Accurate meteorological forecasts and hydrological modeling are essential for sustainable water resources management, especially under the growing pressure of climate change. The increasing demand for hydropower to support power grid stability, together with the need to preserve storage capacity for flood mitigation, requires decision-support systems able to forecast water availability across multiple timescales. This paper presents the framework adopted by Dolomiti Energia within an integrated weather-hydrological modeling chain based on the MIKE Powered by DHI software, enhanced by a machine learning correction layer and forced by a multi-model ensemble of meteorological forecasts, to support the management of 11 reservoirs characterized by different storage capacities and hydrological regimes. The results demonstrate that short-term inflow forecasts significantly enhance both routine hydropower operations and flood events management. Furthermore, the consistency of results across different meteorological forcing models confirms the robustness of the hydrological modeling chain and supports the adoption of a multi-model meteorological ensemble approach to better characterize forecast uncertainty. For snow-dominated storage reservoirs, where Snow Water Equivalent (SWE) estimates are used as the primary decision-support indicator in place of short-term inflow forecasts, estimate accuracy decreases with the increasing complexity of the hydraulic diversion network

Hydrological modeling to support water management and hydropower production: a case study / Carlin, M., Lomazzi, M., Rameni, F., Ippoliti, S., Bandera, D., Avesani, D., Majone, B., Matiu, M.C., Giovannini, L., Zardi, D., Franzinelli, A., Colaone., F.. - (2026). (AEIT 2026 Roma 8-10 settembre 2026).

Hydrological modeling to support water management and hydropower production: a case study

Mattia Carlin
;
Simone Ippoliti;Diego Bandera;Diego Avesani;Bruno Majone;Michael Christian Matiu;Lorenzo Giovannini;Dino Zardi;
2026-01-01

Abstract

Accurate meteorological forecasts and hydrological modeling are essential for sustainable water resources management, especially under the growing pressure of climate change. The increasing demand for hydropower to support power grid stability, together with the need to preserve storage capacity for flood mitigation, requires decision-support systems able to forecast water availability across multiple timescales. This paper presents the framework adopted by Dolomiti Energia within an integrated weather-hydrological modeling chain based on the MIKE Powered by DHI software, enhanced by a machine learning correction layer and forced by a multi-model ensemble of meteorological forecasts, to support the management of 11 reservoirs characterized by different storage capacities and hydrological regimes. The results demonstrate that short-term inflow forecasts significantly enhance both routine hydropower operations and flood events management. Furthermore, the consistency of results across different meteorological forcing models confirms the robustness of the hydrological modeling chain and supports the adoption of a multi-model meteorological ensemble approach to better characterize forecast uncertainty. For snow-dominated storage reservoirs, where Snow Water Equivalent (SWE) estimates are used as the primary decision-support indicator in place of short-term inflow forecasts, estimate accuracy decreases with the increasing complexity of the hydraulic diversion network
2026
AEIT2026 – International Annual Conference
Roma
A.E.I.T. - Ass. Italiana di Elettrotecnica Elettronica Automaz. Informatica e Telecomunicaz.
9788887237641
Carlin, Mattia; Lomazzi, Marco; Rameni, Fabio; Ippoliti, Simone; Bandera, Diego; Avesani, Diego; Majone, Bruno; Matiu, Michael Christian; Giovannini, ...espandi
Hydrological modeling to support water management and hydropower production: a case study / Carlin, M., Lomazzi, M., Rameni, F., Ippoliti, S., Bandera, D., Avesani, D., Majone, B., Matiu, M.C., Giovannini, L., Zardi, D., Franzinelli, A., Colaone., F.. - (2026). (AEIT 2026 Roma 8-10 settembre 2026).
File in questo prodotto:
Non ci sono file associati a questo prodotto.

I documenti in IRIS sono protetti da copyright e tutti i diritti sono riservati, salvo diversa indicazione

Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/11572/501510
 Attenzione

Attenzione! I dati visualizzati non sono stati sottoposti a validazione da parte dell'ateneo

Citazioni
  • ???jsp.display-item.citation.pmc??? ND
  • Scopus ND
  • ???jsp.display-item.citation.isi??? ND
  • OpenAlex ND
social impact