Abstract: A modular data center comprises a base electrical module including an uninterruptible power supply (“UPS”) bypass switch, a power connection terminal coupled to the bypass switch, and a UPS power connector, a UPS rack coupled to the base electrical module and configured to house a UPS that receives power from the UPS power connector, and an information technology (“IT”) equipment rack coupled to the base electrical module and configured to house IT equipment that receives power from the base electrical module, the base electrical module being external to the IT equipment rack.

Abstract: A modular data center includes a base electrical module having a casing, a controller supported by the casing, and a power distribution unit coupled to the controller. The modular data center further includes an equipment rack having a frame coupled to the base electrical module, with the frame of the equipment rack being configured to receive electronic equipment. The electronic equipment receives power from the base electrical module. The base electrical module is external to the equipment rack.

Abstract: Methods and systems for designing a liquid cooled IT room architecture for an IT room include receiving a design parameter, responsive to a user input, corresponding to at least one equipment rack in the IT room, determining a dielectric fluid return temperature Thin in the architecture based on an energy balance equation and a heat exchange equation, and responsive to receiving the design parameter and determining the dielectric fluid return temperature, dynamically calculating and displaying at least one of a surface temperature of at least one immersion-cooled equipment rack cooled by the architecture or an amount of required room cooling power per a unit of area of the IT room.

Abstract: Methods and systems for designing liquid cooled IT room architectures for an IT room using a graphical user interface include simultaneously displaying a configuration region and a results region in the graphical user interface, receiving a design parameter responsive to a user input of one of a plurality of user-selectable graphical user interface elements, determining a dielectric fluid return temperature based on an energy balance equation and a heat exchange equation, and responsive to receiving the design parameter and determining the dielectric fluid return temperature, dynamically displaying in the results region at least one of a first graph representing an amount of required room cooling power per a unit of area of the IT room or a second graph representing a surface temperature of at least one immersion-cooled equipment rack cooled by the architecture.

Abstract: Methods and systems for designing liquid cooled IT room architectures for an IT room using a graphical user interface include simultaneously displaying a configuration region and a results region in the graphical user interface, receiving a design parameter responsive to a user input of one of a plurality of user-selectable graphical user interface elements, determining a dielectric fluid return temperature based on an energy balance equation and a heat exchange equation, and responsive to receiving the design parameter and determining the dielectric fluid return temperature, dynamically displaying in the results region at least one of a first graph representing an amount of required room cooling power per a unit of area of the IT room or a second graph representing a surface temperature of at least one immersion-cooled equipment rack cooled by the architecture.

Abstract: A modular data center includes a base electrical module having a casing, a controller supported by the casing, and a power distribution unit coupled to the controller. The modular data center further includes an equipment rack having a frame coupled to the base electrical module, with the frame of the equipment rack being configured to receive electronic equipment. The electronic equipment receives power from the base electrical module. The base electrical module is external to the equipment rack.

Abstract: A method for controlling an energy storage device in an energy storage system includes accessing data stored in a remote cloud storage system where the data including time series data, performing semantic analysis on data accessed in the remote cloud storage system, determining an optimized power cap for a future time of use (TOU) period based on the semantic analysis using an optimization algorithm, and controlling the energy storage device based on the optimized power cap.