Field guide to lens design 1st Edition by Julie Bentley, Craig Olson – Ebook PDF Instant Download/Delivery: 978-0819491640, 0819491640
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Product details:
ISBN 10: 0819491640
ISBN 13: 978-0819491640
Author: Julie Bentley, Craig Olson
The process of designing lenses is both an art and a science. While advancements in the field over the past two centuries have done much to transform it from the former category to the latter, much of the lens design process remains encapsulated in the experience and knowledge of industry veterans. This SPIE Field Guide provides a working reference for practicing physicists, engineers, and scientists for deciphering the nuances of basic lens design.
The book begins with an outline of the general process before delving into aberrations, basic lens design forms, and optimization. An entire section is devoted to techniques for improving lens performance. Sections on tolerancing, stray light, and optical systems are followed by an appendix covering related topics such as optical materials, nonimaging concepts, designing for sampled imaging, and ray tracing fundamentals.
Table of contents:
Fundamentals of Optical Design
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Sign Conventions
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Basic Concepts
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Optical Design Process
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Aperture and Wavelength Specifications
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Resolution and Field of View
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Packaging and Environment
Aberration Theory and Image Quality
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Wave Aberration Function
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Third-Order Aberration Theory
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Spot Diagram and Encircled Energy
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Transverse Ray Plot
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Wavefront or OPD Plots
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Point Spread Function and Strehl Ratio
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MTF Basics
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Using MTF in Lens Design
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Defocus
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Wavefront Tilt
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Spherical Aberration
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Coma
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Field Curvature
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Petzval Curvature
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Astigmatism
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Distortion
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Primary Color and Secondary Color
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Lateral Color and Spherochromatism
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Higher-Order Aberrations
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Intrinsic and Induced Aberrations
Lens Design Forms
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Design Forms
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Selecting a Design Form: Refractive
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Selecting a Design Form: Reflective
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Singlets
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Achromatic Doublets
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Airspaced Doublets
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Cooke Triplet
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Double Gauss
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Petzval Lens
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Telephoto Lenses
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Retrofocus and Wide-Angle Lenses
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Refractive versus Reflective Systems
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Obscurations
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Newtonian and Cassegrain
Advanced Reflective and Catadioptric Systems
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Gregorian and Schwarzschild
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Catadioptric Telescope Objectives
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Unobscured Systems: Aperture Clearance
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Unobscured Systems: Field Clearance
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Three-Mirror Anastigmat
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Reflective Triplet
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Wide-Field Reflective Design Forms
Zoom Lens Systems
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Zoom Lens Fundamentals
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Zoom Lens Design and Optimization
Design Improvement Techniques
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Improving a Design
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Techniques for Improving an Optical Design
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Angle of Incidence and Aplanatic Surfaces
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Splitting and Compounding
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Diffraction-Limited Performance
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Thin Lens Layout
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Lens Bending
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Material Selection
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Controlling the Petzval Sum
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Stop Shift and Stop Symmetry
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Telecentricity
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Vignetting
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Pupil Aberrations
Advanced Components and Materials
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Aspheres: Design
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Aspheres: Fabrication
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Gradient Index Materials
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Diffractive Optics
Optimization and Sampling
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Optimization
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Damped Least Squares
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Global Optimization
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Merit Function Construction
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Choosing Effective Variables
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Solves and Pickups
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Defining Field Points
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Pupil Sampling
Tolerancing and Documentation
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Tolerancing
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Design Margin and Performance Budgets
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Optical Prints
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Radius of Curvature Tolerances
Tolerancing and Assembly
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Surface Irregularity
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Center Thickness and Wedge Tolerances
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Material and Cosmetic Tolerances
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Lens Assembly Methods
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Assembly Tolerances
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Compensators
Statistical and Environmental Considerations
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Probability Distributions
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Sensitivity Analysis
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Performance Prediction
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Monte Carlo Analysis
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Environmental Analysis
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Athermalization
Stray Light and Coatings
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Stray Light
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Stray Light Analysis
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Stray Light Reduction
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Antireflection (AR) Coatings
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Ghost Analysis
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Cold Stop and Narcissus
Advanced Ray Tracing and Scattering
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Nonsequential Ray Tracing
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Scattering and BSDF
Optical Systems and Applications
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Optical Systems
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Photographic Lenses: Fundamentals
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Photographic Lenses: Design Constraints
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Visual Instruments and the Eye
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Eyepiece Fundamentals
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Eyepiece Design Forms
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Telescopes
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Microscopes
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Microscope Objectives
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Relays
Appendix: Optical Fundamentals
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Index of Refraction and Dispersion
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Optical Materials: Glasses
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Optical Materials: Polymers/Plastics
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Optical Materials: Ultraviolet and Infrared
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Snell’s Law and Ray Tracing
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Focal Length, Power, and Magnification
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Aperture Stop and Field Stop
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Entrance and Exit Pupils
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Marginal and Chief Rays
Advanced Optical Topics
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Zernike Polynomials
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Conic Sections
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Diffraction Gratings
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Optical Cements and Coatings
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Detectors: Sampling
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Detectors: Resolution
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The Lagrange Invariant and Extent
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Illumination Design
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