. Mounting holes are provided on the device and inner rails of the rail assemblies that allow the inner rail assemblies to be installed only on the proper sides of the device. A key and key slot combination is then provided in an inner rail and a middle rail of one rail assembly with the combination preventing the inner rail from being fully inserted into the incorrect middle rail. Thus, the correct orientation of the device is ensured by the pair of rail assemblies, the spacing of mounting holes in the device, and the rack constraint.

Abstract: Examples described herein include socket covers with air impeding structures. In some examples, a processing unit socket cover comprises a base, an air impeding structure, and an engagement latch. The base may have a surface facing away from the socket and a perimeter defined by the surface. The air impeding structure may protrude from the surface and extend from a first side of the perimeter to a second side of the perimeter, diving the surface. The engagement latch may be connected to the air impeding structure to attach to the socket.

Abstract: Examples described herein include socket covers with air impeding structures. In some examples, a processing unit socket cover comprises a base, an air impeding structure, and an engagement latch. The base may have a surface facing away from the socket and a perimeter defined by the surface. The air impeding structure may protrude from the surface and extend from a first side of the perimeter to a second side of the perimeter, diving the surface. The engagement latch may be connected to the air impeding structure to attach to the socket.

Abstract: Examples herein disclose a multiple tier cooling structure. The multiple tier cooling structure includes multiple tanks, multiple inlets, and multiple outlets. Each of the multiple tanks are on a respective tier, each of the multiple inlets are located on a first side at each tank to direct a cooling fluid from the first side of each tank to a second side. Each of the multiple outlets are located on the second side at each tank to direct an expulsion of the cooling fluid from each tank.

Abstract: A server structure includes a first housing to support a first server module configuration, and a second housing to support a second server module configuration such that the first housing and the second housing are interchangeably supported by a common chassis, and each have at least one set of common engagement features associated with a corresponding set of common engagement features of the common chassis.

Abstract: A server structure includes a chassis including at least one partition oriented in a plane, and a backplane tray slideably supported by the chassis in a direction substantially perpendicular to the plane of the at least one partition. The at least one partition forms a bay to receive at least one module, and the backplane tray supports a backplane including at least one electrical connector for the at least one module.

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 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 server structure includes a first housing to support a first server module configuration, and a second housing to support a second server module configuration such that the first housing and the second housing are interchangeably supported by a common chassis, and each have at least one set of common engagement features associated with a corresponding set of common engagement features of the common chassis.

Abstract: A server structure includes a chassis including at least one partition oriented in a plane, and a backplane tray slideably supported by the chassis in a direction substantially perpendicular to the plane of the at least one partition. The at least one partition forms a bay to receive at least one module, and the backplane tray supports a backplane including at least one electrical connector for the at least one module.

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 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: The present invention is directed to a decorative wall plate assembly configured to cover at least one electrical device disposed in a wall box. The assembly includes a base plate member comprising a center portion including at least one aperture configured to accommodate the at least one electrical device, a first end portion of the base plate member including at least one first plate connection device, and a second end portion of the base plate member including at least one second plate connection device. The center portion is disposed between the first end portion and the second end portion. A first cover cap includes at least one first cover cap connection device configured to mate with the at least one first plate connection device. The first cover cap is configured to cover the first end portion. A second cover cap includes at least one second cover cap connection device configured to mate with the at least one second plate connection device.