Abstract: An electronic apparatus is disclosed, which comprises: a casing, a cap, a data storage unit and an ejecting module. The casing has an accommodation space formed by the enclosure of two sidewalls of the casing. The accommodation space is further configured with an opening that can be covered by the cap so as to seal the accommodation space. The ejecting module is comprised of: a holder, pivotally coupled to one of the two sidewalls while clamping the data storage unit; and a first elastic element, disposed at a position for allowing the same to be compress when the opening is covered by the cap, and consequently, enabling the first elastic element to be released from the compression when the cap is removed from the opening, and thus bringing along the holder to rotate in a specific direction for lifting and exposing the data storage unit out of the accommodation space.

Abstract: A hardware holding device includes a chassis, a bracket, a fastening structure and a hardware component. The bracket is fixed in the chassis. The fastening structure includes two levers each having a latch perpendicularly extending from one end of the corresponding lever, and two elastic members correspondingly arranged on the levers. The levers are rotatably mounted on the surface of the bracket. The elastic members are resiliently compressed between the surface of the bracket and the levers to keep the latches of the levers extended through the bracket and inside of the bracket thereby clasping and fixing a hardware component in the bracket.

Abstract: A portable electronic device includes a main body and a first shock absorbing assembly. The main body defines a receiving space to receive a hard disc drive. The first shock absorbing assembly includes a supporting post, a connecting member, a clipping element, and at least one pressing post. The supporting post protrudes from a bottom of the receiving space. The connecting element is moveably connected to the supporting post and includes a first elastic member arranged around the connecting element. The supporting post resists one end of the first elastic member to cause the first elastic member to be compressed. The clipping element is secured to the connecting element. The clipping element clips the hard disc drive under the spring force of the first elastic member. The at least one pressing post is secured to the clipping element and presses the hard disc drive.

Abstract: A hard disk device includes a hard disk having two opposite first sides, a second side interconnecting the first sides, and two corner portions defined by the first and second sides, and a slide rail mechanism including two first plates to be disposed slidably in a housing, and a second plate. Each first plate has a first section connected to the second plate, and a second section connected to the first section. The first section is spaced apart from the respective first side and is provided with a first support element for abutting against the corresponding corner portion. The second section abuts against the corresponding first side and is provided with positioning pins for engaging positioning holes in the corresponding first side. The second plate is spaced apart from the second side and is provided with second support elements for abutting against the second side.

Abstract: A computer component securing device includes a rack and a pair of rail assemblies. The rail assemblies are mounted respectively on two sides of a computer component and are disposed on the rack. Each rail assembly includes a rail and a handle pivoted to a front end of the rail. The handle is disposed to facilitate manipulation by a user. By turning the handle pivotally relative to the rail about an angle, a portion of the rail is urged in a direction away from the computer component to interferingly engage the rack so as to position the computer component in the rack.

Abstract: A mounting apparatus for an expansion card with a blocking piece is disclosed. The mounting apparatus includes a mounting bracket and a fixing piece. The mounting bracket includes a support plate with two bent portions. The fixing piece is pivotably mounted on the mounting bracket. The fixing piece includes a resisting piece, two resilient pressing pieces, and an engaging portion. The resisting piece secures the blocking piece to the support plate. The two resilient pressing pieces are connected to the resisting piece. The engaging portion retains the fixing piece to the mounting bracket. A pivot portion protrudes from each pressing piece and is received in each bent portion. The two pressing pieces are oppositely pressed to disengage the pivot portion from the bent portion.

Abstract: The present invention includes several hard disk drive (HDD) enclosures that use pre-stressed polymer compression members to provide integral vibration shock and acoustic noise dampening and isolation. The vibration dampening system has springs of polymeric material located between outer surfaces and existing HDD FRU mounting walls. The suspension system secures the hard drive in a slot in the structure within the polymer springs, isolating the hard drive from the side panels and dampening the vibration internal and external. The minimal structure allows for significant air flow to provide the cooling Beams are designed to consider temperature effects, creep and long term fatigue of the plastics. Multiple beams will be recruited to support the drives and each other to ensure that no individual beam sustains a substantial portion of the load.

Abstract: A mounting mechanism for attaching a data storage device to a chassis includes a housing, first and second driving members, a latching member, first, second, and third elastic members. The housing defines first, second and third sliding paths therein. The first and third sliding paths extend along a first direction of the housing for receiving the first driving member and the latching member. The second sliding path extends along a second direction of the housing substantially perpendicular to the first direction for receiving the second driving member. The first driving member forms an inclined guiding surface at an end thereof outside the housing. When the guiding surface is pressed down, the driving member moves inward, driving the second driving to move and disengage from the latching member, and the latching member moves along the first direction by an elastic force of the third elastic member.

Abstract: A notebook PC includes a main body, a cover rotatably mounted to the main body, a projector detachably received in the cover and electrically connected to the cover, a holding mechanism received in the cover, and a driving mechanism received in the cover. The holding mechanism releasably holds the projector in place when the projector is received in the cover, and the driving mechanism drives the projector out of the cover when the projector is released by the holding mechanism.

Abstract: A devices cage comprises a first wall having m parallel channels across a length of the first wall and a second wall having n parallel channels across a length of the second wall. In some embodiments, n is at least equal to m. Each parallel channel is equal to a diameter of a head of a drive mounting screw. The first wall comprises at least one bridge positioned across each m parallel channel and at least one clamp spring integrally coupled to a top of each m parallel channel. The second wall also comprises at least one bridge positioned across each n parallel channel. Each end of the m parallel channel extends at an inwards slant toward a center of the first wall. The inwards slant terminates at a circular area around configured in a dome shape with a flat top.

Abstract: A mounting apparatus for attaching a data storage device to a chassis includes a latching member, first and second elastic members and a button. The latching member defines a through hole therein and forms a latching pin at a first end thereof. The button includes an abutting portion and a pressing portion extending up from the abutting portion. When the mounting apparatus is mounted to the chassis, the button is placed on a bottom side of the latching member, the latching member is movably mounted to the chassis, the first elastic member is compressed between the second end of the latching member and a baffle formed on the chassis, the second elastic member is compressed between the button and the chassis, the pressing portion of the button extends through the through hole and extending out of a top surface of the latching member.

Abstract: The present invention is related to a removable electronic device with handle structure suitable for an electronic apparatus, including a housing having an accommodating trough, a handle structure, an elastic engaging device, and an engaging component corresponding to the elastic engaging device, wherein the handle structure is pivotally mounted on and received in the accommodating trough through an engagement between the elastic engaging device and the engaging component.

Abstract: One implementation of the present invention may take the form of a system for a hard disc drive counter-vibration device that may absorb rotational vibration or gyration of the hard disc drive module. This mounting device may incorporate at least one soft, plastic sphere and a pair of concave dished surfaces, configured to face each other and maintain the sphere between them. The sphere of the counter-vibration assembly may support the hard disc drive (HDD) while the weight of the HDD may align the dishes with each other and over the sphere. In this manner, the sphere may act as a spring and allow the HDD to vibrate or gyrate without transmitting the mechanical movement to the rest of the HDD assembly or electronic device.

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: A mounting assembly includes two side rails that mechanically couple to at least two sides on an exterior of a device, where a given side rail includes one or more circumferential edges that define one or more holes on a surface and into an interior of the given side rail, and the surface is approximately parallel to one of the at least two sides on the exterior of the device. Moreover, the mounting assembly includes mechanical collars that mechanically couple to mechanical couplers that mechanically couple the mounting assembly to a chassis in a computer system, where a given mechanical collar is included in a given hole in the given side rail. Additionally, the mounting assembly includes energy-absorbing material encapsulating the mechanical collars, where the energy-absorbing material is positioned between an outer surface of the given mechanical collar and an inner surface of the given hole.

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 fixing mechanism is used to fix a storage device to an electronic device. The electronic device includes a bracket. The fixing mechanism includes two latching members fixed to one of the bracket and the storage device, and a limiting member fixed to the other. The limiting member includes two side plates and at least one resilient hook. Each of the side plates defines a holding portion to receive the latching member. The at least one resilient hook engages with the latching members. The storage device may be secured by the fixing mechanism, or detached from the fixing mechanism depending on the resilient deformation or reformation of the resilient hooks.

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: A portable computing device having an outer housing, and internal hard disk drive and a shock damping mounting assembly is disclosed. Multiple outer dimensions of the portable computing device can be less than the width of the hard drive due to a diagonal arrangement of the hard drive within the overall device. The hard drive can comply with a standardized form factor, such as a 3.5 inch form factor. A mounting assembly located within the outer housing and coupled to the hard drive can include one or more components adapted to damp a mechanical shock to the hard drive, which components can be mounted to corners and/or edges of the hard drive. Mounting assembly components can includes a first stage spring comprising a finger geometry that provides initial damping of the mechanical shock and a second stage spring comprising an elastic block that provides final damping of the mechanical shock.

Abstract: A computer chassis has overmolded dampeners for absorbing shock and vibration. Electronic components are hard mounted to points inside the computer chassis. Overmolded dampeners are affixed to corners, surfaces and sides of the laptop such that shock and vibration are absorbed by the dampeners before the shock or vibration can damage the electronic components. Affixing dampeners to portions of the chassis may provide shock and vibration protection with minimal weight.

Abstract: An electronic component assembly and vibration reduction device having screwless design with cantilever clips to clam and locate the electronic panels onto the mounting brackets or fasten the information storage devices onto cases are disclosed. The cantilever clip contain damping structures, which can generate damping effect to reduce vibrations. The effectiveness of the damping structure can be adjusted through the adjustment of the length, thickness, materials and other factors of the cantilever clip. The damping effect is generated by moving the cantilever clips in an oscillatory manner.

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 portable electronic device includes a main body and a first shock absorbing assembly. The main body defines a receiving space to receive a hard disc drive. The first shock absorbing assembly includes a supporting post, a connecting member, a clipping element, and at least one pressing post. The supporting post protrudes from a bottom of the receiving space. The connecting element is moveably connected to the supporting post and includes a first elastic member arranged around the connecting element. The supporting post resists one end of the first elastic member to cause the first elastic member to be compressed. The clipping element is secured to the connecting element. The clipping element clips the hard disc drive under the spring force of the first elastic member. The at least one pressing post is secured to the clipping element and presses the hard disc drive.

Abstract: A vibration dampening structure for a disk drive includes a bracket for receiving the disk drive and an elastic peg for dampening vibration of the disk drive. The bracket includes a pair of side panels for receiving the disk drive therebetween. An elastic clamp is formed on each side panel. A hole is defined in the clamp. The elastic peg includes a flexible head portion abutting the disk drive, and a handle portion extending into the hole. The head portion is configured for buffering the disk drive in an inner side of the bracket. The handle portion is capable of being pulled to move the head portion and the clamp away from the disk drive for disengaging the elastic peg from the disk drive.

Abstract: An all-in-one computer includes a hard disk drive (HDD), a main body, a cover, and a fasten member. The main body defines a receiving space to receive the HDD, and a fasten hole. The receiving space is bounded by a number of walls. A first raised edge protrudes from the number of walls in the receiving space. The cover includes a board, a first hook, and a mounting piece defining a through hole. The board includes opposite first and second ends. The first hook extends from the first end. The mounting piece extends from the second end. When the cover is mounted to the main body, the first hook snappingly hooks an inner side of the first raised edge, the board is stopped by the first raised edge, and the fasten member can extend through the through hole and engage in the fasten hole.

Abstract: A mounting apparatus for mounting a data storage device, the mounting apparatus includes a bracket and a holder. The bracket includes a bottom plate, and a first side plate extending from one side of the bottom plate. A protrusion protrudes from the bottom plate. A blocking member is formed from the side plate. The holder includes a first sidewall configured for mounting the data storage device thereto, and a latching plate extending from the first sidewall. An engaging portion is formed from the sidewall and capably of engaging with the blocking member of the side plate of the bracket. A latch portion is formed from the latching plate and capably of sliding over to engage with the protrusion of the bottom plate of the bracket.

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 quick-releasing structure is applied to a casing for installing a hard disk device. The quick-releasing structure comprises a spring plate, a handle, and two shock-absorbing members. The spring plate is connected to the casing; the two ends of the handle are coupled to the spring plate; two shock-absorbing members are connected to the two ends of the spring plate for fastening the hard disk device and producing shock-absorbing effect. By pulling the handle, the two ends of the spring plate being moved away from the casing, and the two shock-absorbing members being moved to release the hard disk device.

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: A hard disk box includes a tray, a cover, and a enclosure. The tray includes a bezel and a bottom plate. The bottom plate includes a locking portion forming a catch. The cover includes a rear wall, and an insert wall extending from a side of the rear wall. A hook extends from the rear wall for engaging the catch of the tray. The enclosure accommodates the bottom plate of the tray and the insert wall of the cover, and is retained between the bezel of the tray and the rear wall of the cover. The enclosure defines an opening in a bottom wall thereof, corresponding to the locking portion of the tray.

Abstract: An exemplary fixing apparatus is for mounting a hard disk drive (HDD) having a plurality of holes defined in sidewalls and includes a bracket, a pair of shock absorbing members, and a plurality of fixing pins. The bracket includes an end plate, and a pair of side plates extending from two ends of the end plate. The side plates include a pair of latches extending therefrom and detachably locking with each other. The shock absorbing members are attached to insides of the side plates. The fixing pins are attached to the shock absorbing members and engage in the holes of the HDD.

Abstract: An external box with a shockproofing mechanism is disclosed. The external box accommodates a hard disk that has a plurality of opening holes formed on a bottom side thereof. The external box comprises: a box body, a plurality of positioning posts, a plurality of elastic elements, and a cover body. The box body has a bottom seat. The positioning posts are disposed on the bottoms seat. The elastic elements are disposed around the positioning posts, respectively. The cover body covers the box body. The opening holes correspond to the positioning posts, and the positioning posts are respectively accommodated in the opening holes for contacting the hard disk with the elastic elements to achieve a shockproof effect.

Abstract: The present invention includes several hard disk drive (HDD) enclosures that use pre-stressed polymer compression members to provide integral vibration shock and acoustic noise dampening and isolation. The vibration dampening system has springs of polymeric material located between outer surfaces and existing HDD FRU mounting walls. The suspension system secures the hard drive in a slot in the structure within the polymer springs, isolating the hard drive from the side panels and dampening the vibration internal and external. The side walls also act as low mass, highly efficient structural members within the system. The minimal structure allows for significant air flow to provide the cooling that is critical to HDD reliability. Beams are designed to consider temperature effects, creep and long term fatigue of the plastics. Multiple beams will be recruited to support the drives and each other to ensure that no individual beam sustains a substantial portion of the load.

Abstract: A mounting assembly includes two side rails that mechanically couple to at least two sides on an exterior of a device, where a given side rail includes one or more circumferential edges that define one or more holes on a surface and into an interior of the given side rail, and the surface is approximately parallel to one of the at least two sides on the exterior of the device. Moreover, the mounting assembly includes mechanical collars that mechanically couple to mechanical couplers that mechanically couple the mounting assembly to a chassis in a computer system, where a given mechanical collar is included in a given hole in the given side rail. Additionally, the mounting assembly includes energy-absorbing material encapsulating the mechanical collars, where the energy-absorbing material is positioned between an outer surface of the given mechanical collar and an inner surface of the given hole.

Abstract: A mounting apparatus is provided to readily fix a data storage device defining at least one hole in place. The mounting apparatus includes a bracket fastened to a computer enclosure, and the bracket includes a side panel and at least one elastic tab formed at or attached to the side panel corresponding to the hole of the data storage device. The elastic tab includes a fixing portion, for engaging in the hole of the storage device, and an operation portion positioned outside the bracket for manipulating the elastic tab.

Abstract: Systems and methods for mounting components of an information handling system such as a desktop computer or other desktop information handling system. The supported components may be motorized or other vibration-producing components that are supported and mounted directly or indirectly to a mounting structure of an information handling system using an isolation apparatus that is configured on a first end with one or more insertable snap-fit retaining features configured to retainably engage one or more internal retaining features of the mounting structure in order to fixedly couple the isolation apparatus to the mounting structure, and that is configured on an opposing second end with one or more insertable pins that may in turn be employed to couple the isolation apparatus to the vibration-producing component.

Abstract: An anti-vibration and anti-EMI frame includes an electrically conductive casing having a plurality of side panels, a front opening and a rear opening for receiving a hard disk drive therein before being fixed in an electronic device. The casing is integrally formed on the side panels with a plurality of outward protruded elastic members, and at the rear opening with a stop plate and two mounting plates. The stop plate prevents the hard disk drive from moving out of the casing via the rear opening thereof; the casing is fixed in the electronic device by threading screws through the mounting plates into the electronic device; and the elastic members on the casing are internally in contact with the electronic device. Therefore, the casing protects the hard disk drive against vibration and shields electromagnetic interference to and from the hard disk drive.

Abstract: A retaining member (50) is used for locking a drive (30) within a housing. The retaining member includes a drive, a housing and a pair of wire members (51) and a pair of latch members (53). The wire members are formed of resilient material and are attached to opposite sides of the drive. The latch member includes a securing portion (531) and a flexible locking portion (533). The locking portion extends from the securing portion and away from the drive. A locking tab (5331) is formed on the locking portion that engages the housing. Each wire member helps secure one securing portion to the drive with one end thereof.

Abstract: A disk device includes a disk unit housing a disk-shaped storage medium, a case holding the disk unit, a bracket holding the case, and a guide member guiding sliding movement of the case in and out from the bracket. The disk device also includes spring members on one of the bracket and the case, distributed in the direction of the relative movement. Each of the spring members extends longitudinally in the direction of the movement. Distal ends of the spring members face and press against the other of the bracket and the case. Base portions of the spring members are integral with the one of the bracket and the case. The spring members inhibit lateral vibration of the case by pressing against small projections on the case. Other spring members inhibit vertical vibration of the case by pressing against sliding support rails of the case. A face plate of the case absorbs vibration in the longitudinal direction.

Abstract: An enclosure for storage devices having at least one mounting surface and a viscoelastic layer disposed between a first layer and a second layer of the mounting surface. A receiver secured to the mounting surface within the enclosure receives a storage device carrier that retains a disk drive and positions the storage device carrier within the enclosure. Clip-on damped springs, coupled to the storage device carrier, guide the storage device carrier through the receiver and couple the storage device carrier to the mounting surface(s). A bezel of the storage device carrier is configured to receive a key in one of a plurality of key positions, with each key position corresponding to a particular disk drive/enclosure chassis interface.