Abstract:
In some implementations, a hard drive carrier is configured to couple and decouple a hard drive to/from a chassis (e.g., motherboard). The hard drive carrier can receive and house a hard drive in a base securing portion, the base securing portion adapted to slide and tilt in relation to a base of the hard drive carrier. The hard drive carrier can include a pivoting lever comprising a handle that can be used to couple and decouple the hard drive from the motherboard. Using the handle to pivot the lever into an open position causes the hard drive to tilt upwards to decouple from the chassis and facilitate insertion or removal of the hard drive to/from the hard drive carrier. Pivoting the lever into a closed position causes the hard drive to lie flat and couple to the chassis.
Abstract:
A hard drive tray device applied in a server is provided. The server includes a housing. The hard drive tray device includes a rail member and a tray. The rail member is disposed at the inner wall of the housing. The tray is slidably engaged with the rail member so as to slide between an expanded position and a closed position relative to the housing. The tray includes a base for carrying two storage devices. The base has a hollow portion. The storage devices are respectively located at two sides of the hollow portion. When the tray slides to the expanded position, one of the storage devices and at least a part of the hollow portion are located outside the housing.
Abstract:
A rack server system and a control method thereof are provided. The rack server system establishes a communication link for communicating with a battery backup unit. The battery backup unit is connected to a power input port of the rack server system, and includes a number of battery modules connected with each other in parallel. The rack server system controls the battery backup unit to perform validity test on a first battery module during a first period and to perform validity test on a second battery module during a second period, wherein the first period and the second period are not overlapped with each other.
Abstract:
A server assembly including a housing having a slidable tray transitionable between an open configuration and a closed configuration. A plurality of tray bodies disposed in the slidable tray, each of the plurality of tray bodies configured to removably receive at least one component module. The plurality of tray bodies arranged in rows, one behind the other, thereby having an first tray body and a second tray body. The second tray body is transitionable between a loading configuration and stored configuration. The storing configuration, the second tray body is arranged adjacent to the first tray body such that the receiving assembly is inaccessible. The loading configuration, the second tray body is translated relative to the tray and the first tray body such that the receiving assembly is accessible.
Abstract:
An apparatus comprising a wall of a drawer adapted to secure a set of cables at a first end, the set of cables can be housed in a cable housing, the wall coupled to a roller and a flattening appendage. In some implementations, the apparatus can comprise a deck comprising a plate adapted to secure the set of cables at a second end, the plate located at a midpoint of the deck. Alternatively, a drawer is adapted to slide along the deck, a shelf attached to the drawer. The flattening appendage presses down on the first end of the set of cables and the roller presses down on the second end of the set of cables as the drawer is opened and closed such that the set of cables is stored neatly under the drawer.
Abstract:
A modular chassis includes a first casing module, a second casing module and a back plate module. The second casing module and the back plate module are disposed inside the first casing module. The first casing module includes a first outer box and a second outer box, in which the second outer box is capable of sliding relative to the first outer box and joining to the first outer box such that the length of the first casing module is adjustable.
Abstract:
A rack server system and an operating method applicable thereto are provided. The rack server system includes a battery backup unit (BBU) and at least one server. The operating method includes: communicating the server and the BBU with each other; the BBU providing a status information and a previous self-discharging test information to the server for the server to judge a status of the BBU; and providing power from the BBU to the server and adjusting a loading of the server according to the status information of the BBU when an input power is interrupted.
Abstract:
A storage array module and a hard disk accommodating unit thereof are provided. The hard disk accommodating unit includes a fixing recess, a first tray and a second tray. The first tray is reciprocally and slidably disposed in the fixing recess. The second tray is reciprocally and slidably disposed on the first tray. When the second tray slides a distance in a sliding direction, the second tray pushes the first tray into the fixing recess, after the second tray reversely slides the distance in the sliding direction, the second tray pushes the first tray for protruding out of the fixing recess.