Abstract: Various embodiments of the present application are directed towards a resistive random-access memory (RRAM) cell including a top-electrode barrier layer configured to block the movement of nitrogen or some other suitable non-metal element from a top electrode of the RRAM cell to an active metal layer of the RRAM cell. Blocking the movement of non-metal element may be prevent formation of an undesired switching layer between the active metal layer and the top electrode. The undesired switching layer would increase parasitic resistance of the RRAM cell, such that top-electrode barrier layer may reduce parasitic resistance by preventing formation of the undesired switching layer.

Abstract: Various embodiments of the present application are directed towards a resistive random-access memory (RRAM) cell including a top-electrode barrier layer configured to block the movement of nitrogen or some other suitable non-metal element from a top electrode of the RRAM cell to an active metal layer of the RRAM cell. Blocking the movement of non-metal element may be prevent formation of an undesired switching layer between the active metal layer and the top electrode. The undesired switching layer would increase parasitic resistance of the RRAM cell, such that top-electrode barrier layer may reduce parasitic resistance by preventing formation of the undesired switching layer.

Abstract: Various embodiments of the present disclosure are directed towards an integrated chip. A first conductive structure overlies a substrate. A second conductive structure overlies the first conductive structure. A data storage structure is disposed between the first and second conductive structures. The data storage structure includes a first dielectric layer, a second dielectric layer, and a third dielectric layer. Respective bandgaps of the first, second, and third dielectric layers are different from one another.

Abstract: A mounting apparatus for a disk drive includes a tray, a bracket, and a latch member. The tray supports the disk drive. A resiliently deformable hook is formed on the tray. The tray defines two pair of first and second sliding slots. The bracket receives the tray and the disk drive, and defines a positioning opening. Two pair of posts are formed at two opposite ends of the latch member. The posts slide and rotate in the sliding slots. A positioning tab is formed the latch member and engages in the positioning opening to prevent the tray sliding out of the bracket. A blocking tab is formed on the latch member, and engages with the hook to remain engagement between the positioning tab and the positioning opening, and to disengage from the hook when the hook is deformed.

Abstract: A supporting bracket for adjusting tilt of a liquid crystal display (LCD) includes a fixing member configured for supporting the LCD, a gear capable of rotating in the fixing member, and a sliding member received in the fixing member configured for connecting to the LCD. The sliding member comprises a rack to engage with teeth of the gear. The gear rotates to drive the sliding member moving relative to the fixing member to adjusting the angle of the LCD.

Abstract: A mounting device for a disk drive includes a bracket for receiving the disk drive, and a securing member for mounting the disk drive in the bracket. The bracket includes a pair of side panels for receiving the disk drive therebetween. A cutout is defined in each side panel in a front portion thereof. The securing member includes a handle and a pair of cantilevers extending from opposite ends of the handle. The handle includes a base body and a pair of arms extending from opposite ends of the base body to connect the pair of cantilevers. Each arm includes a first bent portion protruding outwardly from the base body, and a second bent portion protruding inwardly from the first bent portion. A resilient protrusion is formed on the second bent portion for inserting in the cutout.

Abstract: A mounting apparatus for a disk drive includes a tray, a bracket, and a latch member. The tray supports the disk drive. A resiliently deformable hook is formed on the tray. The tray defines two pair of first and second sliding slots. The bracket receives the tray and the disk drive, and defines a positioning opening. Two pair of posts are formed at two opposite ends of the latch member. The posts slide and rotate in the sliding slots. A positioning tab is formed the latch member and engages in the positioning opening to prevent the tray sliding out of the bracket. A blocking tab is formed on the latch member, and engages with the hook to remain engagement between the positioning tab and the positioning opening, and to disengage from the hook when the hook is deformed.

Abstract: A supporting bracket for adjusting tilt of a liquid crystal display (LCD) includes a fixing member configured for supporting the LCD, a gear capable of rotating in the fixing member, and a sliding member received in the fixing member configured for connecting to the LCD. The sliding member comprises a rack to engage with teeth of the gear. The gear rotates to drive the sliding member moving relative to the fixing member to adjusting the angle of the LCD.

Abstract: A mounting apparatus for a data storage device includes a chassis (10), a data storage device (50) with a groove (522) defined in a sidewall (52) thereof, a supporting bracket (20) fixed to the chassis (10), the supporting bracket (20) having a sidewall (22) defining a through hole (221) and a recess (228) therein and a positioning member (30) adapted to be pivotably mounted to the supporting bracket (20). The positioning member (30) has a protrusion (361) engaging in the recess (228) for locating the positioning member (30) and a locating pin (341) extending through the through hole (221) of the supporting bracket (20) to engage in the groove (522) of the data storage device (50) for securing the data storage device (50) on the chassis (10).

Abstract: A mounting device for a disk drive includes a bracket for receiving the disk drive, and a securing member for mounting the disk drive in the bracket. The bracket includes a pair of side panels for receiving the disk drive therebetween. A cutout is defined in each side panel in a front portion thereof. The securing member includes a handle and a pair of cantilevers extending from opposite ends of the handle. The handle includes a base body and a pair of arms extending from opposite ends of the base body to connect the pair of cantilevers. Each arm includes a first bent portion protruding outwardly from the base body, and a second bent portion protruding inwardly from the first bent portion. A resilient protrusion is formed on the second bent portion for inserting in the cutout.

Abstract: A storage device assembly includes a storage device (50) with a fastener (524) thereon, a bracket (10) for accommodating the storage device and an operating member (40) slidably attached to the bracket. The bracket defines a guiding hole (166) for the fastener of the storage device inserting therethrough. The operating member includes a latching portion (426) and a deflectable mounting portion (46). The operating member has a locked position in which the latching portion engages with the fastener, and a unlocked position in which the mounting portion is biased to disengage the latching portion from the fastener.

Abstract: A computer enclosure includes a base (10), a cover (100) and a resilient member (80) attached to the base and compressed by the cover. The base has a latching portion (68) disposed thereon. The cover is adapted to being mounted to the base, and has a mounting protrusion (70) projecting therefrom. The mounting protrusion engages with the latching portion for preventing the cover moving in a first direction, thereby securing the cover on the base. The resilient member is attached to the base and compressed by the cover. When the mounting protrusion disengages from the latching portion, the resilient member pushes the cover to move in the first direction due to being released.

Abstract: A mounting apparatus for a data storage device includes a chassis (10), a data storage device (70) with a groove defined in a sidewall thereof, a supporting bracket (20) fixed to the chassis (10), an elastic tab (25) mounted to the supporting bracket (20), a connecting rod (30) movably attached to the supporting bracket (20) and a poke rod (40) pivotably mounted to the supporting bracket (20) and movably connected with the connecting rod (40). The supporting bracket (20) has a sidewall (22) with a rectangular hole (226) defined therein. The elastic tab (25) has a protrusion (256) extending through the rectangular hole (226) for engaging in the groove. The connecting rod (30) has a post (332) for urging the elastic tab (25) to move outwards. That the connecting rod (30) is pushed urges the data storage device (70) to retreat from the supporting bracket (20).

Abstract: A mounting assembly of a computer enclosure includes a chassis (90), a front panel (10) slidably mounted to the chassis (90), a pair of locking members (30) attached to the front panel (10), a pair of sliding members (50) fixedly attached to the chassis (90) and a pair of pressing members (70) movably mounted to the chassis (90) for unlocking the locking members (30). Each sliding member (50) has a sliding portion (53). Each locking member (30) defines a sliding groove (31) therein. The sliding portion (53) of the sliding member (50) is engaged in the sliding groove (31) for securing the front panel (10) on the chassis (90).

Abstract: A mounting apparatus for securing a storage device (50) with a mounting hole (522) defined therein includes a bracket (20) for receiving the storage device, an operating member (40), a fastening member (30) and a resilient member (60) compressed by the fastening member. A through opening (248) is defined in the bracket. The operating member movably engages with the bracket includes a pressing portion. The fastening member pivotably attaches to the bracket includes a locking portion. The locking portion extends through the through opening of the bracket and engages in the mounting hole of the storage device under the pressure of the pressing portion of the operating member. When the operating member is pulled off, the resilient member rebounds to rotate the locking portion, thereby disengaging the locking portion from the mounting hole of the storage device.

Abstract: A computer power supply mounting apparatus includes a plurality of screws (50) and a fixing plate (40) for attaching a power supply (80) to a rear panel (20) of a computer chassis (10). Each screw has a head (52) and a body (54). A diameter of the head is larger than a diameter of the body. The rear panel defines a plurality of apertures (22) for receiving the screws. Each aperture includes a large portion (221) and a small portion (223). A diameter of the large portion is larger than that of the head of the screw. A diameter of the small portion is smaller than that of the head of the screw, but larger than that of the body of the screw. The fixing plate is slidably attached to the rear panel and selectively positioned at a first position and a second position. The fixing plate has at least one lateral driving tab (63) for abuting against a corresponding screw.

Abstract: A mounting apparatus for a data storage device includes a chassis (10), a data storage device (70) with a groove defined in a sidewall thereof, a supporting bracket (20) fixed to the chassis (10), an elastic tab (25) mounted to the supporting bracket (20), a connecting rod (30) movably attached to the supporting bracket (20) and a poke rod (40) pivotably mounted to the supporting bracket (20) and movably connected with the connecting rod (40). The supporting bracket (20) has a sidewall (22) with a rectangular hole (226) defined therein. The elastic tab (25) has a protrusion (256) extending through the rectangular hole (226) for engaging in the groove. The connecting rod (30) has a post (332) for urging the elastic tab (25) to move outwards. That the connecting rod (30) is pushed urges the data storage device (70) to retreat from the supporting bracket (20).

Abstract: A mounting assembly of a computer enclosure includes a chassis (90), a front panel (10) slidably mounted to the chassis (90), a pair of locking members (30) attached to the front panel (10), a pair of sliding members (50) fixedly attached to the chassis (90) and a pair of pressing members (70) movably mounted to the chassis (90) for unlocking the locking members (30). Each sliding member (50) has a sliding portion (53). Each locking member (30) defines a sliding groove (31) therein. The sliding portion (53) of the sliding member (50) is engaged in the sliding groove (31) for securing the front panel (10) on the chassis (90).

Abstract: A storage device assembly includes a storage device (50) with a fastener (524) thereon, a bracket (10) for accommodating the storage device and an operating member (40) slidably attached to the bracket. The bracket defines a guiding hole (166) for the fastener of the storage device inserting therethrough. The operating member includes a latching portion (426) and a deflectable mounting portion (46). The operating member has a locked position in which the latching portion engages with the fastener, and a unlocked position in which the mounting portion is biased to disengage the latching portion from the fastener.

Abstract: A computer enclosure includes a base (10), a cover (100) and a resilient member (80) attached to the base and compressed by the cover. The base has a latching portion (68) disposed thereon. The cover is adapted to being mounted to the base, and has a mounting protrusion (70) projecting therefrom. The mounting protrusion engages with the latching portion for preventing the cover moving in a first direction, thereby securing the cover on the base. The resilient member is attached to the base and compressed by the cover. When the mounting protrusion disengages from the latching portion, the resilient member pushes the cover to move in the first direction due to being released.