Abstract: A BESSP platform mitigates power changes from instantaneous i) startup electrical currents and/or ii) other in-rush electrical currents compared to a steady state electrical current. An electrical controller electrically connects to a remote electrical tap and sensor to sense characteristics of power coming from a main power source. The electrical controller is configured to discharge the batteries to mitigate a swing past the threshold amount from the steady state electrical current caused by the instantaneous i) startup electrical currents and/or ii) other in-rush electrical currents back up to the steady state electrical current; and thus, prevent the swing from the steady state electrical current caused by the instantaneous i) startup electrical currents and/or ii) other in-rush electrical currents from reaching and affecting electrical equipment loads connected to the BESSP platform.

Abstract: A method, apparatus, and system in which one or more instances of a same modular power skid are assembled with main and backup uninterruptible power supplies and multiple power distribution cabinets arranged in different electrical configurations and control sequences to meet two or more different datacenter tier ratings with a built-in fault tolerance via a programmable logic controller housed in one of the cabinets on the skid as well as built-in autonomous responses to equipment failures programmed into the programmable logic controller.

Abstract: An integrated platform assembled with different electrical cabinets and components mounted on a framework in order to provide a complete datacenter critical power distribution package. The integrated platform supports the weight of cabinet enclosures and UPSs mounted onto a skeletal framework, which acts as an equipment support structure and a cable routing support system. Main and redundant power supply wiring is routed along the skeletal framework to and between the cabinet enclosures and the UPSs mounted thereon. Electrical connections between the cabinets are internally connected via bus bars as switchgear cabinets. The skeletal framework has top and bottom rails run substantially parallel to each other with cross bars connecting the top and bottom rails and a top horizontal surface to which one or more of the cabinet enclosures are mounted. The skeletal framework and cabinet enclosures are fabricated prior to installation and installed as a monolithic pre-wired pre-assembled integrated platform.

Abstract: An integrated platform assembled with different electrical cabinets and components mounted on a framework in order to provide a complete datacenter critical power distribution package. The integrated platform supports the weight of cabinet enclosures and UPSs mounted onto a skeletal framework, which acts as an equipment support structure and a cable routing support system. Main and redundant power supply wiring is routed along the skeletal framework to and between the cabinet enclosures and the UPSs mounted thereon. Electrical connections between the cabinets are internally connected via bus bars as switchgear cabinets. The skeletal framework has top and bottom rails run substantially parallel to each other with cross bars connecting the top and bottom rails and a top horizontal surface to which one or more of the cabinet enclosures are mounted. The skeletal framework and cabinet enclosures are fabricated prior to installation and installed as a monolithic pre-wired pre-assembled integrated platform.

Abstract: A method, apparatus, and system in which one or more instances of a same modular power skid are assembled with main and backup uninterruptible power supplies and multiple power distribution cabinets arranged in different electrical configurations and control sequences to meet two or more different datacenter tier ratings with a built-in fault tolerance via a programmable logic controller housed in one of the cabinets on the skid as well as built-in autonomous responses to equipment failures programmed into the programmable logic controller.