optiland 0.1.4

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Optiland

Table of Contents

1. Introduction
2. Installation
3. Functionalities
4. Learning Guide
5. License
6. Contact
7. Acknowledgements & References

Introduction

Optiland is a lens design and analysis program written in Python 3. It provides an intuitive and efficient interface for defining and visualizing lens systems, performing optimization of lens systems based on user-defined merit functions and variables, as well as analyzing optical systems using geometric and diffraction-based methods. Leveraging computational libraries such as NumPy and SciPy, Optiland delivers exceptional performance and efficiency in handling complex optical computations.

Get started immediately with Optiland Tutorial #1, see the extensive Learning Guide, or read the full documentation at Read the Docs.

Python code to generate this 3D visualization:

from optiland.samples.objectives import ReverseTelephoto
lens = ReverseTelephoto()
lens.draw3D()

Documentation

The full documentation for Optiland is hosted on Read the Docs.

Installation

You can install the package using pip. To do so, follow these steps:

1. Open a terminal or command prompt.

2. Run the following command to install the package:

   pip install optiland
   

Functionalities

• Lens entry
• 2D/3D visualization
• Paraxial and aberration analyses
• Real and paraxial ray tracing, including aspherics and freeforms
• Polarization ray tracing
• Real analysis functions (spot diagrams, ray aberration fans, OPD fans, distortion, PSF, MTF, etc.)
• Glass and material catalogue (based on refractiveindex.info)
• Design optimization (local and global)
• Wavefront and Zernike analysis
• Tolerancing, including sensitivity analysis and Monte Carlo methods
• Coating and surface scatter (BSDF) analysis
• Zemax file import

The code itself is in constant flux and new functionalities are always being added.

Learning Guide

This guide gives a step-by-step approach to learning how to use Optiland.

1. Introduction to Optiland
   • Tutorial 1a - Optiland for Beginners
     • Lens entry
     • Material selection
     • Aperture, field and wavelength selection
     • Drawing a lens in 2D and 3D
   • Tutorial 1b - Determining Lens Properties
     • Focal length
     • Magnification
     • F-Number, Entrance/Exit pupil sizes & positions
     • Focal, Principal, and Nodal points, etc.
2. Real Raytracing & Analysis
   • Tutorial 2a - Tracing & Analyzing Rays
     • How to trace rays through a system
     • Analyzing ray paths & properties
   • Tutorial 2b - Tilting & De-centering Components
     • Tracing rays through misaligned components
   • Tutorial 2c - Monte Carlo Raytracing Methods
     • How variations in lens properties impact lens performance
   • Tutorial 2d - Aspheric Components
     • Modeling even aspheres
3. Aberrations
   • Tutorial 3a - Common aberration analyses/plots
     • Spot diagrams
     • Ray fans
     • Y-Ybar plots
     • Distortion / Grid distortion plots
     • Field curvature plots
   • Tutorial 3b - 1st & 3rd-Order Aberrations
     • Calculation of seidel, 1st & 3rd-order aberrations
   • Tutorial 3c - Chromatic Aberrations
     • Achromatic doublet to reduce chromatic aberrations
4. Optical Path Difference (OPD), Point Spread Functions (PSF) & Modulation Transfer Function (MTF)
   • Tutorial 4a - Optical Path Difference
     • OPD fans and plots
   • Tutorial 4b - PSF & MTF Calculation
     • Geometric MTF
     • FFT-based PSF/MTF
   • Tutorial 4c - Zernike Decomposition
     • Decomposing wavefront using Zernike polynomials
     • Coefficient types: Zernike standard, Zernike fringe, Zernike Noll
5. Optimization
   • Tutorial 5a - Simple Optimization
     • Operand and variable definition
     • Local optimization
   • Tutorial 5b - Advanced Optimization
     • Global optimization
   • Tutorial 5c - Optimization Case Study
     • Complete process of designing a Cooke triplet
6. Coatings & Polarization
   • Tutorial 6a - Introduction to Coatings
     • Simple coatings in Optiland
     • Impact of coatings on system performance
   • Tutorial 6b - Introduction to Polarization
     • Basics of polarization in Optiland
     • Analyzing polarization performance
   • Tutorial 6c - Advanced Polarization - Update in progress (target completion: Nov. 2024)
     • Waveplates, polarizers, and the Jones matrix
     • Jones pupils
7. Advanced Optical Design
   • Tutorial 7a - Lithographic Projection System
     • Optimizing and Analyzing a Complex Lithography System
   • Tutorial 7b - Surface Roughness & Scattering
     • Lambertian and Gaussian scatter models
   • Tutorial 7c - Freeform Surfaces
     • Designing non-standard optical systems with freeform surfaces
8. Tolerancing
   • Tutorial 8a - Introduction to Tolerancing
     • Sensitivity studies
   • Tutorial 8b - Advanced Tolerancing
     • Monte Carlo-based Tolerancing
9. Lens Catalogue Integration
   • Tutorial 9a - Edmund Optics Catalogue
     • Reading Zemax files
     • Reading and analyzing an aspheric lens
   • Tutorial 9b - Thorlabs Catalogue
     • Reading and analyzing an achromatic doublet pair lens
10. Extending Optiland
    • Tutorial 10a - Custom Surface Types
      • Adding new surface types
    • Tutorial 10b - Custom Coating Types - Update in progress (target completion: Nov. 2024)
      • Adding new coating types
    • Tutorial 10c - Custom Optimization Algorithms - Update in progress (target completion: Nov. 2024)
      • Adding new optimization approaches
11. Machine Learning in Optical Design
    • Tutorial 11a - Reinforcement Learning for Lens Design - Update in progress (target completion: Nov. 2024)

License

Distributed under the MIT License. See LICENSE for more information.

Contact

Kramer Harrison - [e-mail]

Acknowledgements & References

• https://www.lens-designs.com/
• https://github.com/Sterncat/opticspy
• https://github.com/jordens/rayopt