Abstract: Embodiments of the disclosure provide a filtration assembly. The filtration assembly includes a fluid inlet, a fluid outlet, first and second flow lines positioned fluidly between the fluid inlet and the fluid outlet, a differential pressure sensor, and a controller. The first flow line includes a first canister filter, a first filter housing, and a first valve configured to move between a closed position and an open position. The second flow line includes a second canister filter, a second filter housing, and a second valve configured to move between a closed position and an open position. The controller is configured to receive, from the differential pressure sensor, a differential pressure value, and when the differential pressure value is greater than a threshold value, generate a signal to one of the first and second valves to close the respective valve.

Abstract: A control assembly for a valve or any type of rotatable device can include a handle configured to rotate a valve member of the valve to control flow of fluid through the valve. The handle can include a locking member and a grip portion. The control assembly can include a guide body including a mounting surface, a central aperture, and a plurality of locking features. Each of the plurality of locking features can be spaced apart from a center of the central aperture by a first distance. Each of the plurality of locking features can be arranged to engage the locking member to releasably secure the handle at corresponding rotational orientations. Each rotational orientation can be associated with a corresponding flow configuration for the valve.

Abstract: A manifold assembly provided for a server rack. The manifold assembly can include a manifold tube with a port hole within a spotface that extends inward from an external surface of the manifold tube. A channel can be included having a channel aperture. A bushing can also be included with a throughbore extending along a bushing axis. The bushing can be coupled to the channel with the bushing axis in alignment with a center of the channel aperture. The channel can be rigidly secured to the manifold tube to provide structural support thereto relative to the server rack, with the bushing captivated between the channel and the manifold tube and the bushing received within the spotface.

Abstract: A manifold assembly is provided for a server rack. The manifold assembly can include a manifold tube including at least one side wall. A channel can have a top portion and a bottom portion, each including at least one attachment aperture. A first stiffener can include at least one aperture and a second stiffener can include at least one aperture. The channel can be rigidly secured to the manifold tube to provide structural support thereto relative to the server rack. The first stiffener can be at least partially received within the channel at the top portion, and the at least one attachment aperture of the top portion can be aligned with the at least one aperture of the first stiffener.

Abstract: Embodiments of the invention provide a liquid fill kit system including a rollable cart having a frame and a plurality of wheels. A tank disposed within the frame. The fill kit further includes a fluid pump including a suction interface connection and a discharge interface connection. A filter assembly mounted within the frame. A fluid pressure regulator include a fluid outlet port, the fluid pressure regulator being configured to stop a flow of fluid when a pressure exceeds a fluid pressure threshold. In a first configuration, the suction interface connection is in fluid communication with the tank, and the discharge interface connection is in fluid communication with the filter unit, the pressure regulator, and the fluid outlet port to generate a flow of fluid through the fluid outlet port.

Abstract: A server rack assembly is provided for an electronics tray and a manifold for delivery of cooling flow to the electronics tray. Mounting and alignment features on the server rack assembly, such as alignment holes and planar support surfaces, can help to provide predictable alignment between fluid ports on the manifold and fluid ports on the electronics tray. The server rack assembly can include a mounting and alignment interface coupled to the manifold and a rack support that can be coupled to the mounting and alignment interface. An equipment stop can be coupled to the rack support and can extend perpendicular to a side portion of the rack support. The equipment stop can be configured to prevent the electronics tray from being installed beyond a predetermined distance.

Abstract: A deburring tool for deburring a distal end of a bushing formed within a metal tube. The deburring tool can include a shaft extending along a shaft axis. The shaft can have a shaft distal end and a shaft proximal end. The deburring tool can also include a blade body extending radially outward from the shaft distal end. The blade body can have a cutting edge configured to engage the distal end of the bushing and remove material therealong.

Abstract: A manifold assembly provided for a server rack. The manifold assembly can include a manifold tube with a port hole within a spotface that extends inward from an external surface of the manifold tube. A channel can be included having a channel aperture. A bushing can also be included with a throughbore extending along a bushing axis. The bushing can be coupled to the channel with the bushing axis in alignment with a center of the channel aperture. The channel can be rigidly secured to the manifold tube to provide structural support thereto relative to the server rack, with the bushing captivated between the channel and the manifold tube and the bushing received within the spotface.