Abstract:
A retractable component tray holder includes: an outer tray having first and second outer tray sidewalls, and a bottom; an inner tray configured to retract into and extend from the outer tray, the inner tray having a first inner tray sidewall and a bottom; a fan chassis configured to receive at least one fan, the fan chassis being adjacent a rear of the inner tray; a bottom support assembly comprising a first bottom support slideably mounted on the bottom of the outer tray, a second bottom support slideably mounted on the first bottom support, and the inner tray being slideably mounted on the second bottom support; and a second side support assembly comprising a side support slideably mounted on the second sidewall, a bracket slideably mounted on the side support, and the fan chassis mounted on the bracket.
Abstract:
Latch mechanism having a latch slide having a receiving portion and configured to couple a component with a server chassis. A latch ramp disposed on the latch slide at a first end of the receiving portion, a release ramp disposed on the latch slide at a second end of the receiving portion, and a biasing element biasing the latch slide in a latched position. The latch ramp configured to draw the pin into the receiving portion and the release ramp configured to draw the pin away from the receiving portion. When the latch slide transitions to the latched position, the pin is received in the receiving portion and engages the latch ramp, thereby sliding the latch slide and compressing the biasing element. When the latch slide transitions to the unlatched position, the biasing member is compressed causing the pin to engage the release ramp and translate the component.
Abstract:
A component carrier includes a housing having an open front portion, two partially open sidewalls, and a partial rear wall forming a receiving space. The receiving space is configured to receive at least one storage device. A flange extending from the housing is configured to receive a first insertable connector. The first insertable connector is configured to engage an electronic device, thereby securing the carrier assembly to the electronic device. A front panel is configured to be coupled with the housing by a second insertable connector, thereby enclosing the receiving space. The second insertable connector configured to engage one partially open sidewall. The first insertable connector and the second insertable connector are individually transitionable between a secured configuration and an unsecured configuration without tools.
Abstract:
A removable chassis for a server rack includes two side walls, an accommodation space, and a carrier tray. The two side walls are on either side of the removable chassis, where each side wall includes a slide rail for sliding the removable chassis into or out of the server rack. The accommodation space is defined between the two sidewalls. The accommodation space is divided into a plurality of compartments by a plurality of dividers. The carrier tray is slidably attached to each compartment and held in place by friction. The carrier tray includes at least one recess for each removably receiving an electronic device.
Abstract:
A component carrier can have a housing forming a receiving space configured to receive at least one component through a receiving opening. A pivotable sidewall can be coupled to the housing and transitionable between an open configuration and a closed configuration. A releasable latch coupled to the front portion of the housing capable of being secured the pivotable sidewall in the closed configuration. In the open configuration, the receiving opening is accessible. In the closed configuration, the pivotable sidewall secured to the housing by the releasable latch and the receiving opening is inaccessible.
Abstract:
Various embodiments of the present technology provide systems and methods for mounting and dismounting a computing component (e.g., a HDD) of a server system. The server system contains a motherboard that includes at least one designated base bracket. Each of the at least one designated base bracket is configured to enable a carrier of a computing component to be mounted on and detached from. A designated base bracket can include one or more movable pins, one or more fixed pins, and a close latch.
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:
A fixing bracket is used to fix a plurality of storage devices in a housing. Each of the storage devices has a first sidewall and a second sidewall opposite and respectively having plurality of fixing holes. The fixing bracket includes a frame body and two pivotal members. The frame body has an opening and an accommodating space. The frame body includes a plurality of first fixing pins in the accommodating space. The storage devices can be accommodated in the accommodating space. Each of the first fixing pins is for being inserted into the corresponding fixing hole on the first sidewall. The pivotal members are pivotally connected to the frame body. Each of the pivotal members includes a plurality of second fixing pins. When the pivotal members cover parts of the opening, each of the second fixing pins is for being inserted into the corresponding fixing hole on the second sidewall.
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 hybrid cooling system is configured to receive heat-generating components of an information technology (IT) device. The system includes a chassis having a peripheral wall that extends between a chassis base and an open top surface, the peripheral wall forming an enclosure between an upstream side and a downstream side. An immersion conduit delivers an immersion coolant and fills the enclosure to fully immerse the heat-generating components. An outlet duct drain overflow of the immersion coolant accumulated in the enclosure. A cold plate within the enclosure is configured for direct contact with at least one heat-generating component. A supply conduit delivers a direct coolant in cooled form within the cold plate, and is in flow communication with a cold plate inlet connector. A return conduit removes the direct coolant in heated form from the cold plate, and is in flow communication with a cold plate outlet connector.