Modeling of Scattering Cross Section for Mineral Aerosol with a Gaussian Beam

Based on the generalized Lorenz Mie theory (GLMT), the scattering cross section of mineral aerosol within the Gaussian beam is investigated, and an appropriate modeling of the scattering cross sections for the real mineral aerosols including the feldspar, quartz, and red clay is proposed. In this mo...

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Main Authors: Wenbin Zheng, Hong Tang
Format: Article
Language:English
Published: Hindawi Limited 2018-01-01
Series:Journal of Nanotechnology
Online Access:http://dx.doi.org/10.1155/2018/6513634
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spelling doaj-4c0dbc302df048c49758bc57ad91da052020-11-24T21:10:37ZengHindawi LimitedJournal of Nanotechnology1687-95031687-95112018-01-01201810.1155/2018/65136346513634Modeling of Scattering Cross Section for Mineral Aerosol with a Gaussian BeamWenbin Zheng0Hong Tang1College of Software Engineering, Chengdu University of Information Technology, Chengdu 610225, ChinaCollege of Engineering, Sichuan Normal University, Chengdu 610068, ChinaBased on the generalized Lorenz Mie theory (GLMT), the scattering cross section of mineral aerosol within the Gaussian beam is investigated, and an appropriate modeling of the scattering cross sections for the real mineral aerosols including the feldspar, quartz, and red clay is proposed. In this modeling, the spheroid shape is applied to represent the real nonspherical mineral aerosol, and these nonspherical particles are randomly distributed within the Gaussian beam region. Meanwhile, the Monte Carlo statistical estimate method is used to determine the distributed positions of these random nonspherical particles. Moreover, a method for the nonspherical particles is proposed to represent the scattering cross section of the real mineral aerosols. In addition, the T matrix method is also used to calculate the scattering cross sections of the spheroid particles in order to compare the scattering properties between the plane wave and the Gaussian wave. Simulation results indicate that fairly reasonable results of the scattering cross sections for the mineral aerosols can be obtained with this proposed method, and it can provide a reliable and efficient approach to reproduce the scattering cross sections of the real randomly distributed mineral aerosols illuminated by the Gaussian beam.http://dx.doi.org/10.1155/2018/6513634
collection DOAJ
language English
format Article
sources DOAJ
author Wenbin Zheng
Hong Tang
spellingShingle Wenbin Zheng
Hong Tang
Modeling of Scattering Cross Section for Mineral Aerosol with a Gaussian Beam
Journal of Nanotechnology
author_facet Wenbin Zheng
Hong Tang
author_sort Wenbin Zheng
title Modeling of Scattering Cross Section for Mineral Aerosol with a Gaussian Beam
title_short Modeling of Scattering Cross Section for Mineral Aerosol with a Gaussian Beam
title_full Modeling of Scattering Cross Section for Mineral Aerosol with a Gaussian Beam
title_fullStr Modeling of Scattering Cross Section for Mineral Aerosol with a Gaussian Beam
title_full_unstemmed Modeling of Scattering Cross Section for Mineral Aerosol with a Gaussian Beam
title_sort modeling of scattering cross section for mineral aerosol with a gaussian beam
publisher Hindawi Limited
series Journal of Nanotechnology
issn 1687-9503
1687-9511
publishDate 2018-01-01
description Based on the generalized Lorenz Mie theory (GLMT), the scattering cross section of mineral aerosol within the Gaussian beam is investigated, and an appropriate modeling of the scattering cross sections for the real mineral aerosols including the feldspar, quartz, and red clay is proposed. In this modeling, the spheroid shape is applied to represent the real nonspherical mineral aerosol, and these nonspherical particles are randomly distributed within the Gaussian beam region. Meanwhile, the Monte Carlo statistical estimate method is used to determine the distributed positions of these random nonspherical particles. Moreover, a method for the nonspherical particles is proposed to represent the scattering cross section of the real mineral aerosols. In addition, the T matrix method is also used to calculate the scattering cross sections of the spheroid particles in order to compare the scattering properties between the plane wave and the Gaussian wave. Simulation results indicate that fairly reasonable results of the scattering cross sections for the mineral aerosols can be obtained with this proposed method, and it can provide a reliable and efficient approach to reproduce the scattering cross sections of the real randomly distributed mineral aerosols illuminated by the Gaussian beam.
url http://dx.doi.org/10.1155/2018/6513634
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