Operational and emerging capabilities for surface water flood forecasting

Surface water (or pluvial) flooding is caused by intense rainfall before it enters rivers or drainage systems. As the climate changes and urban populations grow, the number of people around the world at risk of surface water flooding is increasing. Although it may not be possible to prevent such flo...

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Veröffentlicht in:Wiley interdisciplinary reviews. Water 2021-05, Vol.8 (3), p.e1517-n/a
Hauptverfasser: Speight, Linda J., Cranston, Michael D., White, Christopher J., Kelly, Laura
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Cranston, Michael D.
White, Christopher J.
Kelly, Laura
description Surface water (or pluvial) flooding is caused by intense rainfall before it enters rivers or drainage systems. As the climate changes and urban populations grow, the number of people around the world at risk of surface water flooding is increasing. Although it may not be possible to prevent such flooding, reliable and timely flood forecasts can help improve preparedness and recovery. Unlike riverine and coastal flooding where forecasting methods are well established, surface water flood forecasting presents a unique challenge due to the high uncertainties around predicting the location, timing, and impact of what are typically localized events. Over the past 5 years, there has been rapid development of convection‐permitting numerical weather prediction models, ensemble forecasting, and computational ability. It is now theoretically feasible to develop operational surface water forecasting systems. This paper identifies three approaches to surface water forecasting utilizing state‐of‐the‐art meteorological forecasts: empirical‐based scenarios, hydrological forecasts linked to presimulated impact scenarios, and real‐time hydrodynamic simulation. Reviewing operational examples of each approach provides an opportunity to learn from international best practice to develop targeted, impact‐based, surface water forecasts to support informed decision‐making. Although the emergence of new meteorological and hydrological forecasting capabilities is promising, there remains a scientific limit to the predictability of convective rainfall. To overcome this challenge, we suggest that a rethink of the established role of flood forecasting is needed, alongside the development of interdisciplinary solutions for communicating uncertainty and making the best use of all available data to increase preparedness. This article is categorized under: Engineering Water > Engineering Water Recent improvements in forecasting intense rainfall mean it is now possible to forecast surface water flooding. However, operational practices need to adapt to deal with short lead times and high uncertainty in decision‐making.
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subjects Best practice
Climate change
Climate models
Computer applications
Convection
Decision making
Drainage systems
Engineering
Environmental risk
Flood forecasting
Flooding
Floods
Hydrodynamics
Hydrology
Numerical weather forecasting
operational
pluvial
Prediction models
Rain
Rainfall
Risk communication
River discharge
Rivers
Surface water
Uncertainty
Urban populations
Weather forecasting
title Operational and emerging capabilities for surface water flood forecasting
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