Abstract: A rear board of a blade server, a blade server and a subrack are provided. The blade server includes a front board and a back board, the rear board includes a standard ATCA interface, and the rear board is connected to the front board by the standard ATCA interface. The blade server also includes a connector configured to connect hard disks which is set on the rear board, and a portion of the rear board on which the connector is set is extended outward so as to accommodate at least two hard disks, and the at least two hard disks are connected to the connector. The blade server increases the ability of the heat dissipation ability of the front board, and the rear board supports data backup between the two hard disks and hot plug.

Abstract: An attachment unit for an information storage device includes a casing that houses the information storage device and a fixed base on which the casing is detachably mounted. The casing includes a casing body, a pair of rotation supporting shaft portions, a pair of first engagement portions, and a latch portion. The fixed base includes a substantially L-shaped groove, a pair of second engagement portions, and a latch fitting portion. In a state where the casing is mounted on the fixed base, (i) the first engagement portions are in partial contact with the second engagement portions in the first direction, (ii) the casing body is sandwiched in a second direction intersecting the first direction, and (iii) the rotation supporting shaft portions and the latch portion are in partial contact with the grooves and the latch fitting portion, respectively, in a third direction intersecting the first direction and the second direction.

Abstract: A fixing mechanism for fixing a storage device to an electronic device. The electronic device includes a bracket. The fixing mechanism includes two pairs of latching members extending upward from the bracket, a limiting member having a pair of resilient limiting portions, and two pairs of fixing members fixing the limiting member to the storage device. The two pairs of fixing members engage the corresponding latching members. The pair of the resilient limiting portions resists the corresponding latching members to secure the two pairs of the fixing members. The storage device is detached from the bracket depending on the resilient deformation of the resilient limiting portions.

Abstract: A data storage assembly includes a bracket, a data storage device, a driving member and a locking member. The bracket includes a sidewall. The data storage device is moveably received in the bracket along a first direction parallel to the sidewall. The driving member is moveable along the first direction and includes a driving portion. The locking member includes a resisting portion corresponding to the driving portion of the driving member. The driving portion is capable of urging the resisting portion to move the locking member along a second direction perpendicular to the first direction. The storage device is secured in the bracket in a locking position along a first direction by the locking member.

Abstract: A fixing mechanism fixing a storage device to a bracket includes a fastening member. The fastening member is fixed to the storage device, and has a first connecting hook and a second connecting hook. A first latching portion and a second latching portion are formed on the bracket. The first latching portion defines an engaging groove. The first connecting hook is elastic and engaged in the engaging groove of the first latching portion. The second connecting hook engages the second latching portion.

Abstract: The present invention provides an electronic device having a ejector for an external device. The ejector includes a body, a first elastic member, a plate, a block, a rotating unit, and a second elastic member. The ejector of the present invention is able to eject the external device engaged therewith. Thus, the apparatus can be applied to an electronic device required for detaching the external device.

Abstract: An apparatus for mounting a device having electrical terminals includes a bracket and a tray. The bracket has two first protruding portions and two pivoting mechanisms adapted to be connected to a base. The tray is positioned between the bracket and the base and adapted to carry the device having electrical terminals. The tray has a bottom surface and two first protrusions. When the bracket is pivotally connected to the base and when the bracket is rotated so that the first protruding portions slide on the first protrusions, the first protrusions are pushed to move toward the pivoting mechanisms and drive the bottom surface to move.

Abstract: A disk drive test slot includes a housing that defines a test compartment for receiving and supporting a disk drive transporter carrying a disk drive for testing. The housing also defines an open end that provides access to the test compartment for insertion and removal of disk drive transporter carrying a disk drive for testing. The disk drive test slot also includes a mounting plate connected to the housing. One or more isolators are disposed between the housing and the mounting plate. The one or more isolators are operable to inhibit transmission of vibrational energy between the housing and the mounting plate.

Abstract: A computer chassis has a body, a connector, an opening, a plug-in slot and an eSATA connector. The body has a panel and a receiving space. The connector is attached to the body and located in the receiving space. The opening is formed on the panel and communicates with the receiving space. The plug-in slot is formed on the panel beside the opening. The eSATA connector has a receiving end mounted to the plug-in slot.

Abstract: A fixing structure for mounting a data storage device in a computer body is provided. The data storage device has two opposite side surfaces. The fixing structure includes two mounting brackets and at least one pull strap. Each mounting bracket is disposed to a corresponding one of the side surfaces. The data storage device is disposed in the computer body via the mounting brackets. The pull strap is connected to at least one of the mounting brackets. The pull strap is extendable to an outside of the computer body when the data storage device is disposed in the compute body.

Abstract: A hard disk drive holder includes main body, spindle slidably mounted to the main body, handle rotatably connected to the main body via the spindle, and hook slidably mounted to the main body. The handle includes claw and locking tongue. The handle rotates between closed and opened positions. When the handle is at closed position, if the spindle slides from a first position to a second position, the locking tongue gradually extends out of the main body. When the handle rotates to closed position, if the spindle isn't at first position, the claw engages with a blocking piece of the hook and compels the hook to slide from a third position towards a fourth position until the claw goes over the blocking piece. A first spring biases the spindle to second position. A second spring biases the handle to opened position. A third spring biases the hook to third position.

Abstract: The present invention relates to a flash memory card that is a structure using a rigid flexible board (RFB) to connect a flash memory card unit and a universal serial bus (USB) unit. A communication interface in compliance with the specification of the flash memory card is disposed at one end of the flash memory card, and a USB communication interface is disposed at another end, and a rigid flexible board is provided for connecting the electric signals between the two communication interfaces and the bending characteristic is used to maintain the height difference between the planes of the two communication interface, so that the flash memory card can concurrently have the USB communication interface and enhance the applicability of the flash memory card.

Abstract: In a hard disk drive (HDD) vibration control device disposed on a HDD bracket including a HDD, the HDD vibration control device includes a main body portion, a rear clip, a front clip, a left rail spring, and a right rail spring. The main body portion includes a front bar, a rear bar, left bar, and right bar. The rear clip extends down from the rear bar clamped onto the HDD. The front clip extends down from the front bar clamped onto the HDD. The left rail spring includes a first flat portion extending outwards from the left bar and including a first spring portion extending from the first flat portion. The right rail spring includes a second flat portion extending outwards from the right bar and including a second spring portion extending from the second flat portion. The first and second flat portions of the left rail spring the right rail spring rest, respectively, on top surfaces of a left side bracket and right side bracket of the HDD bracket.

Abstract: A redundant array of independent disks (RAID) module converted from a 2.5-inch specification to a 3.5-inch specification is characterized in that two 2.5-inch SATA hard disks are installed within a standard 3.5-inch SATA RAID module, so as to form a RAID having two hard disks or two stand-alone SATA hard disks for mounting the RAID module including two 2.5-inch hard disks within a 3.5-inch disk drive slot of a common computer housing, or any other devices that can receive a 3.5-inch disk drive.

Abstract: Disclosed herein is a portable electronic device component eject mechanism. The portable electronic device component eject mechanism includes a first member and a second member. The first member is configured to contact a first portable electronic device component. The second member is movably connected to the first member. The second member is configured to release a second portable electronic device component when the second member is moved in a first direction. The first member is configured to eject the first component when the second member is moved in a second direction. The first component and the second component comprise a removable electronic module and a battery.

Abstract: An optical disk drive (ODD) disposed in the base of a notebook computer is provided. The front end of the tray of the ODD has a panel having a body with a side edge, a guide member and a fastening member. The guide member is connected to the body, and it can move relatively to the body. The guide member has a guide channel having a first end and a second end. The fastening member has a sheet structure and a guide pillar inserted into the guide channel protruding from the sheet structure. When the guide member is moved to allow the guide pillar to move from the second end to the first end along the guide channel, the sheet structure of the fastening member is driven to protrude from the side edge to be fastened to the base of the notebook computer.

Abstract: The present invention provides an electronic device having a ejector for an external device. The ejector includes a body, a first elastic member, a plate, a block, a rotating unit, and a second elastic member. The ejector of the present invention is able to eject the external device engaged therewith. Thus, the apparatus can be applied to an electronic device required for detaching the external device.

Abstract: An exemplary mounting apparatus for an electronic device includes a base, a cover covering the base, and an ejection mechanism. The base includes a first receptacle portion for receiving the electronic device, and a second receptacle portion for receiving the ejection mechanism. The ejection mechanism includes a retaining member having a resilient tab slantingly extending therefrom, a button member, and a push member. The push member is slidably attached in the second receptacle portion and includes a push block movably abutting the electronic device, and a protrusion detachably engaging with the resilient tab. The button is moved to disengage the push member from the retaining member so that the push member pushes the electronic device out of the base.

Abstract: A component positioning and securing bracket assembly includes a front rail, a rear rail, and a bottom rail to define a front, a rear, and a bottom boundary of the component positioning and securing bracket assembly. The front rail, the rear rail, and the bottom rail define a structure into which is received the component in a first direction of movement, and a lever provides leveraged motion in a second direction of movement to connect a port of the component to a component connector and to secure the component in the component positioning and securing bracket assembly. The component positioning and securing bracket assembly is in an array of a plurality of components, in which any one component can be installed or removed without installing or removing any other component in the array.

Abstract: An assembly structure includes a first body, a second body and a third body. The second body detachably disposed on the first body includes a first positioning portion and a first acting portion. The third body coupled between the first and second bodies includes a second positioning portion and a second acting portion. When the third body is switched to a first predetermined position, the second positioning portion of the third body is pressed against the first positioning portion of the second body along a reference direction, thereby positioning the second body at a first reference position. When the third body is switched from the first predetermined position to a second predetermined position, the second acting portion of the second body is pressed against the first acting portion of the second body, thereby moving the second body from the first reference position to a second reference position.

Abstract: A rugged hard disk drive storage assembly is disclosed. The rugged hard disk drive storage assembly includes an enclosure capable of containing multiple hard disk drives. The enclosure also contains multiple shock and vibration absorbers that are configured to elastically support all the hard disk drives contained within the enclosure. The multiple shock absorbers protect the delicate electronic hard disk drives and their sensitive information from shock and vibration damage, even when the enclosure has been removed from the drive container, and is being carried away by personal in a harsh combat environment. In addition, the enclosure is hermetically sealed such that the hard disk drives are isolated from external environment.

Abstract: Disclosed is a method and apparatus for a combination storage extracting and biasing system. The method and apparatus comprise an enclosure having a first surface and a second surface inside the enclosure. The method and apparatus also comprise at least one random access memory device adapted to be disposed substantially in the enclosure having a third surface and a fourth surface. The device comprises at least one device contact located at the third surface and adapted to be electrically linked with at least one corresponding enclosure contact located at the first surface. The at least one spring member attached to the device and interposed between the second surface and the fourth surface wherein the spring member is adapted for use as a handle to remove the device from the enclosure and to provide pressure on the contacts.

Abstract: An exemplary ejection apparatus is provided for ejecting a data storage device out of a chassis. The ejection apparatus includes a pair of driving members, a connecting member, and an operating member. The operating member is slidably attached to the chassis and the connecting member. The connecting member includes a pair of second steps. The driving members are pivotably crossed together and attached to the chassis. Each of the driving members includes a driving portion with a slanting wall formed at one free end thereof, and a first step formed at the other end thereof slidably engaging with the corresponding second step. The operating member moves the connecting member to urge a scissoring movement of the driving member, with the first steps slidably engaging with the second steps. The driving portions push the data storage device out of the chassis.

Abstract: A host with a removable device includes a main body, a removable device, and a fixing and withdrawing mechanism. Each element of the fixing and withdrawing mechanism is connected with each other by using a plurality of springs. When the removable device is placed into the host, a slide rod is pushed and a link rod is linked, such that the removable device is fastened in the host by using the link rod. When a user pulls an actuating rod, the link rod is guided to release the fastening state, and the removable device is ejected by using the slide rod under the forces of the springs.

Abstract: Embodiments of the present invention are directed to a mounting system. The mounting system may include a chassis comprising a base and a plurality of guide ramps and a plurality of mounting spools arranged in pairs extending from a first side of the base, wherein the pairs are unaligned with respect to one another relative to a direction along at least one length of the base. Further, the mounting system may include a backing plate coupled to the chassis via engagement of the pairs with a plurality of receptacles in the backing plate.

Abstract: A mounting apparatus includes a first cage (10) and a second cage (20). The first cage includes a plurality of damping members (30). Each of the damping members has a rotatable portion (32). The rotatable portions are rotatable relative to the first cage about rotational axes thereof. The second cage is capable of sliding into the first cage in a sliding direction, and contacting with the rotatable portions of the damping members. The rotational axes of the rotatable portions of the damping members are generally perpendicular to the sliding direction of the second cage.

Abstract: A digital video recorder with an ejector frame assembly has a body, at least one hard disk, a front panel and an ejector frame. The body has a case and a cover. The case has a top surface, a bottom inner surface and an opening. The opening is formed through the top surface of the case. The cover selectively covers the opening. The ejector frame mounts the hard disk, is raiseably mounted on the bottom inner surface and is disposed facing to the opening. A person may slide the cover and lift the ejector frame to remove the hard disk easily.

Abstract: A drive carrier for computer systems. At least some of the illustrative embodiments are drive carriers comprising a first suspension member that defines a first side of the drive carrier, a second suspension member that defines a second side of the drive carrier (the second suspension member configured to be manually flexed resiliently away from the drive carrier during installation of a disk drive), a handle having a hinge point coupled to the suspension members (the hinge point defining an axis of rotation for the handle, and the axis of rotation lies substantially parallel to a plane in which both suspension members reside), a first pin configured to couple to a mounting hole of the disk drive (and the first pin coupled to the first suspension member), and a second pin configured to couple to a mounting hole of the disk drive (and the second pin coupled to the second suspension member, wherein the first and second pins suspend the disk drive within the drive carrier between the suspension members).

Abstract: An apparatus for providing the visual indication of engagement of a drive received within a drive cage includes an indicator attached to a carrier mounted on a drive received within, a drive cage. The drive cage may be a redundant array of independent disks storage shelf and the drive may be a hard disc drive suitable for being received in the drive cage. Further, the indicator may be attached to at least one of the drive and the drive cage and provides visual indication of when the drive is properly seated in the drive cage. The indicator is at least one of a contrasting color, symbol, pattern, portrait and the like, to what it is attached to.

Abstract: A pushing assembly is provided for pushing a data storage device out of a computer enclosure. The pushing assembly includes a pair of receiving portions, a restricting portion, a pushing device, and a stopping member. The receiving portions and the restricting portion are arranged in the computer enclosure. The pushing device is assembled on the data storage device. The pushing device comprises a pair of pushing portions. The pushing portions press against the receiving portions respectively to push the pushing device moving. The pushing device drives the data storage device to slide a certain distance to facilitate the data storage device being taken out from the computer enclosure. The stopping member is arranged in the restricting portion to keep the pushing device at a locked state.

Abstract: An improved modular server handle mechanism. The handle mechanism provides a translating handle mechanism that does not visibly function like a cam lever, and provides a carry handle solution when transporting the blade. In operation, to remove a blade server, a user pushes a button that releases the handle from a locked position. The handle is then pulled, and the cam levers undock the blade module from the chassis. When the cam motion is complete, the handle “locks out” in an open position to provide a carry handle.

Abstract: A storage device fixture includes first and second storage device bays for receiving first and second storage devices, the first and second storage device bays having first and second entrances, respectively. First and second ejector assemblies are at least partially linearly moveable within the first and second storage device bays, respectively, and first and second rotatable linkages also form part of the storage device fixture, the first rotatable linkage rotatable in a first rotational direction in engagement with the first ejector assembly, and the second rotatable linkage rotatable in a second rotational direction in engagement with the second ejector assembly. Finally, an actuator may move in engagement with at least one of the first and second rotatable linkages, causing the first and second rotatable linkages to rotate substantially simultaneously in the first and second rotational directions, respectively.

Abstract: A hard disk drive bracket includes a bezel, a lever arm attached to the bezel rotatably between a closed position against the bezel and an open position apart from the bezel, wherein a hard disk drive is locked into the hard disk drive bracket when the lever arm is in the closed position, and a multifunction wireform, wherein the multifunction wireform latches the lever arm in the closed position and releases the lever arm into the open position. The hard disk drive bracket may include a release button, wherein the multifunction wireform releases the lever arm upon pressing of the release button. The multifunction wireform may hold and bias the release button.

Abstract: A flexible docking bay is disclosed. The flexible docking bay comprises a body having a cartridge-receiving portion defining a front region that defines an opening and a rear region that defines a rear bounding wall. A cartridge-encasing wall extends from the opening to the rear bounding wall. The flexible docking bay comprises a sled-receiving feature configured to engage a cartridge. The sled-receiving feature is movably coupled with an interior surface of the cartridge-encasing wall. If the cartridge has physical attributes that when fully inserted into the receiving portion of the flexible docking bay is not fixed by a holding mechanism that secures the sled-receiving feature in a first position, then the cartridge and the sled-receiving feature travel past the holding mechanism to a second position. Otherwise, the cartridge and the sled-receiving feature are held in the first position.