Accurate forecasting of renewable energy production is fundamental for operational planning and grid management, especially in systems influenced by complex environmental and infrastructure-dependent factors. Building on previous research, this study extends a multivariate machine learning approach for hydropower forecasting in Water Distribution System-integrated plants. In contrast to our earlier work, which was limited to a shorter time frame and internal validation, the current study evaluates model performance over a longer period, characterized by new production patterns. Additionally, we introduce a lagged hydropower production variable as a proxy for internal system memory. The inclusion of this feature improves the model's ability to adapt to seasonal dynamics and results in significantly enhanced forecasting accuracy.
AI-Driven Hydropower Forecasting: A Multivariate Machine Learning Approach
Sarah Di Grande
;M. Berlotti;Salvatore Cavalieri;
2025-01-01
Abstract
Accurate forecasting of renewable energy production is fundamental for operational planning and grid management, especially in systems influenced by complex environmental and infrastructure-dependent factors. Building on previous research, this study extends a multivariate machine learning approach for hydropower forecasting in Water Distribution System-integrated plants. In contrast to our earlier work, which was limited to a shorter time frame and internal validation, the current study evaluates model performance over a longer period, characterized by new production patterns. Additionally, we introduce a lagged hydropower production variable as a proxy for internal system memory. The inclusion of this feature improves the model's ability to adapt to seasonal dynamics and results in significantly enhanced forecasting accuracy.I documenti in IRIS sono protetti da copyright e tutti i diritti sono riservati, salvo diversa indicazione.


