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Python Mie Scattering package (PyMieScatt)
In addition to over twenty functions for Mie theory calculations, it contains our implementation of a highly visual method for solving the inverse Mie problem for the complex refractive index, given known or assumed size parameter and optical measurements.
SMARTIES: Spheroids Modelled Accurately with a Robust Matlab T-matrix Implementation for Electromagnetic Scattering
Absphere
Abshere by Kuan Fang Ren is based on the rigorous theory to calculate various physical quantities in the interaction of a light beam with a homogeneous spherical particle or with a concentric layered refractive index gradient. ABSphere allows to calculate: (1) scattering diagrams, (2) radiation pressure (force) and torque exerted by a beam of light on the particle, (3). internal and external electromagnetic fields, (4). extinction, scattering and absorption sections. The forms of the beam considered in ABSphere: (1) circular Gaussian beam. (2) elliptical Gaussian beam. (3) Dungnut beam of 4 different polarizations, (4). Bessel beam (5).
- Link (31 Jul 2015, 23 Sept 2021)
Mie Simulator GUI
This is a Mie Simulator GUI application. Mie Simulator GUI tool is capable of calculating
- Scattering coefficient
- Scattering cross section
- Reduced scattering coefficient
- Phase function
- S1 and S2
- Average cosine of the phase function
for a single or series of wavelengths
- Link (10 Aug 2015, offline)
- Link (6 Nov 2021)
MieScatter.jl
Compute Mie scattering in Julia. Mie scattering is the scattering of an electromagnetic plane wave by a homogeneous sphere. Based on a Fortran code by Karri Muinonen.
using MieScatter
S, Qsca, Qext, Qback = compute_mie(x, m, N)
S, Qsca, Qext, Qback = compute_mie(x, m, list_of_angles)
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