Lagged power data from nearby renewable sites and decision-tree error correction improve short-term ramp forecasts and cut imbalance penalties.
Forecast-based control routes solar and stored energy to priority loads, improving reliability in portable islanded micro utilities.
Voltage and current monitoring identifies connected loads and actual power use, enabling fair portable generator rental fees and user feedback.
Weather-aware control predicts future load and conditions to preserve remaining power and keep essential devices running during abnormal weather.
A regularized neural network switches PV array topologies from irradiance data to cut partial shading losses and raise solar power output.
Forecast-based charge and discharge scheduling balances renewable output smoothing, SOC targets, and lithium battery life.
Virtual energy credits let users borrow from and return power to the grid, reducing price-loss trading while balancing supply and demand.
Models 3D site shading, effective irradiance, and module-level mismatch to improve PV energy yield estimates under complex conditions.
Standardized power profiles and blockchain records let users request, approve, and trade preferred electricity sources with more flexibility.
Forecast-based dispatch and reserve scheduling helps hybrid power plants meet grid signals while protecting storage lifetime and profitability.
Forecast-based dispatch aligns renewable output with grid demand while routing surplus power to storage or conversion equipment to limit curtailment.
Predicting battery end-of-night charge and fictitious extra-energy helps mini-grids allocate solar power, meet demand, and avoid blackouts.