A mechanical enclosure for a power converter is disclosed. In some embodiments, the mechanical enclosure comprises a base; a first compartment configured for receiving one or more electronic devices; and a second compartment configured for receiving a magnetic device, the second compartment formed by a cavity protruding from a bottom surface of the base.

Disclosed herein is a computer circuit card cage system configured to house one or more computer circuit cards. The computer circuit card cage system can comprise a housing comprising one or more walls having one or more apertures formed therein. The computer circuit card cage system can further comprise one or more support rails supported on one or more of the walls and configured to support a computer circuit card. The one or more support rails can have one or more apertures formed therein to facilitate flow of a fluid through the one or more support rails. The flow path of the fluid is through the one or more apertures in the walls of the housing, and the one or more apertures in the support rails.

A chassis adapted to receive a holding seat includes a bottom plate and the holding seat. The bottom plate has a chassis rail. The holding seat is adapted to be received in the chassis, and the holding seat includes a first base, a handle, and a connecting rod. The first base has a base rail. The handle is pivotally connected to the first base. A first end of the connecting rod is pivotally connected to the handle, and a second end of the connecting rod is slidably disposed in the base rail and the chassis rail.

A pushing mechanism, configured to be disposed on a case body, includes a fixed component, a slidable component and a pushing component. The slidable component is disposed on the fixed component and includes a connection plate and a guiding plate. The guiding plate protrudes from the connection plate and has a first supporting portion, a second supporting portion and an inclined guiding portion connected to the first supporting portion and the second supporting portion. The first supporting portion is closer to the connection plate than the second supporting portion. The pushing component is disposed on the fixed component. A slidable direction of the pushing component differs from a slidable direction of the slidable component. When the slidable component is moved relative to the fixed component, the pushing component is guided by the guiding plate to slide between the first supporting portion and the second supporting portion.

An electronic device including a chassis, a motherboard, an expansion card and a support. The motherboard is disposed in the chassis. The expansion card includes a circuit board assembly and a fixing plate. The circuit board assembly is fixed to a side of the fixing plate. The circuit board assembly is electrically connected to the motherboard and is fixed to the chassis via the fixing plate. A side of the support supports a side of the circuit board assembly that is located farthest from the fixing plate. A side of the support that is located farthest from the circuit board assembly is fixed to the motherboard and the chassis.

A server system comprises a deck, a front panel arranged on the deck and defining a collecting space; two doors arranged on opposite sides of the deck, and being perpendicular to the front panel; two receiving frame structures arranged between the doors in a back to back arrangement, and configured to receive multiple rows and columns of a plurality of storage drives horizontally, wherein two periphery corridors are each defined between one of the doors and one of the receiving frame structure facing the one door; two circuit boards arranged between the two receiving frame structures, wherein the two circuit boards comprise a plurality of slits, wherein a central corridor is defined between the two circuit boards; a storage cover disposed above the deck over the two periphery corridors, the central corridor, the two receiving frame structures, and the two circuit boards.

The systems and methods disclosed are directed towards a retractable and adjustable display arm for a data center cabinet that allows a user to access internal components of the data center cabinet without completely detaching a display from the data center cabinet. The retractable and adjustable display arm has an attachment base to pivotally couple the retractable and adjustable display arm to the data center cabinet, and also has a mounting portion for mounting a display, such as a computer display monitor, tablet, or the like, to the retractable and adjustable display arm. The attachment base achieves the pivotal coupling between the retractable and adjustable display arm to the data center cabinet using one or more hinges. Further, the mounting portion has one or more adjustable supports, allowing displays of varying sizes to be mounted in various locations on the mounting portion.

Securing a riser cage and/or electronic components coupled thereto within an information handling system can be accomplished using a riser cage apparatus. The riser cage may be configured to removably secure the electronic components to a surface of the information handling system using one or more fasteners configured to couple the riser cage to a surface of a chassis. The one or more fasteners may comprise a protrusion configured to engage a pin coupled to the surface. The protrusion of the one or more fasteners may be movable relative to the riser cage between a first locked position in which the pin coupled to the surface is engaged by the protrusion and a second unlocked position in which the pin coupled to the surface is not engaged by the protrusion.

An electronic equipment chassis comprises a chassis housing and two or more cooling compartments in the chassis housing. At least a first one of the two or more cooling compartments in the chassis housing utilizes a first type of cooling for a first set of electronic equipment housed therein, and at least a second one of the two or more cooling compartments in the chassis housing utilizes a second type of cooling for a second set of electronic equipment housed therein. The first type of cooling comprises liquid immersion cooling and the second type of cooling comprises non-liquid immersion cooling.

A robotic datacenter assembly includes a datacenter which stores a plurality of data storage units. A rail system is integrated into the datacenter and the rail system is positioned adjacent to the ceiling such that the rail system is spaced above the plurality of data storage units. An operational command unit is positioned in the datacenter and the operational command unit stores a database which includes robotic operational software. A plurality of drive units each movably engages the rail system such that each of the drive units can travel along the rail system. A plurality of robotic arms is each integrated into a respective one of the drive units having each of the robotic arms extending downwardly from the rail system. Each of the robotic arms is actuatable to manipulate any of the data storage units thereby facilitating hardware in any of the data storage units to be serviced or replaced by the robotic arms.