tmp.out

<list>
├─data: <list>
│ ├─computation: <list>
│ │ ├─files: <list>
│ │ │ └─export_python.py: "import numpy as np↵import os, sy..."
│ │ └─method_parameters: <list>
│ │   ├─Lmax: 3
│ │   └─Ntheta: 100
│ ├─embedding: <list>
│ │ ├─relative_permeability: 1
│ │ └─relative_permittivity: 1.7689
│ ├─modes: <list>
│ │ ├─l<dbl [30]>: 1, 1, 1, 1, 1, 1, 2, 2, 2, 2, ...
│ │ ├─m<dbl [30]>: -1, -1, 0, 0, 1, 1, -2, -2, -1, -1, ...
│ │ └─polarization<chr [30]>: "electric", "magnetic", "electric", "magnetic", "electric", "magnetic", "electric", "magnetic", "electric", "magnetic", ...
│ ├─scatterer: <list>
│ │ ├─geometry: <list>
│ │ │ ├─radiusxy: 20
│ │ │ └─radiusz: 40
│ │ └─material: <list>
│ │   ├─relative_permeability: 1
│ │   └─relative_permittivity<cpl [9]>: -11.4+1.181i, -11.4+1.181i, -11.4+1.181i, -11.4+1.181i, -11.4+1.181i, -11.4+1.181i, -11.4+1.181i, -11.4+1.181i, -11.4+1.181i
│ ├─tmatrix<cpl [8,100]>: 1+1i, 1+1i, 1+1i, 1+1i, 1+1i, 1+1i, 1+1i, 1+1i, 1+1i, 31+31i, ...
│ └─vacuum_wavelength<int [9]>: 400, 450, 500, 550, 600, 650, 700, 750, 800
└─attributes: <list>
  ├─root: <list>
  │ ├─description: "Computation using SMARTIES, a nu..."
  │ ├─keywords: "gold, spheroid, ebcm, passive, r..."
  │ ├─name: "Au prolate spheroid in water"
  │ └─storage_format_version: "v0.01"
  ├─vacuum_wavelength: <list>
  │ └─unit: "nm"
  ├─computation: <list>
  │ ├─description: "Computation using SMARTIES, a nu..."
  │ ├─method: "EBCM, Extended Boundary Conditio..."
  │ ├─name: "SMARTIES"
  │ └─software: "SMARTIES=1.1, python=3.11.7, h5p..."
  ├─embedding: <list>
  │ ├─keywords: "non-dispersive"
  │ └─name: "H2O, Water"
  ├─material: <list>
  │ ├─keywords: "dispersive, plasmonic"
  │ ├─name: "Au, Gold"
  │ └─reference: "Au from Raschke et al 10.1103/Ph..."
  └─geometry: <list>
    ├─name: "homogeneous spheroid with symmet..."
    ├─shape: "spheroid"
    └─unit: "nm"