Open AccessAerosol scattering of vortex beams transmission in hazy atmosphere
Author(s) -
Chenge Shi,
Lixin Guo,
Mingjian Cheng,
Martin P. J. Lavery,
Songhua Liu
Publication year - 2020
Publication title -
optics express
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 1.394
H-Index - 271
ISSN - 1094-4087
DOI - 10.1364/oe.401293
Subject(s) - scattering , mie scattering , aerosol , optics , atmospheric optics , physics , forward scatter , light scattering by particles , vortex , light scattering , diffuse sky radiation , haze , rayleigh scattering , scattering theory , computational physics , meteorology
Mie theory is widely used for the simulation and characterization of optical interaction with scattering media, such atmospheric pollutants. The complex refractive index of particle plays an important role in determining the scattering and absorption of light. Complex optical fields, such as vortex beams, will interact with scattering particulates differently to plane wave or Gaussian optical fields. By considering the three typical aerosol particles compositions that lead to haze in the atmosphere, distinctive scattering dynamic were identified for vortex beams as compared to Gaussian beams. Using parameters similar to real world atmospheric conditions, a new aerosol particle model is proposed to efficiently and concisely describe the aerosol scattering. Numerical simulations indicate unique signatures in the scattering dynamics of the vortex beams that can indicate particles composition and also suggest that potentially there is higher optical transmission of vortex beams propagating in certain hazy environments.