Analysis and numerical simulation of natural and human-caused low dissolved oxygen in the Minjiang River Estuary

The Minjiang River, a typical tidal channel in Southeast China, plays an important role in the supply of drinking water, flood control and drought relief, farming and navigation, as well as shipping and other functions. Dissolved oxygen (DO), as a basic living condition for aquatic biota, has been d...

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Veröffentlicht in:Water science and technology 2016-05, Vol.73 (10), p.2475-2485
Hauptverfasser: Zhang, Peng, Pang, Yong, Shi, Chengchun, Wang, Yishu, Xu, Lei, Pan, Hongche, Xie, Rongrong
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container_end_page 2485
container_issue 10
container_start_page 2475
container_title Water science and technology
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creator Zhang, Peng
Pang, Yong
Shi, Chengchun
Wang, Yishu
Xu, Lei
Pan, Hongche
Xie, Rongrong
description The Minjiang River, a typical tidal channel in Southeast China, plays an important role in the supply of drinking water, flood control and drought relief, farming and navigation, as well as shipping and other functions. Dissolved oxygen (DO), as a basic living condition for aquatic biota, has been deteriorating in the Minjiang River in recent years. In order to understand how the spatial distribution of DO responds to river discharge, nutrient loading and water temperature, a three-dimensional Environmental Fluid Dynamics Code model was used to simulate water age and the distribution of DO in the Minjiang River. The model presented in this paper was used for water resource and water quality simulations under various physical, chemical, and biological scenarios. Sensitivity simulation results indicated that the three factors had a significant impact on the spatial distribution variation of DO in the Minjiang River. Increased river discharge or split ratio of the North Channel resulted in decreased water age and increased DO. Increased nutrient loading and water temperature caused lower DO. In order to protect coastal environments in the Minjiang River, river discharge should be increased and pollutants of local cities should be reduced during the high temperature and drought period.
doi_str_mv 10.2166/wst.2016.105
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Dissolved oxygen (DO), as a basic living condition for aquatic biota, has been deteriorating in the Minjiang River in recent years. In order to understand how the spatial distribution of DO responds to river discharge, nutrient loading and water temperature, a three-dimensional Environmental Fluid Dynamics Code model was used to simulate water age and the distribution of DO in the Minjiang River. The model presented in this paper was used for water resource and water quality simulations under various physical, chemical, and biological scenarios. Sensitivity simulation results indicated that the three factors had a significant impact on the spatial distribution variation of DO in the Minjiang River. Increased river discharge or split ratio of the North Channel resulted in decreased water age and increased DO. Increased nutrient loading and water temperature caused lower DO. 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Dissolved oxygen (DO), as a basic living condition for aquatic biota, has been deteriorating in the Minjiang River in recent years. In order to understand how the spatial distribution of DO responds to river discharge, nutrient loading and water temperature, a three-dimensional Environmental Fluid Dynamics Code model was used to simulate water age and the distribution of DO in the Minjiang River. The model presented in this paper was used for water resource and water quality simulations under various physical, chemical, and biological scenarios. Sensitivity simulation results indicated that the three factors had a significant impact on the spatial distribution variation of DO in the Minjiang River. Increased river discharge or split ratio of the North Channel resulted in decreased water age and increased DO. Increased nutrient loading and water temperature caused lower DO. 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Dissolved oxygen (DO), as a basic living condition for aquatic biota, has been deteriorating in the Minjiang River in recent years. In order to understand how the spatial distribution of DO responds to river discharge, nutrient loading and water temperature, a three-dimensional Environmental Fluid Dynamics Code model was used to simulate water age and the distribution of DO in the Minjiang River. The model presented in this paper was used for water resource and water quality simulations under various physical, chemical, and biological scenarios. Sensitivity simulation results indicated that the three factors had a significant impact on the spatial distribution variation of DO in the Minjiang River. Increased river discharge or split ratio of the North Channel resulted in decreased water age and increased DO. Increased nutrient loading and water temperature caused lower DO. In order to protect coastal environments in the Minjiang River, river discharge should be increased and pollutants of local cities should be reduced during the high temperature and drought period.</abstract><cop>England</cop><pub>IWA Publishing</pub><pmid>27191570</pmid><doi>10.2166/wst.2016.105</doi><tpages>11</tpages><oa>free_for_read</oa></addata></record>
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subjects Age
Age composition
Aquatic animals
Aquatic biota
Biological effects
Biota
Chemical oxygen demand
China
Coastal environments
Computational fluid dynamics
Computer simulation
Decomposition
Dissolved oxygen
Distribution
Drinking water
Drought
Dynamics
Environmental Monitoring
Estuaries
Estuarine dynamics
Estuarine environments
Eutrophication
Farming
Flood control
Fluid dynamics
Fluid mechanics
High temperature
Hydrodynamics
Hypoxia
Limnology
Living conditions
Mathematical analysis
Mathematical models
Mineral nutrients
Models, Theoretical
Navigation
Nutrient dynamics
Nutrient loading
Oxygen - chemistry
Pollutants
Respiration
River discharge
River flow
Rivers
Rivers - chemistry
Shipping
Simulation
Spatial distribution
Stress concentration
Studies
Temperature effects
Three dimensional models
Water - chemistry
Water discharge
Water Pollutants, Chemical - analysis
Water Quality
Water resources
Water supply
Water temperature
title Analysis and numerical simulation of natural and human-caused low dissolved oxygen in the Minjiang River Estuary
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