Rising energy demand intensifies stress on power systems, necessitating solutions that integrate renewables with storage for grid stability. This study develops an optimal scheduling strategy for a hybrid system combining wind farms with pumped hydro storage, specifically for demand response and peak load reduction. A finite-horizon optimization model is formulated to manage real-time operation using forecasts of wind generation and load demand. A three-layer artificial neural network provides these forecasts from historical data. The week ahead scheduling framework, solved in Pyomo with the IPOPT solver, adheres to all operational constraints. Application to a case study and numerical simulations demonstrate the model's effectiveness in diminishing energy demand and improving grid operational efficiency.
Grid Integration of Renewable Energy Through Wind-Pumped Hydro Storage for Load Limiting
Zahmoun S.;Zero E.;Soussi A.
2025-01-01
Abstract
Rising energy demand intensifies stress on power systems, necessitating solutions that integrate renewables with storage for grid stability. This study develops an optimal scheduling strategy for a hybrid system combining wind farms with pumped hydro storage, specifically for demand response and peak load reduction. A finite-horizon optimization model is formulated to manage real-time operation using forecasts of wind generation and load demand. A three-layer artificial neural network provides these forecasts from historical data. The week ahead scheduling framework, solved in Pyomo with the IPOPT solver, adheres to all operational constraints. Application to a case study and numerical simulations demonstrate the model's effectiveness in diminishing energy demand and improving grid operational efficiency.I documenti in IRIS sono protetti da copyright e tutti i diritti sono riservati, salvo diversa indicazione.



