Abstract: A server can be used for a cold storage application. The server can include a nest for holding a high density of bare storage drives. The nest can include a plurality of drive cooling channels residing on the underside of the nest. The server can further include rear, front, and side air flow paths for natural convection cooling.

Abstract: A heat sink can be used as part of a storage drive to perform multiple functions, both structural and thermodynamic. It can be used as a heat dissipating element and it can be used as the key mechanical mounting structure for storage drives, such as hard disk drives (HDD), and any circuit boards.

Abstract: A server can be used for a cold storage application. The server can include a nest for holding a high density of bare storage drives. The nest can include a plurality of drive cooling channels residing on the underside of the nest. The server can further include rear, front, and side air flow paths for natural convection cooling.

Abstract: The embodiments provide a rugged enclosure for an external drive. The enclosure is configured to provide shock protection and protect the external drive from contaminants. The enclosure may be provided with a set of cushions and spacers to accommodate different sizes and types of external drives. In addition, the enclosure may comprise a port that allows for use of the external drive while enclosed. Furthermore, the enclosure may comprise a retaining feature like a loop or lanyard that allows the enclosure to be easily transported and secured.

Abstract: A drive ejection mechanism, a storage drive enclosure and a server device having the drive ejection mechanism assembly are provided. The ejection mechanism assembly includes a lower guide member, an ejection member, a drive retaining member, and a biasing member. The lower guide member have a first end and a second end and may include a floor and at least one sidewall defining a lower drive insertion path. The ejection member may be slidingly coupled to the lower guide member. The drive retaining member may be hingedly connected to the first end of the lower guide member. The biasing member may be configured to bias the ejection member toward the first end of the lower guide member.

Abstract: The embodiments provide a rugged enclosure for an external drive. The enclosure is configured to provide shock protection and protect the external drive from contaminants. The enclosure may be provided with a set of cushions and spacers to accommodate different sizes and types of external drives. In addition, the enclosure may comprise a port that allows for use of the external drive while enclosed. Furthermore, the enclosure may comprise a retaining feature like a loop or lanyard that allows the enclosure to be easily transported and secured.

Abstract: The invention relates to an improved seal that allows for a fastener-less/adhesive-less assembly retention method. In particular, the seal may comprise a plurality of integral retention prongs that allows permanent assembly with a plastic housing via friction. The seal is self-retaining, and thus, does not require a fastener or glue. The seal protects the interior of the enclosure from moisture and contaminants when exposed to a mobile environment. In addition, the seal provides sufficient resistance to deliver a proper sealing force and tactile feel to a user when closing the rugged enclosure, while maintaining its shape.

Abstract: A server can be used for a cold storage application. The server can include a nest for holding a high density of bare storage drives. The nest can include a plurality of drive cooling channels residing on the underside of the nest. The server can further include rear, front, and side air flow paths for natural convection cooling.

Abstract: The embodiments of the present invention provide a shielded connector having improved shielding effectiveness to reduce electromagnetic interference (EMI). Some of the various embodiments provide high-speed electrical connectors capable of carrying gigabyte data rate signals. The shielding may employ, among other things, one or more shielding structures to reduce the EMI associated with these and other signals. The shielding structures may be oriented to reduce or limit the apertures within the connector through which EMI can penetrate. For example, some embodiments for a universal serial bus (USB) connector may support both a USB 3.0 and USB 2.0. For these embodiments, a grounding tab or peg may be placed in the rear of the connector between the USB 3.0 and the USB 2.0 connections to divide the aperture for the port into a plurality of sections. The grounding tab or peg may also serve as a structural support for the connector.

Abstract: A server can be used for a cold storage application. The server can comprise a nest for holding a high density of bare storage drives, wherein the nest comprises a plurality of drive cooling channels residing on the underside of the nest. The server can further comprise rear, front, and side air flow paths for natural convection cooling.

Abstract: A heat sink can be used as part of a storage drive to perform multiple functions, both structural and thermodynamic. It can be used as a heat dissipating element and it can be used as the key mechanical mounting structure for storage drives, such as hard disk drives (HDD), and any circuit boards.

Abstract: A heat sink can be used as part of a storage drive to perform multiple functions, both structural and thermodynamic. It can be used as a heat dissipating element and it can be used as the key mechanical mounting structure for storage drives, such as hard disk drives (HDD), and any circuit boards.

Abstract: A method may comprise generating a first electronic model of a workpiece to be manufactured using an injection-molding process. The first electronic model may then be analyzed and the workpiece in the first electronic model may then be selectively distorted according to the analysis. A second electronic model of the distorted workpiece may then be generated. The workpiece may then be injection-molded within a mold generated using the second electronic model. Thereafter, the workpiece may be cooled such that the injection-molded workpiece gradually assumes the shape or substantially the shape of the workpiece in the first electronic model.

Abstract: A drive ejection mechanism, a storage drive enclosure and a server device having the drive ejection mechanism assembly are provided. The ejection mechanism assembly includes a lower guide member, an ejection member, a drive retaining member, and a biasing member. The lower guide member have a first end and a second end and may include a floor and at least one sidewall defining a lower drive insertion path. The ejection member may be slidingly coupled to the lower guide member. The drive retaining member may be hingedly connected to the first end of the lower guide member. The biasing member may be configured to bias the ejection member toward the first end of the lower guide member.

Abstract: A server chassis can provide air flow to the top and bottom of multiple storage drives. The server chassis can include an enclosure having a top wall and a bottom wall, and a base plate positioned between the top and bottom walls of the enclosure. The base plate can include a plurality of storage drive receiving areas, a plurality of recesses, and a plurality of openings. Each recess can be positioned at a corresponding one of the storage drive receiving areas and be configured to be under a storage drive received at the storage drive receiving area. Each opening can be used to direct air flow from below the base plate into the recesses and thereby onto a bottom of the storage drives.