This disclosure provides storage chassis including base storage sub-assemblies and partitions. Base includes bottom plate, top plate, first side plate and second side plate. Front side of bottom plate is opposite to back side of bottom plate. Bottom plate is located opposite to top plate. First side plate is located opposite to second side plate. First side plate and second side plate are connected to and located between bottom plate and top plate. Storage sub-assemblies are movably disposed between first side plate and second side plate. Partitions are disposed between first side plate and second side plate. Opposite ends of each partition are respectively connected to top plate and bottom plate. Partitions separate storage sub-assemblies from one another so that storage sub-assemblies are respectively located in airflow channels that are independent to one another.

A server case includes a case, a drawer body, and a adjustable device. The drawer body is received in the case. The adjustable device includes a first end, a second end, and a adjustable structure. The second end is connected to the drawer body, the adjustable structure is connected to the first end and the second end, and a distance between the first end and the second end is changeable. The drawer body received in the case is moved until at least a part of the drawer body is located outside the case, to change the distance between the first end and the second end.

A computer system includes a computer casing having a casing wall having an opening to pass through a connection means; a circuit board having the connection means; and a centering means arranged in the casing, wherein the centering means is formed to cooperate with the circuit board such that the circuit board is centered with respect to the casing wall in a direction of the casing wall in a placing movement so that the connection means takes a predetermined position flush with respect to the opening in the casing wall and can plunge into the opening.

In accordance with embodiments of the present disclosure, a vibrational isolator may include at least one supporting section and at least one attachment member mechanically coupled to the at least one supporting section and configured to mechanically couple to a chassis, such that when disposed in a chassis, the at least one supporting section suspends from the chassis and is configured to support vibration-generating equipment. In accordance with these and other embodiments of the present disclosure, a method may include forming at least one supporting section and forming at least one attachment member mechanically coupled to the at least one supporting section and configured to mechanically couple to a chassis, such that when disposed in a chassis, the at least one supporting section suspends from the chassis and is configured to support vibration-generating equipment.

Embodiments of the present disclosure provide a top cover arrangement for a storage and the corresponding storage. The storage comprises a drawer chassis which accommodates disks that are organized among a plurality of rows. The top cover arrangement covers the disks in a foldable manner and comprises: a substrate covering the disks and being flexible; and a plurality of folding parts mounted on the substrate and corresponding to the plurality of the rows; the folding parts being adapted to be at least partially folded to expose at least one row of disks in response to the disks being pulled out of the drawer chassis.

A booster lever unit includes a first lever pivotably supported by an object via a first pivotal shaft, a second lever pivotably supported by the object via a second pivotal shaft, and a linkage member that links the first lever to the second lever. The pivotal plane of the first lever is parallel to the pivotal plane of the second lever. The first lever has one end provided with an operation section, and another end provided with the first pivotal shaft, and the first lever further includes a first linker, the first linker being provided between the operation section and the first pivotal shaft and linked to the linkage member. The second lever has one end provided with an action section, and another end provided with a second linker linked to the linkage member, and the second pivotal shaft is provided between the action section and the second linker.

The present disclosure provides a storage chassis and an electronic device including the storage chassis. The storage chassis has a first receiving space at an upper portion of a rear end, the first receiving space is configured to be shared by a plurality of functional modules, and each functional module includes cable management supports, CPU computation control modules or storage hard disks. In the present disclosure, more modules can be arranged in a limited chassis space flexibly and reasonably, thereby improving the utilization of the chassis space and implementing configuration of various functions.

A structure for facilitating hard disk maintenance comprises a housing, a hard disk bracket, a hard disk backplane, a hard disk, and a hard disk mounting assembly. The hard disk bracket is provided at a front end and a rear end of the housing. The hard disk backplane connects to a bottom of the housing and the hard disk mounting assembly. The hard disk mounting assembly connects to the hard disk bracket. The hard disk backplane is further provided with a hard disk interface, and the hard disk is also connected to the hard disk interface.

Embodiments promote the maintenance of a designed flow of cooling air through a chassis during the servicing of one or more electronic components contained by the chassis. A top opening created by the removal of server chassis from a rack may be significantly reduced by internal lids that provide access to groups of components. Gaps created by the partial removal of groups of components may be significantly reduced by air dams attached to the components that inhibit the flow of air between the components. And the opening created by the removal of a circuit board may be significantly reduced by a flap configured to cover the opening upon removal of the circuit board. The various embodiments may be used individually or in combination to reduce openings in the chassis that may allow air to flow in paths that negatively affect the designed air flow.

A structure for facilitating hard disk maintenance comprises a housing, a hard disk bracket, a hard disk backplane, a hard disk, and a hard disk mounting assembly. The hard disk bracket is provided at a front end and a rear end of the housing. The hard disk backplane connects to a bottom of the housing and the hard disk mounting assembly. The hard disk mounting assembly connects to the hard disk bracket. The hard disk backplane is further provided with a hard disk interface, and the hard disk is also connected to the hard disk interface.