Abstract:
A movable data center comprising a portable enclosure in which a data processing module is operatively disposed. The data processing module is assembled onto a rack located in the enclosure that is movable between and operative position and a service position. A heat exchange module is arranged in the enclosure in air flow communication with the data processing module on the rack. The rack may be moved from the operative position in which the rack is in air flow communication with the heat exchange module to the service position in which the rack is not in air flow communication with the heat exchange module.
Abstract:
A movable data center is disclosed that comprises a movable enclosure having partitions that define a closed-loop air flow path. A plurality of fans and a plurality of data processing modules are disposed in the air flow path. A pipe network is disposed within the enclosure that includes a chilled water supply pipe that receives chilled water from a source of chilled water. A water return pipe is provided that circulates water back to the source of chilled water. A plurality of heat exchange modules is installed in the enclosure in the air flow path. The heat exchange modules receive the chilled water from the chilled water supply pipe. Each of the heat exchange modules has a water circulation tube that connects the chilled water supply pipe to the return water pipe.
Abstract:
A method for controlling a plurality of fans operatively disposed in a shipping container. The fans are arranged in a plurality of banks within a closed fluid path. Each bank has a sub-set of the fans arranged in a plurality of horizontal layers. Two banks form an adjacent pair in the closed fluid path if a fluid exiting one of the two banks next enters the other of the two banks. The method includes determining a proposed fluid flow rate for each of the banks. The method also includes modifying each of the flow rates by a respective scaling factor such that the flow rates for each adjacent pair satisfy a continuity criteria. The method further includes controlling the fans based on the modified flow rates.
Abstract:
A method for controlling a plurality of fans operatively disposed in a shipping container. The fans are arranged in a plurality of banks within a closed fluid path. Each bank has a sub-set of the fans arranged in a plurality of horizontal layers. Two banks form an adjacent pair in the closed fluid path if a fluid exiting one of the two banks next enters the other of the two banks. The method includes determining a proposed fluid flow rate for each of the banks. The method also includes modifying each of the flow rates by a respective scaling factor such that the flow rates for each adjacent pair satisfy a continuity criteria. The method further includes controlling the fans based on the modified flow rates.
Abstract:
A movable data center is disclosed that comprises a movable enclosure having partitions that define a closed-loop air flow path. A plurality of fans and a plurality of data processing modules are disposed in the air flow path. A pipe network is disposed within the enclosure that includes a chilled water supply pipe that receives chilled water from a source of chilled water. A water return pipe is provided that circulates water back to the source of chilled water. A plurality of heat exchange modules is installed in the enclosure in the air flow path. The heat exchange modules receive the chilled water from the chilled water supply pipe. Each of the heat exchange modules has a water circulation tube that connects the chilled water supply pipe to the return water pipe.
Abstract:
A movable data center comprising a portable enclosure in which a data processing module is operatively disposed. The data processing module is assembled onto a rack located in the enclosure that is movable between and operative position and a service position. A heat exchange module is arranged in the enclosure in air flow communication with the data processing module on the rack. The rack may be moved from the operative position in which the rack is in air flow communication with the heat exchange module to the service position in which the rack is not in air flow communication with the heat exchange module.