Disclosed herein are systems and methods to perform hybridized transmission switching of an electric power system to avoid exceeding line ratings and minimize load shedding.

A dispatchable datacentre energy system is provided. The system comprises a power conditioning system for providing conditioned power to a datacentre; wherein the power conditioning system includes a primary battery system for providing a primary energy reserve to the datacentre and being available to supply power to a grid operably connected to the datacentre in response to a dispatch request from a grid operator. A secondary battery system provides a secondary energy reserve to the datacentre and being available to supply power to the grid in response to the dispatch request. A power generation system provides a third energy reserve to the datacentre and being available to supply power to the grid in response to the dispatch request. A controller is provided for predicting grid conditions and being configured for selectively controlling at least one of the primary battery system; the secondary battery system and the power generation system in response to the predicted grid conditions; and wherein the controller is responsive to the dispatch request to adjust power consumption of the datacentre from the grid or power supply from at least one of the primary battery system, the secondary battery system and the power generation to the grid.

A fault-managed power delivery system for delivery power across a distance is provided. The system includes a transmitter-side subsystem and a receiver-side subsystem. The system further includes a fault management circuitry that includes a reference resistor having a known resistance and a controller. The controller is configured to electrically connect the reference resistor between a line conductor of a line and a neutral conductor and disconnect the output power to the load during a fault-detection portion of a duty cycle of power delivered to the receiver-side subsystem. The controller is further configured to determine an impedance of the power delivery system during the fault-detection portion, determine a fault condition based on the impedance, and disconnect the line if the fault condition is detected. The fault management circuitry is positioned in the transmitter-side subsystem and/or the receiver-side subsystem.

A control process for microgrids for voltage regulation on the main bus and power factor (PF) regulation at generator terminals is presented, especially in events scheduled in the microgrid that result in electrical transients, such as direct starting of induction motors (IM). The technology takes advantage of idle capacity of distributed converters (for example: frequency inverters, variable frequency drive or VFD) of microgrids making them, in coordinated manner, injecting and/or absorbing reactive power, in addition to exploit the reduced latency of autonomous VFD control during the transient. The Power-Based Control (PBC) technique is used and a modified Volt-VAr function is created applied during the transitional regime.

A method and controller are provided for operating an isolated or weakly connected electrical grid supplied by at least one fluctuating renewable energy source, such as wind or photovoltaic generation, in combination with a grid-forming controllable inverter coupled to a battery. The inverter operates as a master controller to regulate grid frequency and voltage, while the renewable sources operate as slaves. Battery charging and discharging are controlled according to deviations in grid frequency and charge level, with slopes defined for smooth power transitions. Additional selectively driven or non-driven alternators may be coupled in parallel with the inverter to stabilize frequency, provide inertia, reactive power, and short-circuit capacity, or support load changes. Control logic further manages integration of combustion engine-driven generators, resistive load banks, and external energy banks, while accounting for battery temperature and charge thresholds, thereby ensuring stable grid operation under fluctuating generation and demand conditions.

A controller system reduces destructive harmonic content within a power network system, the power network system comprising one or more distributed energy resources, one or more distributed inverter systems, one or more nonlinear loads, and a bus coupling the one or more distributed energy resources to the one or more nonlinear loads. The controller system comprises one or more sensors; one or more hardware processors; and memory storing computer instructions, the computer instructions when executed by the one or more hardware processors configured to perform receiving, by the one or more sensors, sensor data indicative of destructive harmonic content of a particular order on the bus; and using a particular distributed energy resource and a particular distributed inverter system to inject constructive harmonic content to reduce the destructive harmonic content.

A load management system integrates comparator-based neutral sensing, machine learning prediction, and relay control into a single integrated AC board requiring no additional wiring. A highspeed comparator circuit detects grid failures in sub millisecond timeframes, providing clean data to a temporal convolutional network that predicts load requirements 24 hours in advance with integration of external data sources such as weather and time of use pricing. The system automatically manages 120V and 240V circuits during grid transitions, learning from user override patterns to continuously improve performance. A mobile application provides real-time monitoring and control. The integration of low-latency sensing with predictive machine learning enables performance improvements exceeding 40% in battery runtime compared to conventional systems, while reducing installation time and cost.

A system refers to actual weather data made publicly available by a first institution, and creates a model that uses a value of a weather element for each section as an input and uses a value of a renewable energy power generation amount of the area as an output based on the actual value of the weather element calculated for each section, and the actual value of the renewable energy power generation amount of the area. The system refers to weather prediction data made publicly available by the second institution, and calculates an actual value of the weather element regarding each of the plurality of sections including the area based on a prediction value of the weather element for each segment in the corresponding section, and calculates a prediction value of the renewable energy power generation amount based on the prediction value of the weather element for each section.

In systems and methods, a power distribution system provides power for multiple chassis installed in a rack. Two or more power supply units (PSUs) are installed in the chassis and may draw power redundantly from separate power grids supplying power to the rack. A first PSU of the chassis is coupled to one power grid and a second PSU of the same chassis is coupled to another power grid. Upon a failure in the second power grid, power drawn from the first power grid by the first PSU is limited according to a first current limit specified in a first emergency rack protection policy of the rack. Upon a failure in the first power grid, power drawn from the second power grid by the second PSU is limited according to a second current limit specified in a second emergency rack protection policy of the rack.

A power supply system 100 for synchronizing operation of plurality of converters 106 connected in parallel manner is disclosed. The power supply system 100 comprises a plurality of rectifiers 104 configured to convert an AC input into a regulated DC input voltage supplied to the converters 106. Each converter 106 is equipped with a MOSFET 202 and is connected to a CAN bus 204. A triggering unit 206 within the CAN bus 204 designates one converter 106 as the master, which transmits a synchronization signal to the slave converters to simultaneously turn ON all MOSFETs 202 during power-on. A memory 208 stores predefined threshold values of gate terminal voltage. The power supply system 100 ensures reliable start up by avoiding overcurrent trips, enabling effective load sharing, and minimizing semiconductor stress during power-on events.