Abstract: A heat dissipation device and a computer device are disclosed. The heat dissipation device includes a case and a fan module. The case includes a first wall, a second wall and an accommodation cavity. The accommodation cavity is located between the first wall and the second wall in a first direction. The first wall includes a first through hole. The second wall includes a second through hole. The first through hole is connected to the accommodation cavity, the second through hole is connected to the accommodation cavity. The fan module is mounted in the accommodation cavity. The fan module includes a bracket assembly and a plurality of fans. The bracket assembly is detachably connected to the plurality of fans and the case.

Abstract: A structure for mounting a cooling fan easily and conveniently and in the correct orientation only includes a chassis and at least one fan module. The chassis has a block, a first nut, and a second nut. The fan module has at least one accessory. The block is mounted on the first nut or the second nut. When the block is fixed on the first nut, the fan module can only be placed and installed so as to blow air into the chassis, and when the block is fixed on the second nut, the fan module can only be installed so as to extract air out of the chassis, thereby ensuring the correct mode of operation. An electronic device and a server using the structure is also disclosed.

Abstract: A functional module securing device and a data processing equipment, including a securing rack including a mounting area, the mounting area places a functional module; a limit piece slidably arranged on an exterior of the securing rack and at least partially located in the mounting area; and a linkage piece arranged on the exterior of the securing rack and connected to the limit piece. The linkage piece configured to drive the limit piece to move along a first direction to at least partially insert the limit piece into a slot of the functional module, or to separate the limit piece from the slot of the functional module. The linkage piece further configured to drive the limit piece to move along a second direction to drive the functional module to at least partially slide out of the mounting area when the limit piece is in the slot of the functional module.

Abstract: A fixing assembly and an electronic device including same are disclosed. The fixing assembly includes a supporting member, a locking member, and a latching member. The supporting member includes a first supporting portion and a second supporting portion connected with each other, and the second supporting portion defines a sliding slot. The locking member includes a locking portion and a connecting portion connected with each other, the connecting portion includes a protrusion and a latching hole. The protrusion is slidably arranged in the sliding slot. When the protrusion slides along the sliding slot, the locking member slides and then rotates relative to the supporting member. The latching member is arranged on the second supporting portion and is adapted to be inserted into the latching hole. When the latching member is inserted into the latching hole, the fan is sandwiched and held between the first supporting portion and the locking portion.

Abstract: A structure for mounting a cooling fan easily and conveniently and in the correct orientation only includes a chassis and at least one fan module. The chassis has a block, a first nut, and a second nut. The fan module has at least one accessory. The block is mounted on the first nut or the second nut. When the block is fixed on the first nut, the fan module can only be placed and installed so as to blow air into the chassis, and when the block is fixed on the second nut, the fan module can only be installed so as to extract air out of the chassis, thereby ensuring the correct mode of operation. An electronic device and a server using the structure is also disclosed.

Abstract: A fixing assembly and an electronic device including same are disclosed. The fixing assembly includes a supporting member, a locking member, and a latching member. The supporting member includes a first supporting portion and a second supporting portion connected with each other, and the second supporting portion defines a sliding slot. The locking member includes a locking portion and a connecting portion connected with each other, the connecting portion includes a protrusion and a latching hole. The protrusion is slidably arranged in the sliding slot. When the protrusion slides along the sliding slot, the locking member slides and then rotates relative to the supporting member. The latching member is arranged on the second supporting portion and is adapted to be inserted into the latching hole. When the latching member is inserted into the latching hole, the fan is sandwiched and held between the first supporting portion and the locking portion.

Abstract: A warning structure includes a bracket and a warning member mounted on the bracket. The bracket includes a main body, rollers rotationally mounted to the main body, and a stopping assembly including a support member, a mounting member, and a resilient member. The support member is coupled to the main body. The mounting member is movably mounted to the support member. The rollers are mounted to the mounting member and the main body. The resilient member elastically resists the support member and the mounting member to bias the mounting member. When the support member is subjected to a downward force, the support member abuts against a ground to keep the bracket stationary.

Abstract: An electronic device includes a housing, a first electronic component, a second electronic component, two resilient assemblies, and two rotating levers. The housing defines an accommodating space. The second electronic component is fixed in the accommodating space. Each rotating lever includes a first end and a second end. A distance between the second end and a rotation shaft is less than a distance between the first end and the rotation shaft. A handle is rotationally fixed on the first electronic component. When the first electronic component slides into the accommodating space, the handle is rotated toward the first electronic component, the handle drives the two rotating levers to rotate and resist against the resilient assemblies, and the handle overcomes an elastic force applied by the resilient assemblies onto the rotating levers, so that the first electronic component connects with the second electronic component without gaps.

Abstract: A hook fixing mechanism includes a fixing frame, a first hook, and a second hook. The first hook is rotationally mounted on the fixing frame. A first end of the first hook protrudes from the fixing frame, and a second end of the first hook is movably snapped on the fixing frame. The second hook is rotationally mounted on the fixing frame. A third end of the second hook protrudes from the fixing frame, and a fourth end of the second hook resists against the first hook.

Abstract: An electronic device includes a housing, a first electronic component, a second electronic component, two resilient assemblies, and two rotating levers. The housing defines an accommodating space. The second electronic component is fixed in the accommodating space. Each rotating lever includes a first end and a second end. A distance between the second end and a rotation shaft is less than a distance between the first end and the rotation shaft. A handle is rotationally fixed on the first electronic component. When the first electronic component slides into the accommodating space, the handle is rotated toward the first electronic component, the handle drives the two rotating levers to rotate and resist against the resilient assemblies, and the handle overcomes an elastic force applied by the resilient assemblies onto the rotating levers, so that the first electronic component connects with the second electronic component without gaps.

Abstract: A hook fixing mechanism includes a fixing frame, a first hook, and a second hook. The first hook is rotationally mounted on the fixing frame. A first end of the first hook protrudes from the fixing frame, and a second end of the first hook is movably snapped on the fixing frame. The second hook is rotationally mounted on the fixing frame. A third end of the second hook protrudes from the fixing frame, and a fourth end of the second hook resists against the first hook.

Abstract: A locking device includes a housing, a first linking member, a second linking member, a push-pull member, and a stopper. The push-pull member defines a first sliding groove. A first end portion of the first linking member is slidably received in the first sliding groove, and a second end portion of the first linking member is rotationally fixed on the housing. The housing defines a second sliding groove. The stopper is slidably received in the second sliding groove. A second end portion of the second linking member is rotationally mounted on the first linking member. The first end portion of the first linking member is driven by the push-pull member to move along the first sliding groove, which drives the second linking member to rotate, which drives the stopper to move along the second sliding groove.

Abstract: A locking device includes a housing, a first linking member, a second linking member, a push-pull member, and a stopper. The push-pull member defines a first sliding groove. A first end portion of the first linking member is slidably received in the first sliding groove, and a second end portion of the first linking member is rotationally fixed on the housing. The housing defines a second sliding groove. The stopper is slidably received in the second sliding groove. A second end portion of the second linking member is rotationally mounted on the first linking member. The first end portion of the first linking member is driven by the push-pull member to move along the first sliding groove, which drives the second linking member to rotate, which drives the stopper to move along the second sliding groove.

Abstract: A warning structure includes a bracket and a warning member mounted on the bracket. The bracket includes a main body, rollers rotationally mounted to the main body, and a stopping assembly including a support member, a mounting member, and a resilient member. The support member is coupled to the main body. The mounting member is movably mounted to the support member. The rollers are mounted to the mounting member and the main body. The resilient member elastically resists the support member and the mounting member to bias the mounting member. When the support member is subjected to a downward force, the support member abuts against a ground to keep the bracket stationary.

Abstract: A storage system includes a chassis, a storage module, and a controller module. The storage module and the controller module are mounted to the chassis. The storage module includes a housing, a storage member, and an adapter plate. The storage member is fixed to the housing and is configured to store data. The adapter plate is fixed to the housing and is detachably connected to the storage member and the controller module.

Abstract: A storage system includes a chassis, a storage module, and a controller module. The storage module and the controller module are mounted to the chassis. The storage module includes a housing, a storage member, and an adapter plate. The storage member is fixed to the housing and is configured to store data. The adapter plate is fixed to the housing and is detachably connected to the storage member and the controller module.

Abstract: A server casing using a sliding apparatus for blade servers includes a chassis and the sliding apparatus. The chassis includes a blocking member. The sliding apparatus includes a first fastening plate, a second parallel fastening plate mounted to the first fastening plate, and a sliding plate configured to be slidably connected to the second fastening plate. The sliding plate is received between the first fastening plate and the second fastening plate and a locking member includes a first end and a second end. The first end is rotatably connected to the second fastening plate and includes a locking portion, the second end is connected to the sliding plate. The locking portion can move between a locking position, where the locking member is locked by the blocking member, and an unlocking position, where the locking member is unlocked by the blocking member.

Abstract: The disclosure discloses an apparatus for assembling a multi-component structure. The apparatus for assembling includes a pushing member fixed to a first component, a latch unit corresponding to the pushing member, the latch unit fixed to a second component. when the first component is not installed to a predetermined position of the second component, the latch unit stays in a locking position to prevent the second component from being installed to a third component; when the first component is installed to the predetermined position of the second component, the latch unit stays in an unlocking position and the second component is released to be installed to the third component. A multi-component structure is further disclosed.

Abstract: A floating directional support for adjusting a gap between a connecting plate and a joint substrate is provided. The connecting plate is mounted on a substrate. The floating directional support includes a base coupled to the substrate and an insertion member coupled to the connecting plate. The insertion member is movably coupled to the base. The gap between the connecting plate and the substrate is adjusted by moving the insertion member relative to the base.

Abstract: A mounting device includes a mounting box, a tray, and a sliding mechanism. The mounting box includes a bottom plate. The sliding mechanism includes a handle and at least one driving member. The driving member is movably coupled to the handle. In a pull configuration of the sliding mechanism, when the handle is rotated toward the bottom plate, the driving member is driven to drive the tray to move along a first direction, and when the handle is rotated away from the bottom plate, the tray is not driven to move. In a push configuration of the sliding mechanism, when the handle is rotated toward the bottom plate, the tray is not driven to move, and when the handle is rotated away from the bottom plate, the driving member is driven to drive the tray to move toward a second direction opposite to the first direction.