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 server device includes a server rack having a front opening, a network switch device disposed in the server rack, a plurality of server computers stacked in the server rack, and a plurality of signal cables located at the front opening of the server rack. The network switch device includes a plurality of first I/O ports located at the front opening of the server rack. Each of the server computers includes a plurality of second I/O ports located at the front opening of the server rack. All of the signal cables electrically connect to both of the first I/O ports and the second I/O ports toolessly, and fix on the inner surface of the server rack.
Abstract:
Provided herein is a rack server including a rack, a plurality of system boards and a fan plate. The system boards are disposed within the rack, and each system board has a first wireless transceiver. The fan plate is also disposed within the rack, and the fan plate has a plurality of second transceivers, and the second transceivers are wirelessly connected to the first transceivers, respectively.
Abstract:
A server rack and its server device are provided. The server device includes a chassis, a motherboard module, a power-supply module, a storage array module, and a plurality of input/output interface elements. The chassis is provided with a containing space, a first opening and a second opening in which the first opening and the second opening are located at two opposite ends of the containing space. The power-supply module and the motherboard module are both disposed in the containing space and are pluggable independently, are both capable of plugging in and out from the chassis via the first opening, and are electrically connected to each other. The input/output interface elements are fixed on the motherboard module, and all of them are disposed at the first opening. The storage array module is disposed in the containing space and is slidable.
Abstract:
A circuit card assembly includes a circuit card having front and back ends, substantially parallel longitudinal edges between the front and back ends, and a bus connector extending from one of the longitudinal edges. The circuit card assembly includes a bracket structure providing a mounting surface, the mounting surface comprising a bracket for engaging with a plurality of adjacent ones of a plurality of bracket slots with openings at a fixed pitch. The circuit card assembly includes a connector assembly at the surface of said circuit card at the first end, with at least a first input/output (I/O) connector, and a second I/O connector in a stacked arrangement with respect to the surface of said circuit card, where the first I/O connector and the second I/O connector extend through the bracket and are separated by the fixed pitch.
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 computing device can be used to set up cabling connections in a network. The computing device can send a first message to a test device through a switch of a server rack. The computing device can receive a response from the test device, and identify a port of the switch currently connected to the test device based on the response. The computing device can use configuration data mapping ports of the switch to servers in the server rack to identify a particular server corresponding to the identified switch port. The computing device can send a second message to the particular server to cause a light of the particular server to be turned on.
Abstract:
A robotic vehicle, a datacenter, and a method for maintaining the datacenter are disclosed. The robotic vehicle comprises a moving apparatus, a robotic arm, a network module, and a processor. The network module receives a network packet. The processor generates the rack location and the component location according to the network packet. The processor controls the moving apparatus to move to the rack location and controls the robotic arm to move to the component location to replace a failed server component.
Abstract:
A server device includes a tray having a lug, a hard disk unit removably disposed on the tray, and a handle pivotally connected to two opposite sides of the hard disk unit. The lug is formed with a slot thereon to define two inner edges opposite to each other. The handle is provided with a protrusion arranged in the slot. When the handle is rotated towards one end of the hard disk unit, the protrusion is rotated along with the handle to contact and push one of the inner edges of the lug, such that the hard disk unit is restrained by the tray after the hard disk unit is slid in relative to the tray.
Abstract:
A power management method for a server system is provided. At least any one of a power status indication signal and an alert signal from a power supply is detected to judge whether an input voltage is normal. If it is judged that the input voltage is abnormal, a motherboard sends the power status indication signal to a battery backup unit (BBU) to inform the BBU to supply power to the motherboard. If it is judged that the input voltage is abnormal, the motherboard lowers its loading.