Methods of Determining the Atmosphere Environment Impact Factors of Natural Draft Cooling Towers

Yang Li; Zhao Hui

doi:10.4028/www.scientific.net/AMR.955-959.1661

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Environmental Impact Assessment on the Project of Aulidan Lubricating Oil Plant in Jieyang
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Environmental Impact Study on the Residual Chlorine Diffusion during the Intake-Outlet Project of LNG Wharf
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Eutrophication Evaluation of Lake Based on Cloud Model
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Integrating Climate Change Consideration into Strategic Environmental Assessment within the Context of China
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Methods of Determining the Atmosphere Environment Impact Factors of Natural Draft Cooling Towers
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Research of Poyang Lake Conservancy Project Hub Influence to Iron and Manganese of Groundwater
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Research on Measures to Strengthen Environmental Risk Management of Chemicals in Jiangsu Province
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Research on the Influence of a Traffic Jam to the Gasoline Vehicles’ Emission
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A Review of Changes in Chinese Environmental Regulation System
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HomeAdvanced Materials ResearchAdvanced Materials Research Vols. 955-959Methods of Determining the Atmosphere Environment...

Methods of Determining the Atmosphere Environment Impact Factors of Natural Draft Cooling Towers

Abstract:

The ISC SCREEN3 recommend by the existing guidelines cannot support the atmospheric dispersion modeling of the cooling tower discharge, causing the big difference between the current the atmosphere evaluation class and scope for the project of integrated chimney and cooling tower and the actual environmental impact.In this paper, the model austal2000 which is recommended by VDI3784 standard of the clean air standards established in German is used to calculate the ground concentrations of pollutants discharged by cooling towers, and accounting atmospheric environmental impact assessment class and scope of the unity project of smoke and tower according to the specifications of air guidelines reference. The results show that the most of the smoke and tower integration projects' evaluation level should be 2 and the evaluation radius should be more than 15 km, for the projects with emission of larger pollutants, the evaluation level may reach level 1.

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Periodical:

Advanced Materials Research (Volumes 955-959)

Pages:

1661-1664

DOI:

https://doi.org/10.4028/www.scientific.net/AMR.955-959.1661

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Online since:

June 2014

Authors:

Yang Li*, Zhao Hui

Keywords:

Environmental Impact Forecast, Evaluation Level, Evaluation Scope, Integrated Chimney and Cooling Tower

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