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  • Start
  • Guide
  • Examples
  • API
  • Resources
  • GitHub
  • PyPI
  • Anaconda

Section Navigation

  • Single Module
    • Coupling
    • Far-Fields Computation and Visualization
    • Scatterer Footprint Calculation and Visualization
    • Near-Field Computation and Visualization
    • Inspect scalar scattering properties
    • S1 S2 Function Computation
    • SPF Computation
    • Stokes Parameters Computation
  • Experiment Module
    • Core-Shell
      • CoreShell: Qback vs Core Diameter
      • CoreShell: Coupling vs Diameter
      • CoreShell: Coupling vs Diameter
    • Cylinder
      • InfiniteCylinder: Qabs vs Diameter
      • InfiniteCylinder: Qsca vs Diameter
      • InfiniteCylinder: Qsca vs Index
      • InfiniteCylinder: Qsca vs Wavelength
      • InfiniteCylinder: Qsca vs wavelength std
      • InfiniteCylinder: Coupling vs Diameter
      • InfiniteCylinder: Goniometer
      • InfiniteCylinder: Coupling vs Wavelength
    • Sphere
      • Sphere: Qabs vs diameter
      • Sphere: Qsca vs diameter
      • Sphere: Qsca vs index
      • Sphere: Qsca vs wavelength
      • Sphere: Qsca vs wavelength STD
      • Sphere: Coherent Goniometer
      • Sphere: Coherent mode field rotation
      • Sphere: coherent coupling vs sampling
      • Sphere: Coupling vs diameter
      • Sphere: Coupling vs polarization filter
      • Sphere: Goniometer
      • Sphere: Coupling vs sampling
      • Sphere: Coupling vs wavelength
      • Size distribution: independent scattering only
      • Compare size distribution families
      • How distribution width changes the scattering phase function
  • Inverse Problems
    • Fit a scalar scale factor
    • Fit an isolated-sphere scattering measurement
    • Fit a unit-aware diameter
  • Interpreting scattering results
    • Diagnose a sphere fit across several wavelengths
    • See how particle size reshapes angular scattering
    • Separate scattering and absorption resonances
  • Validation Examples
    • Energy-conservation validation
    • Bohren & Huffmann
      • InfiniteCylinder Scatterer Bohren-Huffman figure 8.10
      • InfiniteCylinder Scatterer Bohren-Huffman figure 8.7
      • InfiniteCylinder Scatterer Bohren-Huffman figure 8.8
    • Internal
      • Effect of Shell dimensions in equivalent medium
      • Goniometric Coupling vs S1 S2 Comparison
    • PyMieScatt
      • Core-Shell Particles: 0
      • Core-Shell Particles: 1
      • Sphere Particles: 0
      • Sphere Particles: 1
  • Benchmarks
    • Memory scaling with sweep size
    • Parameter-grid scaling
    • Reproducible parameter-sweep benchmark
    • Runtime scaling with sweep size
  • Extra Examples
    • Hermite-Gauss 01 Mode Detector
    • Hermite-Gauss 31 Mode Detector
    • Laguerre-Gauss 2-3 Mode Detector
    • LP01 Mode Detector
    • LP02 Mode Detector
    • LP11 Mode Detector
    • Scattering efficiency of a sphere
    • Array-based scattering calculations
    • Coupling heatmap of a sphere
    • Sphere: Coupling vs numerical aperture
    • Experiment Photodiode Angular Weights
    • Integrating sphere
    • Photodiode Detector
    • Photodiode Angular Weights
    • Plot system
    • Print cylinder properties
    • Print sphere properties
  • Coding examples
  • Validation Examples
  • Internal

Internal#

Tests checking phase functions and energy conservation.

Effect of Shell dimensions in equivalent medium

Effect of Shell dimensions in equivalent medium

Goniometric Coupling vs S1 S2 Comparison

Goniometric Coupling vs S1 S2 Comparison

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InfiniteCylinder Scatterer Bohren-Huffman figure 8.8

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Effect of Shell dimensions in equivalent medium
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© Copyright Martin Poinsinet de Sivry-Houle.