Game Analysis and Simulation of the River Basin Sustainable Development Strategy Integrating Water Emission Trading

Water emission trading (WET) is promising in sustainable development strategy. However, low participation impedes its development. We develop an evolutionary game model of two enterprise populations’ dynamics and stability in the decision-making behavior process. Due to the different perceived va...

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Main Authors: Liang Liu, Cong Feng, Hongwei Zhang, Xuehua Zhang
Format: Article
Language:English
Published: MDPI AG 2015-04-01
Series:Sustainability
Subjects:
Online Access:http://www.mdpi.com/2071-1050/7/5/4952
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spelling doaj-178f32400339427092b159b6810680f12020-11-24T23:50:53ZengMDPI AGSustainability2071-10502015-04-01754952497210.3390/su7054952su7054952Game Analysis and Simulation of the River Basin Sustainable Development Strategy Integrating Water Emission TradingLiang Liu0Cong Feng1Hongwei Zhang2Xuehua Zhang3College of Management and Economics, Tianjin University, Tianjin 300072, ChinaCollege of Management and Economics, Tianjin University, Tianjin 300072, ChinaSchool of Environmental Science and Engineering, Tianjin University, Tianjin 300072, ChinaSchool of Environmental and Chemical Engineering, Tianjin Polytechnic University, Tianjin 300387, ChinaWater emission trading (WET) is promising in sustainable development strategy. However, low participation impedes its development. We develop an evolutionary game model of two enterprise populations’ dynamics and stability in the decision-making behavior process. Due to the different perceived value of certain permits, enterprises choose H strategy (bidding for permit) or D strategy (not bidding). External factors are simplified according to three categories: rH-bidding related cost, G-price and F-penalty. Participation increase equals reaching point (H,H) in the model and is treated as an evolutionarily stable strategy (ESS). We build a system dynamics model on AnyLogic 7.1.1 to simulate the aforementioned game and draw four conclusions: (1) to reach ESS more quickly, we need to minimize the bidding related cost rH and price G, but regulate the heavy penalty F; (2) an ESS can be significantly transformed, such as from (D,D) to (H,H) by regulating rH, G and F accordingly; (3) the initial choice of strategy is essential to the final result; (4) if participation seems stable but unsatisfying, it is important to check whether it is a saddle point and adjust external factors accordingly. The findings benefit both water management practice and further research.http://www.mdpi.com/2071-1050/7/5/4952water allocationriver basin managementsustainable development strategyemission tradingevolutionary game modelsystem dynamics simulation
collection DOAJ
language English
format Article
sources DOAJ
author Liang Liu
Cong Feng
Hongwei Zhang
Xuehua Zhang
spellingShingle Liang Liu
Cong Feng
Hongwei Zhang
Xuehua Zhang
Game Analysis and Simulation of the River Basin Sustainable Development Strategy Integrating Water Emission Trading
Sustainability
water allocation
river basin management
sustainable development strategy
emission trading
evolutionary game model
system dynamics simulation
author_facet Liang Liu
Cong Feng
Hongwei Zhang
Xuehua Zhang
author_sort Liang Liu
title Game Analysis and Simulation of the River Basin Sustainable Development Strategy Integrating Water Emission Trading
title_short Game Analysis and Simulation of the River Basin Sustainable Development Strategy Integrating Water Emission Trading
title_full Game Analysis and Simulation of the River Basin Sustainable Development Strategy Integrating Water Emission Trading
title_fullStr Game Analysis and Simulation of the River Basin Sustainable Development Strategy Integrating Water Emission Trading
title_full_unstemmed Game Analysis and Simulation of the River Basin Sustainable Development Strategy Integrating Water Emission Trading
title_sort game analysis and simulation of the river basin sustainable development strategy integrating water emission trading
publisher MDPI AG
series Sustainability
issn 2071-1050
publishDate 2015-04-01
description Water emission trading (WET) is promising in sustainable development strategy. However, low participation impedes its development. We develop an evolutionary game model of two enterprise populations’ dynamics and stability in the decision-making behavior process. Due to the different perceived value of certain permits, enterprises choose H strategy (bidding for permit) or D strategy (not bidding). External factors are simplified according to three categories: rH-bidding related cost, G-price and F-penalty. Participation increase equals reaching point (H,H) in the model and is treated as an evolutionarily stable strategy (ESS). We build a system dynamics model on AnyLogic 7.1.1 to simulate the aforementioned game and draw four conclusions: (1) to reach ESS more quickly, we need to minimize the bidding related cost rH and price G, but regulate the heavy penalty F; (2) an ESS can be significantly transformed, such as from (D,D) to (H,H) by regulating rH, G and F accordingly; (3) the initial choice of strategy is essential to the final result; (4) if participation seems stable but unsatisfying, it is important to check whether it is a saddle point and adjust external factors accordingly. The findings benefit both water management practice and further research.
topic water allocation
river basin management
sustainable development strategy
emission trading
evolutionary game model
system dynamics simulation
url http://www.mdpi.com/2071-1050/7/5/4952
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AT congfeng gameanalysisandsimulationoftheriverbasinsustainabledevelopmentstrategyintegratingwateremissiontrading
AT hongweizhang gameanalysisandsimulationoftheriverbasinsustainabledevelopmentstrategyintegratingwateremissiontrading
AT xuehuazhang gameanalysisandsimulationoftheriverbasinsustainabledevelopmentstrategyintegratingwateremissiontrading
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