Abstract: A shroud including a body comprising a first side, a second side opposite the first side, and a printed circuit board assembly (“PCBA”) reception unit configured to receive a PCBA unit of an electronic device, wherein the PCBA unit comprises multiple light emitting diode (“LED”) units which emit multiple light emitting diode (“LED”) signals. The shroud can also include a plurality of ribs located on the body and configured to contact a cover for the electronic device, wherein the plurality of ribs are configured to substantially isolate each of the multiple LED signals, and wherein the body and the plurality of ribs comprise a resilient material.

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 shroud including a body comprising a first side, a second side opposite the first side, and a printed circuit board assembly (“PCBA”) reception unit configured to receive a PCBA unit of an electronic device, wherein the PCBA unit comprises multiple light emitting diode (“LED”) units which emit multiple light emitting diode (“LED”) signals. The shroud can also include a plurality of ribs located on the body and configured to contact a cover for the electronic device, wherein the plurality of ribs are configured to substantially isolate each of the multiple LED signals, and wherein the body and the plurality of ribs comprise a resilient material.

Abstract: A shroud including a body comprising a first side, a second side opposite the first side, and a printed circuit board assembly (“PCBA”) reception unit configured to receive a PCBA unit of an electronic device, wherein the PCBA unit comprises multiple light emitting diode (“LED”) units which emit multiple light emitting diode (“LED”) signals. The shroud can also include a plurality of ribs located on the body and configured to contact a cover for the electronic device, wherein the plurality of ribs are configured to substantially isolate each of the multiple LED signals, and wherein the body and the plurality of ribs comprise a resilient material.

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 mounting system can be used in a storage device or other electrical device to mount a component, such as a drive, while also providing at least some shock absorption. The mounting system can include a deflection arm, a protrusion and a hole. The protrusion and hole can be configured to engage one another. One of either the hole or the protrusion can be on the deflection arm and the other can be on the component being mounted. The mounting system can also include a locking tab configured to move to a position behind the deflection arm. The locking tab can decrease the amount of deflection that can be experienced by the deflection arm to prevent the component from becoming prematurely dislodged from the mounting system.

Abstract: A fan plate system can include a fan plate and may or may not include the fan. The fan plate can include one or more surfaces. The fan plate can also include a grill configured to allow air to flow into or from a fan through the grill. The one or more surfaces can be configured to connect to a first end of an outer housing of the fan. The one or more surfaces can also provide a gap between the first end of the fan outer housing and the grill when the fan outer housing is connected to the fan plate. In some embodiments, an electronic device can include a fan plate system.

Abstract: A device includes a first enclosure portion; a second enclosure portion; and a mechanical interface between the first enclosure portion and the second enclosure portion. The mechanical interface may be configured to couple the first enclosure portion to the second enclosure portion to thereby define a housing interior volume. The mechanical interface may be further configured to enable ventilation from the housing interior volume to an exterior of the device.

Abstract: A mounting system can be used in a storage device or other electrical device to mount a component, such as a drive, while also providing at least some shock absorption. The mounting system can include a deflection arm, a protrusion and a hole. The protrusion and hole can be configured to engage one another. One of either the hole or the protrusion can be on the deflection arm and the other can be on the component being mounted. The mounting system can also include a locking tab configured to move to a position behind the deflection arm. The locking tab can decrease the amount of deflection that can be experienced by the deflection arm to prevent the component from becoming prematurely dislodged from the mounting system.

Abstract: An electromagnetic shield for a storage device comprising a printed circuit board (PCBA) defining a plated through hole defining a generally cylindrical plated surface. The electromagnetic shield may comprise a top surface and sides oriented generally perpendicular to the top surface. One or more of the sides comprise a press-fit connector configured for removable insertion in the plated through hole. The press-fit connector may comprise at least one resilient member defining a longitudinal axis and configured to resiliently bow out in a direction generally perpendicular to the longitudinal axis during insertion and press against the plated surface of the through hole to displace plating material formed thereon to form a gas-tight seal between the at least one resilient member and the plated surface.

Abstract: A fan plate system can include a fan plate and may or may not include the fan. The fan plate can include one or more surfaces. The fan plate can also include a grill configured to allow air to flow into or from a fan through the grill. The one or more surfaces can be configured to connect to a first end of an outer housing of the fan. The one or more surfaces can also provide a gap between the first end of the fan outer housing and the grill when the fan outer housing is connected to the fan plate. In some embodiments, an electronic device can include a fan plate system.

Abstract: A novel information storage device has a disk drive, a disk drive support structure adapted to maintain the disk drive base in a substantially vertical position, and an electrically conductive shield attached to the disk drive base. The electrically conductive shield is disposed adjacent and overlying the disk drive printed circuit board. The electrically conductive shield includes a fan mounting surface having a fan duct opening disposed adjacent an upper end of the electrically conductive shield, and a lower air inlet opening disposed adjacent a lower end of the electrically conductive shield. The information storage device includes no fan and no fan is attached to the fan mounting surface. The electrically conductive shield forms a continuous internal air passageway from the lower air inlet opening to the fan duct opening.

Abstract: A novel information storage device is disclosed and claimed. The information storage device includes a disk drive, a disk drive printed circuit board, and a first conductive shield over the disk drive printed circuit board and electrically coupled to the disk drive. The information storage device also includes a bridge controller printed circuit board and a second conductive shield over and electrically coupled to the bridge controller printed circuit board. The first and second conductive shields are in direct contact with each other. A disk drive interface connector electrically couples the bridge controller printed circuit board with the disk drive printed circuit board. A third conductive shield is attached to the disk drive interface connector and is in direct contact with both the first and second conductive shields.

Abstract: A novel information storage device is disclosed and claimed. The information storage device includes a disk drive, a disk drive printed circuit board, and a first conductive shield over the disk drive printed circuit board and electrically coupled to the disk drive. The information storage device also includes a bridge controller printed circuit board and a second conductive shield over and electrically coupled to the bridge controller printed circuit board. The first and second conductive shields are in direct contact with each other. A disk drive interface connector electrically couples the bridge controller printed circuit board with the disk drive printed circuit board. A third conductive shield is attached to the disk drive interface connector and is in direct contact with both the first and second conductive shields.