2143results about "Carrier constructional parts disposition" patented technology

A storage peripheral, such as disk drive, having a robust PCB connector configured in accordance with a SATA standard. The disk drive has a disk, a disk controller system, and a PCB for mounting the disk controller system, and a housing attached to the PCB. A first electrical contact arrangement in accordance with a SATA standard is connected to the PCB and is supported by a first blade connector. Both the first blade connector and the first electrical contact arrangement are enclosed by the housing. The housing further defines a cable connector receiving area around the first blade connector for the receipt of a cable connector. A pair of laterally-opposed guide arm receiving cavities are integrally formed with the housing and are disposed outside of the cable connector receiving area. The guide arm receiving cavities are adapted for the receipt of guide arms from a mating cable connector.

A data storage assembly having multiple disk drives disposed on a replaceable module. Multiple modules are connected to a single chassis having a back plane with a plurality of connectors, each of which are adapted to receive a connector of one of the modules.

A disk array apparatus including a rack-shaped basic frame, and a plurality of disk boxes that can be inserted into and pulled out of the basic frame depth-wise. Each disk box has: disk drive connectors for connecting a plurality of disk drives arranged in a matrix on a platter substrate, which is the bottom face of the disk box, roughly parallel to the depth direction of the basic frame; and a cooling module for cooling the disk drives. The disk box is a hermetically sealed structure.

A novel information storage device is disclosed and claimed. The information storage device includes a disk drive having a disk drive top surface, a disk drive bottom surface, a disk drive periphery, and a disk drive printed circuit board. The disk drive defines a Z direction that is normal to the disk drive top surface. The disk drive defines a disk drive height measured in the Z direction from the disk drive bottom surface to the disk drive top surface. The information storage device includes a first conductive shield over the disk drive. The first conductive shield includes a peripheral capacitive flange that at least partially overlaps the disk drive periphery. The peripheral capacitive flange is separated from the disk drive periphery in a direction normal to the Z direction by a clearance. The overlap in the Z-direction is at least 5 times the clearance.

The present invention proposes an extracting and positioning structure for a hard disk drive suitable to an industrial computer. In the present invention, two side frame boards to fix at least a hard disk drive are installed on a frame of a computer. Latticed partitioning plates are installed on the frame boards. The present invention has at least an extractable case with fixing bars installed at two sides thereof to fix a hard disk drive therein. A U-shaped plate is installed at each side of the front half section of the extractable case. Pivotal holes are respectively disposed at the top and bottom surfaces of the U-shape plate to pivotally connect a spindle protruding out of the top and bottom surfaces of a pivotal retaining element. A fixing shaft protruding out of the top and bottom surfaces at the other end of the pivotal retaining element. A slide lever is transversely arranged in the U-shaped plate at the front end of the extractable case. Transverse grooves extend from the side end surfaces at the two ends of the slide lever, respectively. Slide grooves are disposed in the transverse grooves to pivotally connect the fixing shaft to push the slide lever backwards. The other end of the pivotal retaining element will thus be pushed out of a groove hole at the side surface of the U-shaped plate and a retaining groove at the other end of the pivotal retaining element will be secured on the side frame boards. The extractable case of the hard disk drive can be extracted out by pulling the slide lever forwards.

A disk drive is disclosed comprising an interface for receiving a supply voltage from a host computer and control circuitry for controlling at least one operation of the disk drive. The supply voltage is applied to the windings of a multi-phase spindle motor in a commutation sequence during a normal operating mode, and a secondary voltage supplied by a center tap of the windings is used to power the control circuitry during the normal operating mode.

A disk drive is usable in a chassis having first and second guide channels mounted on side surfaces of the chassis. The disk drive includes a head disk assembly that includes first and second side walls. The disk drive further includes first and second side rails and a securing system for securing the side rails to the side walls. The first and second side rails engage the first and second guide channels, respectively, for supporting the disk drive within the chassis. The securing system includes an engagement mechanism and a double-sided adhesive resilient mechanism. The engagement mechanism projects between the first and second side rails and the first and second side walls, respectively, of the head disk assembly. The double-sided adhesive resilient mechanism is adhesively attached between the first side rail and the first side wall and between the second side rail and the second side wall for mounting the first and second side rails to the first and second side walls, respectively, of the head disk assembly. The securing system provides for relative movement between the side rails and the side walls to accommodate the side rails engaging the guide channels in the chassis. In one embodiment, the relative movement is a damped relative movement.

An memory device (HDD) storage system (10) has at least one storing location (16) in which an memory device (18) is received while the memory device is not supplied with an electric power, at least one docking location (22) where the memory device is supplied with the electric power so that data can be stored in the memory device and retrieved from the memory device, and a transport device (30) for transporting the memory device between the shelf (16) and the docking location (22). Alternatively, a switching controller (110) connects a system controller (26) and also a power source (118) to an immovably secured memory device (18).

A docking adapter capable of cooling a memory storage device such as a hard disk drive includes a carrier and a rack. The carrier has a face with a vent, a backplane, a first lateral side and second lateral side extending perpendicularly from the face to the backplane. At least one lateral side of the carrier has a periphery defining an opening. The rack has a first lateral rail and a second lateral rail configured for receiving the carrier. The carrier includes a fan mounted on the lateral rail of the rack to blow air through the opening of the carrier. In an alternate embodiment of the invention, the fan is mounted on the carrier and the rack has a lateral opening. In each case, air is vented directly from the carrier to cool the hard disk drive.

A data storage device includes a housing in which is mounted a data storage unit, such as a hard disk drive. Pads serve as shock mounts at the corners of the data storage unit and separate the data storage unit and the housing. A flex circuit electrically couples the data storage unit and a connector at the front of the device. The flex circuit has, e.g., an “N” shape configuration, which advantageously provides flexibility in many directions. The data storage device may convert the number of pin connections from the data storage unit to a different number of pin connections. A docking module that receives the portable data storage device may also convert the number of pin connections from the data storage device to a different number of pin connections used by a host system. The docking module includes a slide for receiving and ejecting the portable data storage device.

A peripheral computer enclosure includes a casing, a plurality of slots, a plurality of canisters being disposed in the slots, a plurality of storage devices, a plurality of canisters, a back plane, a power supply, a blower, a controller card and a personality board. The casing has an open front and a back. The slots are disposed inside the casing. The back plane is disposed in the casing. The power supply is disposed in the casing. The blower is disposed in the casing. Each storage device is disposed in one of the canisters. The back plane interconnects the storage devices. The personality board is connected to the back plane. The controller card is connected to the back plane.

A modular data device assembly includes a chassis that has an open front and a back. The chassis also has exterior dimensions that correspond to the dimensions of an industry standard drive bay. The chassis further has a plurality of slots that are disposed inside the chassis. The modular data device also includes a plurality of disk data storage devices, a backplane, and a connector. Each disk data storage device is disposed in one of the plurality of slots. The backplane is disposed in the back of the chassis. The backplane has a plurality of connectors which are mechanically coupled thereto and each of which is connected to one of the disk data storage devices. The power source connector is mechanically and electrically coupled to the backplane.

A mounting apparatus includes a bracket (20), a slidable member (40), a retention member (50), and a pair of shock absorbers (80). The bracket is for receiving a storage device (10) therein, the bracket including a pair of opposite first and second sidewalls (24, 26), and a pair of through holes (246) is defined in the first sidewall. The slidable member is movably attached to the first sidewall of the bracket. The retention member is spring-loaded, and is movable relative to the slidable member and the first sidewall respectively in different directions. A pair of latches (54) is formed on the retention member, the latches being capable of being extended through the through holes respectively for engaging the storage device. The shock absorber is arranged to an internal surface of the second sidewall for engaging the storage device.

A mounting apparatus for securing a data storage device (10) defining a number of fixing apertures (101) includes a bracket assembly (20), and a number of resilient gaskets (30). The bracket assembly comprises a first bracket (210), and a second bracket (220). The first bracket comprises a bottom panel (211), and a side panel (212). The second bracket includes a vertical plate (222) secured to the bottom panel of the first bracket. A number of positioning strips (204) some with a tab (206) extend perpendicularly from the bracket assembly to position the resilient gaskets respectively. The vertical plate is resiliently and outwardly moved to sandwich the data storage device in the bracket assembly. The data storage device is secured with the tabs engaging with the fixing apertures thereof.

A disk array apparatus includes an enclosure having an opening at its front face, at least one module configured to be mounted in the enclosure and at least one securing mechanism configured to secure the at least one module to the enclosure. The module includes a frame member and a lever member that is movable between a first position received by the frame member in which it serves as a cover of the opening and a second position in which it serves as a grip part for pulling the module out of the enclosure.

A disk drive test apparatus has a plurality of bays each for receiving a respective disk drive to be tested. A plurality of card slots are provided each for receiving a test card via which a disk drive can be tested. Each of the test cards is either an environment test card or an interface test card. The card slots and the test cards are arranged such that each card slot (6) can selectively receive an environment test card or an interface test card. Other arrangements for disk drive test apparatus or disk drive mounting apparatus are disclosed.

An energy dissipative element (24) protects hard disk drives (22, 72, 92) from shocks and vibrations. A closed elastic envelope (48) houses a body of open cell foam (54), a volume of viscous liquid (56), and a compressible gas (64). Under compression or expansion of the foam (54), viscous liquid (56) flows through cell orifices and thereby dissipates energy resulting from external force applied against the elastic wall (48). The energy dissipative elements (24) are applied between a disk drive housing (22) and an outer case (26) to create a ruggedized portable disk drive module (20).