Evaluating and Predicting the Effects of Land Use Changes on Water Quality Using SWAT and CA–Markov Models

Dongliao River Basin (DLRB) is facing serious deterioration of water quality impacted by anthropogenic activities. As China attaches increasing importance to environmental protection, many regions are trying to reduce water pollution through land use changes. The long-term variations of the nonpoint...

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Veröffentlicht in:Water resources management 2019-11, Vol.33 (14), p.4923-4938
Hauptverfasser: Gong, Xiaoyan, Bian, Jianmin, Wang, Yu, Jia, Zhuo, Wan, Hanli
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container_issue 14
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creator Gong, Xiaoyan
Bian, Jianmin
Wang, Yu
Jia, Zhuo
Wan, Hanli
description Dongliao River Basin (DLRB) is facing serious deterioration of water quality impacted by anthropogenic activities. As China attaches increasing importance to environmental protection, many regions are trying to reduce water pollution through land use changes. The long-term variations of the nonpoint source (NPS) pollution affected by land use changes in the DLRB have not been previously assessed. In this study, the contributions of land use/land cover (LULC) changes in 1980–2015 to NPS pollution were evaluated by comparing simulations under paired land use scenarios using the Soil and Water Assessment Tool (SWAT). The historical trend and ecological protection scenarios in 2025 were established based on CA–Markov model, and pollution loads in both scenarios were forecasted. Results show that the expansion of dryland and urban areas and the decline in forest and grassland coverage were the major contributors to the increase in NPS pollution in the DLRB. The expansion of paddy field resulted in an increase in actual total phosphorus (TP) but a decrease in total nitrogen (TN). In the historical trend scenario, dryland would decrease by 4.57%. TN and TP loads were 1.40% and 1.45% lower than those in 2015, respectively. In the ecological protection scenario, TN and TP loads were 3.37% and 6.11% lower than those in 2015, respectively, due to the decreased area of dryland by 7.22%. Pollutions in the riverside and southeast areas of the basin would be reduced in 2025. This finding shows that NPS pollution is controlled under the current policy.
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In the historical trend scenario, dryland would decrease by 4.57%. TN and TP loads were 1.40% and 1.45% lower than those in 2015, respectively. In the ecological protection scenario, TN and TP loads were 3.37% and 6.11% lower than those in 2015, respectively, due to the decreased area of dryland by 7.22%. Pollutions in the riverside and southeast areas of the basin would be reduced in 2025. 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As China attaches increasing importance to environmental protection, many regions are trying to reduce water pollution through land use changes. The long-term variations of the nonpoint source (NPS) pollution affected by land use changes in the DLRB have not been previously assessed. In this study, the contributions of land use/land cover (LULC) changes in 1980–2015 to NPS pollution were evaluated by comparing simulations under paired land use scenarios using the Soil and Water Assessment Tool (SWAT). The historical trend and ecological protection scenarios in 2025 were established based on CA–Markov model, and pollution loads in both scenarios were forecasted. Results show that the expansion of dryland and urban areas and the decline in forest and grassland coverage were the major contributors to the increase in NPS pollution in the DLRB. The expansion of paddy field resulted in an increase in actual total phosphorus (TP) but a decrease in total nitrogen (TN). In the historical trend scenario, dryland would decrease by 4.57%. TN and TP loads were 1.40% and 1.45% lower than those in 2015, respectively. In the ecological protection scenario, TN and TP loads were 3.37% and 6.11% lower than those in 2015, respectively, due to the decreased area of dryland by 7.22%. Pollutions in the riverside and southeast areas of the basin would be reduced in 2025. This finding shows that NPS pollution is controlled under the current policy.</abstract><cop>Dordrecht</cop><pub>Springer Netherlands</pub><doi>10.1007/s11269-019-02427-0</doi><tpages>16</tpages></addata></record>
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subjects Anthropogenic factors
Arid lands
Arid zones
Atmospheric Sciences
Civil Engineering
Computer simulation
Earth and Environmental Science
Earth Sciences
Ecological monitoring
Environment
Environmental protection
Evaluation
Geotechnical Engineering & Applied Earth Sciences
Grasslands
Hydrogeology
Hydrologic models
Hydrology/Water Resources
Land cover
Land pollution
Land use
Long-term changes
Markov chains
Nonpoint source pollution
Phosphorus
Pollutant load
Pollution
Pollution control
Pollution load
Pollution sources
Protection
River basins
Rivers
Soil
Soil water
Urban areas
Water pollution
Water quality
title Evaluating and Predicting the Effects of Land Use Changes on Water Quality Using SWAT and CA–Markov Models
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