Drought risk assessment for future climate projections in the Nakdong River Basin, Korea

To prepare for the potential of extreme drought caused by climate change, both physical and socioeconomic factors need to be considered. In this study, three general circulation models were selected: IPSL‐CM5A‐LR, HadGEM2‐AO, and CanESM2 as representative scenarios for severe, moderate, and relative...

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Veröffentlicht in:International journal of climatology 2020-08, Vol.40 (10), p.4528-4540
Hauptverfasser: Kim, Jong‐Suk, Park, Seo‐Yeon, Hong, Hyun‐Pyo, Chen, Jie, Choi, Si‐Jung, Kim, Tae‐Woong, Lee, Joo‐Heon
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container_end_page 4540
container_issue 10
container_start_page 4528
container_title International journal of climatology
container_volume 40
creator Kim, Jong‐Suk
Park, Seo‐Yeon
Hong, Hyun‐Pyo
Chen, Jie
Choi, Si‐Jung
Kim, Tae‐Woong
Lee, Joo‐Heon
description To prepare for the potential of extreme drought caused by climate change, both physical and socioeconomic factors need to be considered. In this study, three general circulation models were selected: IPSL‐CM5A‐LR, HadGEM2‐AO, and CanESM2 as representative scenarios for severe, moderate, and relatively weak droughts to assess the risk of droughts for future climate projections. Drought hazard was estimated using the meteorological drought index to determine drought frequency, severity, and probability. Population density, agricultural land area, and municipal, agricultural, and industrial water demand were used as drought vulnerability indicators. The Analytical Hierarchy Process technique was applied to determine the weight of each indicator, and the integrated drought risk was then estimated. HadGEM2‐AO and CanESM2 projected that drought risk would be reduced in the far future. IPSL‐CM5A‐LR projected an increased drought risk in the near and far future in the downstream area of the Nakdong River Basin. This study presented a quantitative approach to identify high drought‐risk areas that should be the focus of future extreme drought assessments and mid‐ to long‐term drought mitigation strategies. Location of the study area and sub‐basin regions. The numbers shown on the map indicate basin identification numbers for the 33 sub‐basins of the Nakdong River, Korea.
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This study presented a quantitative approach to identify high drought‐risk areas that should be the focus of future extreme drought assessments and mid‐ to long‐term drought mitigation strategies. Location of the study area and sub‐basin regions. 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subjects Agricultural land
Analytic hierarchy process
analytical hierarchy process
Climate change
Climatic extremes
Drought
drought Hazard
Drought index
drought risk assessment
drought vulnerability
Environmental assessment
Environmental risk
Extreme drought
Extreme weather
Future climates
General circulation models
Industrial water
Mitigation
Population density
Probability theory
Risk assessment
River basins
Rivers
Social factors
Socioeconomic data
Socioeconomic factors
Socioeconomics
Vulnerability
Water demand
Weather hazards
title Drought risk assessment for future climate projections in the Nakdong River Basin, Korea
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