Abstract: A hard disk drive module includes a bracket, a hard disk drive received in the bracket, and a shielding member. A bar code is mounted on the hard disk drive. The bracket includes a main body defining an opening. The shielding member is made of electromagnetic interference shielding material and received in the opening. The shielding member defines a through slot through which the bar code is exposed.

Abstract: A high-density storage appliance comprises a printed circuit board (PCB) to which a plurality of solid state drives (SSDs) are coupled. Each of the SSDs has a connector positioned along a width of the SSD, which is shorter than a height of the SSD. Further, each SSD is coupled to the PCB such that an aspect ratio of a height of the SSD above the PCB to a width of the SSD in parallel to the PCB is greater than 1.0. The SSDs may be arranged in a plurality of rows and a plurality of columns to simplify installation and removal of the SSDs and to facilitate airflow about the SSDs for cooling.

Abstract: A mounting device for fixing an optical disk drive (ODD) includes a latch and a rack including a bottom wall. Two pins extend out from opposite sides of the ODD. A first plate and a second plate extend up from the bottom wall to sandwich the ODD. a tab extends inward from a back end of one of the first and second plates to block a back end of the ODD. An opening and a slot below and communicating with the opening are defined in each of the first and second plates. The latch is pivotally mounted to the first plate adjacent to the slot. The pins of the ODD extend into the slots through the corresponding openings. One of the pins is blocked by the latch.

Abstract: A push-push eject disk drive chassis user-swappably accepts a disk drive, without tools or a caddy and is sufficiently narrow, such that two such chassis may be disposed side-by-side within a housing having a standard disk drive form factor and accept disk drives having smaller form factors. A data storage system that conforms to a disk drive form factor and that can be installed into a disk drive bay of a user computer includes a plurality of such disk drive chassis user-swappably accepts a plurality of side-by-side disk drives, without tools or caddies. The data storage system may include electronics that manage storage space on any disk drives installed in the chassis and present the cumulative storage space (less space used for overhead and redundancy) as a single virtual disk drive to the user computer.

Abstract: A fastening device includes a bracket, two hook devices, and an operation member. The bracket includes two parallel clamping arms sandwiching an HDD, and a connection plate connected between the clamping arms. Each clamping arm defines a through slot. Each hook includes an end portion engaging in an inner side of the corresponding clamping arm, a locking portion received in the corresponding through slot, and a slanting connection portion connected between the end portion and the locking portion. Two locking poles extend from the locking portion to engage in locking holes defined in the HDD. The operation member is slidably connected to the connection plate. When the operation member is manipulated toward the connection plate, the connection plate abuts against the connection poles of the hook devices. The connection poles are deformed away from the HDD, to disengage the locking poles from the HDD.

Abstract: Cooling airflow through an information handling system is redirected at positions of a motherboard having an unpopulated processing component towards positions of the motherboard having processing components. For example, a shroud shaped as a nozzle couples to a heat sink connector of the motherboard to cover an unpopulated CPU socket. The shroud has a nozzle-shaped channel with an inlet accepting cooling airflow and an outlet exhausting the cooling airflow towards a processing component. For instance, the inlet is proximate a cooling fan and the outlet directs the airflow from the cooling fan towards a heat sink associated with RAM populated on the motherboard.

Abstract: A fastening module for fastening a data storage device is provided. A fastening trough is formed at a lower surface of the data storage device. The fastening module includes a frame bracket, a fastening member, and a buckling member. The frame bracket is used for carrying the data storage device. The frame bracket includes a lower frame and two side frames. The side frames are connected to two sides of the lower frame. The lower frame includes a clamping hole. The fastening member is disposed at the clamping hole and inserted into a fastening trough, so as to prevent the data storage device from moving. The buckling member is movably disposed at the side frames to buckle an upper surface of the data storage device.

Abstract: A mounting apparatus assembly includes a data storage bracket, a computer enclosure, a mounting member fixed on the data storage bracket and a guiding rail fixed on the computer enclosure. A mounting portion is installed on the mounting member. A plurality of mounting slots is located on the guiding rail. When the bracket rotates relative to the computer enclosure, the mounting portion moves along the guiding rail and engages with the plurality of mounting slots, and the data storage bracket is installed at a required position on the computer enclosure.

Abstract: An electronic device includes a motherboard, a plurality of heating modules arranged on the motherboard, a first electronic module arranged on a front side of the motherboard along a longitudinal direction, a second electronic module stacked above the first electronic module, a wind scooper and a fan module being located on a rear side of the motherboard along the transverse direction and facing the heating modules and the second electronic module. The wind scooper covers the heating modules, and has a partition board to form a lower-layer airflow passage and an upper-layer airflow passage. The wind scooper guides a first airflow from the fan module to flow through the heating modules along the lower-layer airflow passage, and guides a second airflow from the fan module to flow to the second electronic module through the upper-layer airflow passage, without flowing through the heating modules.

Abstract: An electronic device includes a motherboard, a power module, a hard disk module, a fan module, a heating module and a power-supply wind scooper. The power module is arranged on a front side of the motherboard along a longitudinal direction, and has a power-supply opening. The hard disk module is stacked on the module. The fan module is located on a rear side of the motherboard along a transverse direction, and further provides airflows towards the power-supply opening of the power module. The heating module is arranged on the motherboard, and further located between the fan module and the power module. The power-supply wind scooper shields a part of the power-supply opening, so as to respectively guide parts of the airflow into the power module and the heating module.

Abstract: An electronic device includes a chassis and a data storage assembly slidably received in the chassis. The data storage assembly includes a bracket and a plurality of hard disk drives uprightly inserted in the bracket, which can arrange more hard disk drives in the bracket effectively.

Abstract: There is disclosed herein a clamp assembly and a method for clamping a disk drive to a substrate. The disk drive has a disk drive connector. The clamp assembly includes a resilient biasing element mounted to the substrate. The clamp assembly also has a substrate connector. When a disk drive connector is connected to the substrate connector, the resilient biasing element biases the disk drive and the substrate connector together.

Abstract: An optical drive includes a drive chassis and a front panel. The drive chassis includes a single sleeve unit having a top panel, a first side panel, a second side panel, a bottom panel, and a back panel. The single sleeve unit is a single piece of material such that the top panel, the first side panel, the second side panel, the bottom panel, and the back panel are continuous. Additionally, the single piece of material is bent at an intersection of each of the top, first side, second side, bottom, and back panels. The front panel is snap fitted onto the top panel, the first side panel, the second side panel, and the bottom panel of the single sleeve unit of the drive chassis.

Abstract: The present invention is directed to an apparatus for reducing and constraining EMI (electronic magnetic radiation) emissions without affecting the internals of data storage system components. A baffle is attached to the exterior of the housing of a data storage system component by baffle mounts. The baffle is operable between a closed position, where the baffle blocks EMI emitted by connectors on the data storage system component, and an open position, where the connectors are not blocked allowing for servicing and cable management. The baffle may comprise an EMI absorbing material and be tuned to meet specific EMI requirements. The baffle mounts offsets the baffle from the data storage system component and the baffle includes a number of holes to allow airflow. The adjustable EMI baffling apparatus does not interfere with other mounted components while the data storage system component is mounted in a cabinet.

Abstract: An electronic apparatus includes a first unit having a first power switch for turning on/off a data processing part, a hard disk drive device, a power supply part and the electronic apparatus, a second unit that is separated from the first unit, is supplied with the power from the power supply part in the first unit, and has a drive device of a detachable recording media and a second power switch having the same function as that of the first power switch, and a cable for communicating data between the first unit and the second unit and supplying power from the power supply part of the first unit to the second unit.

Abstract: According to an example, a multi-function module for insertion into a slot of a networking chassis includes a front plane having an opening through which a plurality of ports are accessible, a switch carrier board comprising an ASIC that is to operate as an interface between the plurality of ports accessible through the front plane and a plurality of rear connectors, and a microprocessor system board positioned in spaced relation with respect to the switch carrier board, the microprocessor system board comprising a microprocessor, a chipset, and a memory. The ASIC is positioned on a side of the switch carrier board that faces the microprocessor board and the microprocessor is positioned on a side of the microprocessor system board that faces the switch carrier board.

Abstract: An electronic device includes a hard disk drive with a first and a second mounting poles and a mounting apparatus. The mounting apparatus includes a bracket and a first positioning member. The bracket includes a first side plate. A first latching slot is defined in the first side plate. The first latching slot includes an opening extending through a bottom side of the first side plate, a notch, and a guiding portion connected between the opening and the notch. The first positioning member is installed to the bracket and includes a resilient first engaging piece. The first mounting pole is inserted into the first latching slot from the opening, to abut the first engaging piece and deform the first engaging piece, until the first mounting pole is received in the notch. The first positioning member is moved, to allow the first engaging piece to abut the first mounting pole.

Abstract: A card for use with a computer comprises two panels. One panel is connected to the other for movement about an axis to permit movement of the one between a closed position, wherein the panels are stacked, and an open position, wherein the panels extend away from one another. An apparatus can be coupled to said device and is coupled to the one panel such that the apparatus: moves with the one panel as same moves between the open and closed positions; and is movable relative to the one panel, in a direction perpendicular to the axis, between a retracted position, wherein the apparatus is disposed in stacked relation to the one panel, and an extended position, wherein the apparatus extends beyond the one panel. A mechanism causes the apparatus to move, upon movement of the one panel between the open and closed position, between the extended and retracted position.

Abstract: A storage device assembly fixture comprises a platform configured to receive an external cover for a storage device, the external cover having a first face and a second face generally parallel to and opposing the first face, the first face coupled to the second face at a back end of the external cover, the first face defining a first edge at a front end of the external cover opposite the back end, and the second face defining a second edge at the front end; a first finger configured to engage the first edge; a second finger configured to engage the second edge; and a pivot assembly coupled to the second finger, the pivot assembly rotatable about a pivot axis and configured to pivot the second finger away from the first finger.

Abstract: Storage apparatus configured to provide an external apparatus with logical storage area as data storage area, the storage apparatus having a physical storage medium configured to generate the logical storage area, and storage controller communicatively coupled to physical storage medium to control data input/output processing between the external apparatus and the logical storage area, wherein the storage controller includes circuit package including circuit board which implements predetermined function of storage controller and a circuit board case to accommodate the circuit board, plurality of cooling fan units that generate cooling air for cooling circuit component mounted on the circuit board of the circuit package, and a chassis having a structure for accommodating the circuit package and the cooling fan units, some of circuit packages are inserted to be accommodated in chassis from opening thereof and are arranged side by side across width direction of chassis.

Abstract: The present disclosure provides a mounting assembly, which includes a data storage device and a bracket receiving the data storage device. Two locking portions are located on opposite sides of the data storage device. The bracket includes a first side plate and the second side plate, each defining a locking hole. The locking holes of the first side plate and the second side plate receive the two locking portions to secure the data storage device in the bracket.

Abstract: A portable computer system is disclosed according to the invention. The portable computer system comprises: a multi-functional processing unit with power consumption of no more than approximately 10 watts consisting of a single chip having a plurality of processors thereon, wherein each processor is operable for at least one task selected from a group consisting of computing, graphic processing and audio processing; a mother board to which the multi-functional processing unit is connected; a memory unit connected to the motherboard and in communication with the multi-functional processing unit; and an I/O interface connected to the motherboard and in communication with the multi-functional processing unit, the portable computer system is configured to insert into a interface of a peripheral device to communicate between the portable computer system and the peripheral device.

Abstract: An electronic device is provided, which includes a bottom casing, an electronic module, at least a positioning part and an upper cover. The electronic module is disposed in the bottom casing. The positioning part is connected to the electronic module. The upper cover includes a cover body and a positioning portion. The cover body is assembled to the bottom casing. The positioning portion is connected to the cover body. A structural interference between the positioning portion and the positioning part makes the electronic module positioned. In addition, an assembling method of electronic module and a disassembling method of electronic module are also provided.

Abstract: Portable computer structures are provided. The portable computer structures may include hard drive mounting structures. The hard drive mounting structures may include elastomeric support members. Each elastomeric support member may have a relatively rigid inner portion. The inner portion may include a hole that receives a hard drive mounting pin. Each elastomeric support member may also have a relatively flexible outer portion. The relatively flexible outer portion may be mounted within an opening in a plastic support member. The rigid inner portion may have a square outline and may be mounted within a square opening in the flexible outer portion.

Abstract: A fixing mechanism for storage device includes a frame, and a detent component. One sidewall of the frame has a latch member. The detent component is movably disposed on the sidewall of the frame, and has a pressing component and an operating component. The operating component is disposed with at least one stop block. When the operating component is moved relative to the frame to a press position, the pressing component pushes the latch member to engage with the storage device, the stop block is embedded in the frame, and the detent component is held in the press position. Accordingly, the storage device may be fixed to the frame rapidly without using any screw, the operating procedure is dramatically simplified, and the space occupied by the fixing mechanism and the manufacturing cost are reduced.

Abstract: A an assembly unit for assembling a drawable device into a casing includes a fixing member disposed on a side wall of the drawable device and a latching member slidably disposed on the casing correspondingly to the fixing member. The fixing member has a fixing hole thereon. The casing has a first tongue portion corresponding to the latching member and a fixing protrusion protruding toward the interior of the casing; wherein the fixing protrusion engages with the fixing hole when the drawable device is assembled into the casing.

Abstract: System and methods for improving connections to an information handling system are disclosed. An enhanced serial attached small computer system interface for an information handling system includes a receptacle which is connectable to an information handling system and a connector which is connectable to the receptacle. The connector comprises a first set of signal pins positioned on a first planar surface of the connector and a second set of signal pins positioned on a second planar surface of the connector. The second planar surface is not co-planar with the first planar surface. The connector further includes a third set of signal pins positioned on a third planar surface of the connector and the third planar surface is not co-planar with the first planar surface and the second planar surface.

Abstract: A storage device transfer station is provided for transferring storage devices from a human operator to automated machinery for testing. The storage device transfer station includes a plurality of slots each capable of holding a storage device. The plurality of slots is arranged in at least one field, and the field is arranged between two parallel planes. Each slot has a first open end and a second open end, such that each open end is accessible for loading and unloading a storage device. The first open ends are accessible at a first plane of the two parallel planes and the second open ends are accessible at a second plane of the two parallel planes.

Abstract: A mounting device for a hard disk drive (HDD) includes a fixing plate and two fixing members. Two protrusions and a blocking piece adjacent to one of the protrusions protrude from the fixing plate. Each fixing member includes a sidewall, and a top wall and a bottom wall perpendicularly extending from opposite sides of the sidewall. The top walls are fastened to a bottom wall of the HDD. Each bottom wall defines an engaging hole. Each engaging hole includes a first hole and a second hole communicating with the first hole. A projection protrudes from the sidewall of one of the fixing members away from the corresponding bottom wall. The HDD is slid toward the blocking piece, to allow the protrusions to enter and engage in the corresponding second holes from the corresponding first holes. The projection is blocked by the blocking piece.

Abstract: A server comprises a frame, a middle plate fixed inside the frame, a vertical plate vertically erected on the middle plate and electrically connected to the middle plate, a mainframe detachably disposed inside the frame, a hard disk module and a power supply detachably disposed inside the frame. The vertical plate comprises a first electrical connector. The mainframe comprises a second electrical connector. The second electrical connector is electrically connected to the first electrical connector. The hard disk module can be detachably disposed inside the frame and electrically connected to the middle plate so that the hard disk module can transmit data to the mainframe via the middle plate and the vertical plate. The power supply is disposed below the mainframe and electrically connected to the middle plate so that the power supply can transmit electric current to the mainframe via the middle plate and the vertical plate.

Abstract: A storage server includes a cage, a midplane fixed on the cage, a fan module on midplane, at least one host, detachably disposed on the cage and electrically connected to the midplane, a plurality of HDD backplanes, detachably disposed on the cage and electrically connected to the midplane, and a plurality of data HDDs, detachably disposed on the cage and electrically connected to the HDD backplanes. The host can be detached from the cage along a first direction. The HDD backplanes can be detached from the cage along a second direction opposite to the first direction. The data HDDs and the host are respectively located at two opposite sides of the fan module, the data HDDs can be detached from the cage along a third direction intersected with the second direction and the first direction.

Abstract: A storage unit is provided with a plurality of sub storage units configured to include a plurality of hard disk drives, an enclosure, a printed wiring board, a power supply device, and a cable holder. The sub storage units each operate separately. The enclosure is provided in the array of the hard disk drives so that the distance can be shorter between the enclosure and each of the hard disk drives. With the provision of the cable holder, communications cables can be both brought closer to the printed wiring board. With such a configuration, the coupling point among the communications cables and the printed wiring board, and the enclosure can be favorably reduced. The resulting storage control apparatus can be mounted with a larger number of storage devices, thereby being able to maintain good signal quality.

Abstract: A data storage device assembly includes a data storage device and a bracket. The bracket includes a bottom frame, a locking portion and an installation portion. The locking portion includes a first limiting piece and a stopping tab, and the installation portion includes a second limiting piece, a pressing portion and a latch portion. The data storage device is positioned on the bottom frame and sandwiched between the first limiting piece and the second limiting piece. The latch portion is engaged with the stopping tab to abut the pressing portion with the data storage device, to be easily assembled in the bracket.

Abstract: A computer component mounting assembly includes a carrier to support a hard drive and a data connector. The carrier is configured to slidably receive the hard drive along a first axis. The data connector includes a first connector configured to mate to pins of the hard drive, a second connector configured to mate to a SATA data connector, and a flexible cable connecting the two. The first connector includes an alignment feature to engage a corresponding alignment feature on the hard drive. The first connector is coupled to the carrier and slidable in a plane perpendicular to the first axis, and the first connector is configured such that when carrier receives the hard drive and the alignment feature engages the corresponding alignment feature the first connector moves in the plane perpendicular to the first axis to provide alignment of the first connector to the pins of the hard drive.

Abstract: An assembly can include a base with a hinge axis, a hinge end, an opposing end, a latch surface disposed intermediate the hinge end and the opposing end, a latch with a prong and an actuation surface, and a button seat disposed intermediate the latch surface and the opposing end where the button seat includes a button stop; a spring; and a button configured for translation in the button seat where the button includes a retainer and a latch contacting surface extending outwardly away from a back side where, for an un-depressed orientation, the spring biases the retainer against the button stop to maintain a gap between the latch contacting surface and the actuation surface of the latch. Various other apparatuses, systems, methods, etc., are also disclosed.

Abstract: Examples of computing devices and assemblies for mounting computer components to an enclosure or other structure of the computing device are described. In some examples, the mounting assembly may include a compliant member having a plurality of corner portions configured to engage the corners of the component. The mounting assembly may also include a bracket configured to enclose at least a portion of the compliant member. The mounting bracket may be configured to mount the component at an angle relative to the enclosure or other structure, and may include one or more features adapted for improved cooling of the component mounted therein. The compliant member may include a plurality of ribs or other retaining elements for maintaining the component in a spaced apart position relative to the mounting bracket.

Abstract: A mounting adapter capable of reducing manufacturing cost includes: an HDD tray to which a hard disk drive is fixed; an HDD holder fixed to a housing and receiving the HDD tray inserted from a Y-axis direction; and a connector board so mounted to the holder as to be movable in a plane perpendicular to the Y-axis direction, and provided with a connector with which an HDD connector is connected. The suitable mounting adapter enables the HDD connector and the connector of the connector board to be engaged optimally even though the central axes of the HDD connector and the connector of the connector board are not aligned.

Abstract: A solid state disk includes a circuit board and a casing. The casing comprises a first cover and a second cover. The circuit board is provided in the first cover. Each side of the first cover is provided with a plurality of first combining portions. Each side of the second cover is provided with a plurality of second combining portions at positions corresponding to those of the first combining portions respectively. The second combining portions are buckled to the first combining portions respectively. Each first combining portion has an extension section extending from the first cover. The extension section of the first combining portion extends to be buckled to the second combining portion. Thus, the first cover and the second cover cannot be detached easily. When the casing is detached, the extension section will get broken, thereby preventing undesired detachment.

Abstract: A solid state disk includes a circuit board and a casing. The casing comprises a first cover and a second cover. The circuit board is provided in the first cover. Each side of the first cover is provided with a plurality of first combining portions. Each side of the second cover is provided with a plurality of second combining portions at positions corresponding to those of the first combining portions respectively. The second combining portions are buckled to the first combining portions respectively. Each first combining portion has an extension section extending from the first cover. The extension section of the first combining portion extends to be buckled to the second combining portion. Thus, the first cover and the second cover cannot be detached easily. When the casing is detached, the extension section will get broken, thereby preventing undesired detachment.

Abstract: Mounted between bottom and top surfaces of a case are: second buffer materials and first buffer materials brought in surface contact with a bottom surface of a hard disk drive (HDD) via an insulating member, and upper buffer materials brought in surface contact with the opposite side of the HDD via the insulating member. When impact F2 is applied to the HDD, the second buffer materials contract from a thickness of T0 to T2, and the first buffer materials buckle. Buckling parts of the first buffer materials buckle when the second buffer materials contract to thickness T2, and can achieve impact-lessening independently from the second buffer materials. The second buffer materials contract singly from T0 to equal T1 to or more than T2, whereas the first buffer materials and second buffer materials both act at thickness T2 or beyond. Therefore, impact-lessening can be achieved in a broad range.

Abstract: The present invention relates to a computer cooling system for using in a computer. The computer includes an accommodation chamber having a first, a second and a third accommodation spaces. The first accommodation space receives a motherboard and HDD and burner connected electrically to the motherboard, and includes one or more first air inlets and air outlets for discharging hot air on the two adjacent side walls. The second accommodation space is arranged according to the position of the interface and memory cards on the motherboard and includes one or more second air inlets and second air outlets for discharging hot air. A third accommodation space accommodates the power supply and includes one or more third air inlets and third air outlets for discharging hot air. The arrangement of the accommodation assists cooling down the computer quickly.

Abstract: A fastening device for a hard disk drive (HDD) includes two fastening members and a bottom plate. Each fastening member includes a sidewall, and a top wall and a bottom wall perpendicularly extending from opposite sides of the sidewall. The top walls are fastened to a bottom of the HDD. An engaging hole is defined in each bottom wall. The engaging hole includes a first hole and a second hole. A positioning tab extends from one of the fastening members. A block is formed on the positioning tab. Two protrusions protrude from the bottom plate. A positioning portion is formed on the bottom plate. The HDD is operable to slide to allow the protrusions to engage in the first holes. The positioning tab extends through a through hole bounded by the positioning portion and bottom plate, to allow the block to be blocked by the positioning portion.

Abstract: A side loading enclosure for a rack mount type storage unit is provided. The enclosure provides for easier access to hard disk drives (HDDs) for maintenance and repair as well as the ability to increase the number of HDDs that can be mounted in a single enclosure. The enclosure may include a bottom plate, a pair of side plates, and a pair of end plates. Located within the enclosure are a first row, extending perpendicularly between the pair of end plates, having one or more stacks of HDDs mounted to a first printed circuit board and a second row, extending perpendicularly between the pair of end plates, having one or more stacks of HDDs mounted to a second printed circuit board. The one or more stacks of HDDS in the first row is separate from and located parallel to the one or more stacks of HDDs in the second row.

Abstract: A disk drive assembly includes a disk drive and a drive bracket. The disk drive includes a first sidewall. The first sidewall includes a first sidewall body, a first resilient tab and a second resilient tab. The first resilient tab and the second resilient tab extend outward from the sidewall body. An extending direction of the first resilient tab is opposite to an extending direction of the second resilient tab. The drive bracket includes a bottom panel and a first side panel substantially perpendicular to the bottom panel. The first side panel is substantially parallel to the first sidewall body. The disk drive is located on the bottom panel. The drive bracket further includes two resilient protrusions extending from the first side panel. The two resilient protrusions resiliently resist the first resilient tab and the second resilient tab.

Abstract: A mounting device for mounting a hard disk drive (HDD) includes a motherboard forming a memory slot, a printed circuit board, and a fixing frame. The fixing frame includes a receiving portion for receiving the HDD, and a connection portion connected to the receiving portion. The print circuit board is mounted to the connection portion. A connector is mounted to the printed circuit board to be electrically connected to the HDD. An edge connector is formed at a bottom side of the printed circuit board to be inserted into the memory slot.

Abstract: An electronic apparatus includes a chassis, a casing fixed in the chassis, a first resilient shielding plate and a second resilient shielding plate both made of electromagnetic radiation shielding material, and a drawer. The casing defines a receiving space. The drawer is slidably received in the receiving space. The first resilient shielding plate fits about a front end of the casing and abuts against the chassis. The second resilient shielding plate is fixed to a front end of the drawer, to abut against an inner surface of the casing bounding the receiving space.

Abstract: Apparatus (100) is provided for mounting media drives. Top and bottom frames (102, 104) are coupled together in a pivoting relationship (106, 108). The frames (102, 104) are configured to receive top and bottom media drives, respectively. In a closed position, the top frame (102) fits substantially over the bottom frame (104). In an open position, the top frame (102) pivots away from the bottom frame (104) by a pivot angle (136) sufficient to insert the bottom media drive into or remove the bottom media drive from the bottom tray (104).

Abstract: A storage system sized to fit within a standard magnetic hard disk drive (HDD) form factor. The storage system includes a solid state disk (SSD) and a cooling means thermally coupled to the body of the SSD. The components of the SSD occupy a smaller volume of space than magnetic HDD's. In particular, while the SSD has width and length dimensions matching those of the HDD form factor, the SSD has a height dimension that is less than the HDD form factor. Accordingly, the volume of space between the HDD form factor height and the SSD height is beneficially occupied by the cooling means. The storage system can be then be used as a direct replacement for HDD as it can fit within HDD bays configured for the standardized HDD form factor.

Abstract: A server includes a casing, a bottom plate, a first hard disk module, a second hard disk module, and a lifting device. The bottom plate is disposed in the casing and configured to be sliding relative to the casing. The first hard disk module is movably disposed on the bottom plate. The first hard disk module includes a track. The second hard disk module is fixed on the bottom plate and disposed behind the first hard disk module. The lifting device moves up the first hard disk module when the bottom plate is pulled out of the casing, and the lifting device moves down the first hard disk module when the bottom plate is pushed into the casing. A drawer lifting device is also disclosed.

Abstract: Apparatus and devices for carrying a storage device and adapting it to a slot for a storage device having a different form factor. The system comprises an opening means for elastically deforming a shape of the system from an original shape so that the carrier may receive the storage device. The system also comprises restraining means for constraining the motion of the storage device within the system when the system returns to the original shape. Furthermore, the system comprises a spacing means for aligning the storage device with the slot while the storage device is restrained within the system.