The role of urban growth, climate change, and their interplay in altering runoff extremes

Changes in climate and urban growth are the most influential factors affecting hydrological characteristics in urban and extra‐urban contexts. The assessment of the impacts of these changes on the extreme rainfall–runoff events may have important implications on urban and extra‐urban management poli...

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Veröffentlicht in:Hydrological processes 2018-06, Vol.32 (12), p.1755-1770
Hauptverfasser: Arnone, Elisa, Pumo, Dario, Francipane, Antonio, La Loggia, Goffredo, Noto, Leonardo V.
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container_end_page 1770
container_issue 12
container_start_page 1755
container_title Hydrological processes
container_volume 32
creator Arnone, Elisa
Pumo, Dario
Francipane, Antonio
La Loggia, Goffredo
Noto, Leonardo V.
description Changes in climate and urban growth are the most influential factors affecting hydrological characteristics in urban and extra‐urban contexts. The assessment of the impacts of these changes on the extreme rainfall–runoff events may have important implications on urban and extra‐urban management policies against severe events, such as floods, and on the design of hydraulic infrastructures. Understanding the effects of the interaction between climate change and urban growth on the generation of runoff extremes is the main aim of this paper. We carried out a synthetic experiment on a river catchment of 64 km2 to generate hourly runoff time series under different hypothetical scenarios. We imposed a growth of the percentage of urban coverage within the basin (from 1.5% to 25%), a rise in mean temperature of 2.6 °C, and an alternatively increase/decrease in mean annual precipitation of 25%; changes in mean annual precipitation were imposed following different schemes, either changing rainstorm frequency or rainstorm intensity. The modelling framework consists of a physically based distributed hydrological model, which simulates fast and slow mechanisms of runoff generation directly connected with the impervious areas, a land‐use change model, and a weather generator. The results indicate that the peaks over threshold and the hourly annual peaks, used as hydrological indicators, are very sensitive to the rainstorm intensity. Moreover, the effects of climate changes dominate on those of urban growth determining an exacerbation of the fast runoff component in extreme events and a reduction of the slow and deep runoff component, thus limiting changes in the overall runoff.
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ispartof Hydrological processes, 2018-06, Vol.32 (12), p.1755-1770
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source Wiley Journals
subjects Annual
Annual precipitation
Atmospheric precipitations
Catchment area
Climate change
Climate effects
Computer simulation
extreme
Extreme weather
Flood management
Frameworks
Growth
Hydrologic models
Hydrology
Mean annual precipitation
Mean temperatures
Modelling
Policies
Precipitation
Rain
Rainfall
Rainfall frequency
River catchments
Rivers
Runoff
runoff change
runoff components
tRIBS model
Urban areas
Urban climates
Urban development
urban growth
Urban runoff
Urban sprawl
title The role of urban growth, climate change, and their interplay in altering runoff extremes
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