Multi-criteria decision analysis for the optimal management of nitrate contamination of aquifers

We present an integrated methodology for the optimal management of nitrate contamination of ground water combining environmental assessment and economic cost evaluation through multi-criteria decision analysis. The proposed methodology incorporates an integrated physical modeling framework accountin...

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Published inJournal of environmental management Vol. 74; no. 4; pp. 365 - 381
Main Authors Almasri, Mohammad N., Kaluarachchi, Jagath J.
Format Journal Article
LanguageEnglish
Published Oxford Elsevier Ltd 01.03.2005
Elsevier
Academic Press Ltd
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Abstract We present an integrated methodology for the optimal management of nitrate contamination of ground water combining environmental assessment and economic cost evaluation through multi-criteria decision analysis. The proposed methodology incorporates an integrated physical modeling framework accounting for on-ground nitrogen loading and losses, soil nitrogen dynamics, and fate and transport of nitrate in ground water to compute the sustainable on-ground nitrogen loading such that the maximum contaminant level is not violated. A number of protection alternatives to stipulate the predicted sustainable on-ground nitrogen loading are evaluated using the decision analysis that employs the importance order of criteria approach for ranking and selection of the protection alternatives. The methodology was successfully demonstrated for the Sumas–Blaine aquifer in Washington State. The results showed the importance of using this integrated approach which predicts the sustainable on-ground nitrogen loadings and provides an insight into the economic consequences generated in satisfying the environmental constraints. The results also show that the proposed decision analysis framework, within certain limitations, is effective when selecting alternatives with competing demands.
AbstractList We present an integrated methodology for the optimal management of nitrate contamination of ground water combining environmental assessment and economic cost evaluation through multi-criteria decision analysis. The proposed methodology incorporates an integrated physical modeling framework accounting for on-ground nitrogen loading and losses, soil nitrogen dynamics, and fate and transport of nitrate in ground water to compute the sustainable on-ground nitrogen loading such that the maximum contaminant level is not violated. A number of protection alternatives to stipulate the predicted sustainable on-ground nitrogen loading are evaluated using the decision analysis that employs the importance order of criteria approach for ranking and selection of the protection alternatives. The methodology was successfully demonstrated for the Sumas-Blaine aquifer in Washington State. The results showed the importance of using this integrated approach which predicts the sustainable on-ground nitrogen loadings and provides an insight into the economic consequences generated in satisfying the environmental constraints. The results also show that the proposed decision analysis framework, within certain limitations, is effective when selecting alternatives with competing demands. [PUBLICATION ABSTRACT]
The development of a decision analysis framework to determine the most effective and least costly alternative for addressing aquifer nitrate contamination is described. The methodology computes the sustainable on-ground nitrogen loading for a specific region, integrating on-ground N loading, fate and transport in groundwater, and soil N dynamics with an optimization module. Once the sustainable loading for the specific region is determined, a series of protection alternatives can be explored through the decision analysis model subject to a set of decision criteria, which include: cost incurred from implementing the protection alternative, satisfaction of the maximum contaminant level constraint, on-ground N loading and N losses, net N buildup in the soil and nitrate leaching, and NO sub(3) buildup in groundwater and NO sub(3) flux to surface water. As illustration, results are presented from an application of the methodology to the SumasBlaine aquifer in Washington State, which is impacted by intensive agricultural activities. The mitigation alternatives explored included doing nothing, dairy cattle herd reduction, manure composting/exporting, fertilizer application reduction, improving cow diet, and combined alternatives. The best alternatives were determined to be manure composting/exporting plus fertilizer reduction, and the two methods combined with the adoption of a feeding strategy for dairy cattle.
We present an integrated methodology for the optimal management of nitrate contamination of ground water combining environmental assessment and economic cost evaluation through multi-criteria decision analysis. The proposed methodology incorporates an integrated physical modeling framework accounting for on-ground nitrogen loading and losses, soil nitrogen dynamics, and fate and transport of nitrate in ground water to compute the sustainable on-ground nitrogen loading such that the maximum contaminant level is not violated. A number of protection alternatives to stipulate the predicted sustainable on-ground nitrogen loading are evaluated using the decision analysis that employs the importance order of criteria approach for ranking and selection of the protection alternatives. The methodology was successfully demonstrated for the Sumas–Blaine aquifer in Washington State. The results showed the importance of using this integrated approach which predicts the sustainable on-ground nitrogen loadings and provides an insight into the economic consequences generated in satisfying the environmental constraints. The results also show that the proposed decision analysis framework, within certain limitations, is effective when selecting alternatives with competing demands.
We present an integrated methodology for the optimal management of nitrate contamination of ground water combining environmental assessment and economic cost evaluation through multi-criteria decision analysis. The proposed methodology incorporates an integrated physical modeling framework accounting for on-ground nitrogen loading and losses, soil nitrogen dynamics, and fate and transport of nitrate in ground water to compute the sustainable on-ground nitrogen loading such that the maximum contaminant level is not violated. A number of protection alternatives to stipulate the predicted sustainable on-ground nitrogen loading are evaluated using the decision analysis that employs the importance order of criteria approach for ranking and selection of the protection alternatives. The methodology was successfully demonstrated for the Sumas-Blaine aquifer in Washington State. The results showed the importance of using this integrated approach which predicts the sustainable on-ground nitrogen loadings and provides an insight into the economic consequences generated in satisfying the environmental constraints. The results also show that the proposed decision analysis framework, within certain limitations, is effective when selecting alternatives with competing demands.We present an integrated methodology for the optimal management of nitrate contamination of ground water combining environmental assessment and economic cost evaluation through multi-criteria decision analysis. The proposed methodology incorporates an integrated physical modeling framework accounting for on-ground nitrogen loading and losses, soil nitrogen dynamics, and fate and transport of nitrate in ground water to compute the sustainable on-ground nitrogen loading such that the maximum contaminant level is not violated. A number of protection alternatives to stipulate the predicted sustainable on-ground nitrogen loading are evaluated using the decision analysis that employs the importance order of criteria approach for ranking and selection of the protection alternatives. The methodology was successfully demonstrated for the Sumas-Blaine aquifer in Washington State. The results showed the importance of using this integrated approach which predicts the sustainable on-ground nitrogen loadings and provides an insight into the economic consequences generated in satisfying the environmental constraints. The results also show that the proposed decision analysis framework, within certain limitations, is effective when selecting alternatives with competing demands.
Author Almasri, Mohammad N.
Kaluarachchi, Jagath J.
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Issue 4
Keywords Nitrate
Genetic algorithm
Non-point source pollution
Artificial neural network
Decision analysis
Optimization
Land use
Nitrates
Neural network
Environmental management
Contamination
Aquifers
Pollution source
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Snippet We present an integrated methodology for the optimal management of nitrate contamination of ground water combining environmental assessment and economic cost...
The development of a decision analysis framework to determine the most effective and least costly alternative for addressing aquifer nitrate contamination is...
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SubjectTerms algorithms
analysis
animal manures
Animal, plant and microbial ecology
Applied ecology
aquifers
Artificial neural network
Biological and medical sciences
Conservation, protection and management of environment and wildlife
Costs and Cost Analysis
Costs and Cost Analysis - methods
Decision analysis
decision making
decision support systems
Decision Support Techniques
Environment
Environmental Monitoring
Environmental Monitoring - methods
fertilizers
Fresh Water
Fundamental and applied biological sciences. Psychology
General aspects
Genetic algorithm
groundwater contamination
Groundwater pollution
Land use
methods
Models, Theoretical
neural networks
Nitrate
nitrate nitrogen
Nitrates
Nitrates - analysis
Nitrogen
Non-point source pollution
nonpoint source pollution
Optimization
point source pollution
pollution control
pollution load
prevention & control
Research methodology
soil nutrient dynamics
Washington
water management
Water Pollutants, Chemical
Water Pollutants, Chemical - analysis
water pollution
Water Pollution, Chemical
Water Pollution, Chemical - prevention & control
Water treatment
Title Multi-criteria decision analysis for the optimal management of nitrate contamination of aquifers
URI https://dx.doi.org/10.1016/j.jenvman.2004.10.006
https://www.ncbi.nlm.nih.gov/pubmed/15737460
https://www.proquest.com/docview/195616030
https://www.proquest.com/docview/14753161
https://www.proquest.com/docview/17355179
https://www.proquest.com/docview/47398694
https://www.proquest.com/docview/67472195
Volume 74
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