Abstract: A cover latch is provided for coupling a blade server cover to a blade server when the cover latch is in a locked state. Embodiments include a locking surface and a user interface; wherein when the cover latch is in the locked state, the locking surface engages a locking surface enclosure of the blade server cover; wherein when the cover latch is in an unlocked state, the user interface is rotated into the blade server and the locking surface is rotated outward from the blade server, wherein when the locking surface is rotated outward from the blade server, the locking surface is disengaged from the locking surface enclosure of the blade server cover; and a rotational limiter hole in the cover latch that surrounds a peg of the blade server, wherein the rotation of the locking surface and the user interface is limited by the rotational limiter.

Abstract: An enclosure assembly and system are provided for implementing cover-mounted, auto-docking for multiple DASD configurations in information technology equipment. A user selected direct access storage device (DASD) configuration is mechanically attached to an enclosure cover. A cover interposer card is mechanically attached to the enclosure cover and electrically connected to each DASD in the user selected DASD configuration. An electrical connector mates with the cover interposer card as the cover is installed through a sliding motion with a chassis and base planar of the enclosure assembly. A flexible cable interconnect attached to the mating electrical connector is connected to the base planar. The enclosure assembly enables high density, high performance modular server architectures without compromising processor performance or planar electrical architecture.

Abstract: A cover latch is provided for coupling a blade server cover to a blade server when the cover latch is in a locked state. Embodiments include a locking surface at one end of the cover latch; a user interface at an end of the cover latch opposite from the end with the locking surface; wherein when the cover latch is in the locked state, the locking surface engages a locking surface enclosure of the blade server cover; wherein when the cover latch is in an unlocked state, the user interface is rotated into the blade server and the locking surface is rotated outward from the blade server, wherein when the locking surface is rotated outward from the blade server, the locking surface is disengaged from the locking surface enclosure of the blade server cover; and a rotational limiter hole in the cover latch that surrounds a peg of the blade server, wherein the rotation of the locking surface and the user interface is limited by the rotational limiter.

Abstract: A cover latch is provided for coupling a blade server cover to a blade server when the cover latch is in a locked state. Embodiments include a locking surface and a user interface; wherein when the cover latch is in the locked state, the locking surface engages a locking surface enclosure of the blade server cover; wherein when the cover latch is in an unlocked state, the user interface is rotated into the blade server and the locking surface is rotated outward from the blade server, wherein when the locking surface is rotated outward from the blade server, the locking surface is disengaged from the locking surface enclosure of the blade server cover; and a rotational limiter hole in the cover latch that surrounds a peg of the blade server, wherein the rotation of the locking surface and the user interface is limited by the rotational limiter.

Abstract: An enclosure assembly and system are provided for implementing cover-mounted, auto-docking for multiple DASD configurations in information technology equipment. A user selected direct access storage device (DASD) configuration is mechanically attached to an enclosure cover. A cover interposer card is mechanically attached to the enclosure cover and electrically connected to each DASD in the user selected DASD configuration. An electrical connector mates with the cover interposer card as the cover is installed through a sliding motion with a chassis and base planar of the enclosure assembly. A flexible cable interconnect attached to the mating electrical connector is connected to the base planar. The enclosure assembly enables high density, high performance modular server architectures without compromising processor performance or planar electrical architecture.

Abstract: A cover latch is provided for coupling a blade server cover to a blade server when the cover latch is in a locked state. Embodiments include a locking surface at one end of the cover latch; a user interface at an end of the cover latch opposite from the end with the locking surface; wherein when the cover latch is in the locked state, the locking surface engages a locking surface enclosure of the blade server cover; wherein when the cover latch is in an unlocked state, the user interface is rotated into the blade server and the locking surface is rotated outward from the blade server, wherein when the locking surface is rotated outward from the blade server, the locking surface is disengaged from the locking surface enclosure of the blade server cover; and a rotational limiter hole in the cover latch that surrounds a peg of the blade server, wherein the rotation of the locking surface and the user interface is limited by the rotational limiter.

Abstract: A cable management system for a rack-mounted electronic system including an elongate cable guide plate securable to a rack and having opposing first and second, longitudinally-extending flanges. An array of cable alignment tabs are disposed on the cable guide plate between the opposing flanges and arranged in longitudinally-oriented columns and laterally-oriented rows. Adjacent columns are sufficiently spaced to receive two or more cables against the cable guide plate and adjacent rows are sufficiently spaced to receive one or more cables. Each of a plurality of cable-fastening straps are configured for being selectively secured across the cable guide plate from the first flange to the opposing second flange.