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Preface | |
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Introduction | |
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Lens Design Books | |
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Reference Material | |
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Specifications | |
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Lens Design | |
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Lens Design Program Features | |
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About This Book | |
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Automatic Lens Design: Managing the Lens Design Program | |
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Optimization | |
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The Merit Function | |
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Local Minima | |
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The Landscape Lens | |
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Types of Merit Functions | |
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Stagnation | |
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Generalized Simulated Annealing | |
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Considerations about Variables for Optimization | |
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How to Increase the Speed or Field of a System and Avoid Ray Failure Problems | |
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Test Plate Fits, Melt Fits, Thickness Fits, and Reverse Aberration Fits | |
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Spectral Weighting | |
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How to Get Started | |
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Improving a Design | |
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Lens Design Tip Sheet: Standard Improvement Techniques | |
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Glass Changes: Index and V-value | |
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Splitting Elements | |
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Separating a Cemented Doublet | |
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Compounding an Element | |
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Vignetting and Its Uses | |
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Eliminating a Weak Element-the Concentric Problem | |
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Balancing Aberrations | |
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The Symmetrical Principle | |
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Aspheric Surfaces | |
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Evaluation: How Good Is This Design? | |
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The Uses of a Preliminary Evaluation | |
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OPD versus Measures of Performance | |
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Geometric Blur Spot Size versus Certain Aberrations | |
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Interpreting MTF-The Modulation Transfer Function | |
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Fabrication Considerations | |
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Lens Design Data | |
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About the Sample Lens Designs | |
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Lens Prescriptions, Drawings, and Aberration Plots | |
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Estimating the Potential of a Redesign | |
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Scaling a Design, Its Aberrations, and Its Modulation Transfer Function | |
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Notes on the Interpretation of Ray Intercept Plots | |
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Various Evaluation Plots | |
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Telescope Objectives | |
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The Thin Airspaced Doublet | |
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Merit Function for a Telescope Objective | |
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The Design of an f/7 Cemented Doublet Telescope Objective | |
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Spherochromatism | |
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Zonal Spherical Aberration | |
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Induced Aberrations | |
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Three-Element Objectives | |
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Secondary Spectrum (Apochromatic Systems) | |
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The Design of an f/7 Apochromatic Triplet | |
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The Diffractive Surface in Lens Design | |
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A Final Note | |
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Eyepieces and Magnifiers | |
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Eyepieces | |
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A Pair of Magnifier Designs | |
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The Simple, Classical Eyepieces | |
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Design Story of an Eyepiece for a 6 x 30 Binocular | |
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Four-Element Eyepieces | |
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Five-Element Eyepieces | |
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Very High Index Eyepiece/Magnifier | |
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Six- and Seven-Element Eyepieces | |
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Cooke Triplet Anastigmats | |
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Airspaced Triplet Anastigmats | |
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Glass Choice | |
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Vertex Length and Residual Aberrations | |
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Other Design Considerations | |
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A Plastic, Aspheric Triplet Camera Lens | |
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Camera Lens Anastigmat Design "from Scratch"-The Cooke Triplet | |
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Possible Improvements to Our "Basic" Triplet | |
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The Rare Earth (Lanthanum) Glasses | |
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Aspherizing the Surfaces | |
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Increasing the Element Thickness | |
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Split Triplets | |
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The Tessar, Heliar, and Other Compounded Triplets | |
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The Classic Tessar | |
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The Heliar/Pentac | |
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The Portrait Lens and the Enlarger Lens | |
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Other Compounded Triplets | |
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Camera Lens Anastigmat Design "from Scratch"-The Tessar and Heliar | |
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Double-Meniscus Anastigmats | |
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Meniscus Components | |
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The Hypergon, Topogon, and Metrogon | |
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A Two Element Aspheric Thick Meniscus Camera Lens | |
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Protar, Dagor, and Convertible Lenses | |
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The Split Dagor | |
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The Dogmar | |
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Camera Lens Anastigmat Design "from Scratch"-The Dogmar Lens | |
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The Biotar or Double-Gauss Lens | |
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The Basic Six-Element Version | |
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Twenty-Eight Things That Every Lens Designer Should Know About the Double-Gauss/Biotar Lens | |
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The Seven-Element Biotar-Split-Rear Crown | |
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The Seven-Element Biotar-Broken Contact Front Doublet | |
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The Seven-Element Biotar-One Compounded Outer Element | |
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The Eight-Element Biotar | |
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A "Doubled Double-Gauss" Relay | |
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Telephoto Lenses | |
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The Basic Telephoto | |
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Close-up or Macro Lenses | |
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Telephoto Designs | |
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Design of a 200-mm f/4 Telephoto for a 35-mm Camera "from Scratch" | |
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Reversed Telephoto (Retrofocus and Fish-Eye) Lenses | |
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The Reversed Telephoto Principle | |
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The Basic Retrofocus Lens | |
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Fish-Eye, or Extreme Wide-Angle Reversed Telephoto, Lenses | |
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Wide-Angle Lenses with Negative Outer Elements | |
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The Petzval Lens; Head-up Display Lenses | |
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The Petzval Portrait Lens | |
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The Petzval Projection Lens | |
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The Petzval with a Field Flattener | |
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Very High Speed Petzval Lenses | |
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Head-up Display (HUD) Lenses, Biocular Lenses, and Head/Helmet Mounted Display (HMD) Systems | |
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Microscope Objectives | |
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General Considerations | |
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Classical Objective Design Forms: The Aplanatic Front | |
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Flat-Field Objectives | |
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Reflecting Objectives | |
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The Microscope Objective Designs | |
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Mirror and Catadioptric Systems | |
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The Good and the Bad Points of Mirrors | |
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The Classical Two-Mirror Systems | |
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Catadioptric Systems | |
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Aspheric Correctors and Schmidt Systems | |
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Confocal Paraboloids | |
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Unobscured Systems | |
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Design of a Schmidt-Cassegrain "from Scratch" | |
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Infrared and Ultraviolet Systems | |
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Infrared Optics | |
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IR Objective Lenses | |
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IR Telescopes | |
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Laser Beam Expanders | |
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Ultraviolet Systems | |
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Microlithographic Lenses | |
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Zoom Lenses | |
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Zoom Lenses | |
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Zoom Lenses for Point and Shoot Cameras | |
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A 20x Video Zoom Lens | |
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A Zoom Scanner Lens | |
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A Possible Zoom Lens Design Procedure | |
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Projection TV Lenses and Macro Lenses | |
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Projection TV Lenses | |
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Macro Lenses | |
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Scanner/f-[theta], Laser Disk and Collimator Lenses | |
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Monochromatic Systems | |
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Scanner Lenses | |
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Laser Disk, Focussing, and Collimator Lenses | |
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Tolerance Budgeting | |
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The Tolerance Budget | |
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Additive Tolerances | |
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Establishing the Tolerance Budget | |
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Formulary | |
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Sign Conventions, Symbols, and Definitions | |
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The Cardinal Points | |
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Image Equations | |
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Paraxial Ray Tracing (Surface by Surface) | |
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Invariants | |
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Paraxial Ray Tracing (Component by Component) | |
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Two-Component Relationships | |
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Third-Order Aberrations-Surface Contributions | |
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Third-Order Aberrations-Thin Lens Contributions: The G-Sum Equations | |
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Stop Shift Equations | |
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Third-Order Aberrations-Contributions from Aspheric Surfaces | |
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Conversion of Aberrations to Wavefront Deformation (Optical Path Difference) | |
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Glossary | |
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References | |
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Index | |