Uncertainty propagation from gridded precipitation datasets to streamflow simulations: application to the Reno River basin (Italy)

The development of gridded precipitation datasets has accelerated in recent decades, establishing them as crucial tools in hydrological analysis. This study aims to unravel the propagation of uncertainty in hydrological modelling from precipitation data to streamflow simulations. To this end, we examined the impact of using state-of-the-art datasets as model input for the Reno River basin in Italy. Our results show that (1) while seasonal precipitation patterns are similar, wet season and annual averages differ, particularly in the mountainous sub-basin; (2) the mountainous sub-basin exhibits large variability, with winter peak flows frequently underestimated; (3) uncertainties in precipitation propagate into the dry season, where variability is relatively greater than for the entire basin. We also examined the significance of addressing uncertainty in hydrological modelling at various scales. These findings underscore the influence of precipitation data uncertainty on hydrological calculations, particularly in regions with complex topography.

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Publication Details

Journal
Hydrological Sciences Journal
Published
2025-11-20
DOI
https://doi.org/10.1080/02626667.2025.2590597
Primary Topic
Hydrology and Watershed Management Studies
Type
article
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article

Uncertainty propagation from gridded precipitation datasets to streamflow simulations: application to the Reno River basin (Italy)

Giuliano Di Baldassarre, Omar Cenobio-Cruz
Hydrological Sciences Journal
Hydrology and Watershed Management Studies
article

Uncertainty propagation from gridded precipitation datasets to streamflow simulations: application to the Reno River basin (Italy)

Giuliano Di Baldassarre, Omar Cenobio-Cruz
article en

Abstract

The development of gridded precipitation datasets has accelerated in recent decades, establishing them as crucial tools in hydrological analysis. This study aims to unravel the propagation of uncertainty in hydrological modelling from precipitation data to streamflow simulations. To this end, we examined the impact of using state-of-the-art datasets as model input for the Reno River basin in Italy. Our results show that (1) while seasonal precipitation patterns are similar, wet season and annual averages differ, particularly in the mountainous sub-basin; (2) the mountainous sub-basin exhibits large variability, with winter peak flows frequently underestimated; (3) uncertainties in precipitation propagate into the dry season, where variability is relatively greater than for the entire basin. We also examined the significance of addressing uncertainty in hydrological modelling at various scales. These findings underscore the influence of precipitation data uncertainty on hydrological calculations, particularly in regions with complex topography.

Hydrological Sciences JournalVol. 71(2)
Uppsala University (SE), Centre of Natural Hazards and Disaster Science (SE)
Openalex Percentile: Top 67%
Hydrology and Watershed Management Studies
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