
COMPUTER GENERATED HOLOGRAMS
TABLE OF CONTENTS ( Hyperlinked to
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1.
The Fourier Transform
 | Introduction |
 | 1-D Fourier transform |
 | 2-D Fourier transform |
 | Fourier series |
 | Discrete Fourier transform (DFT) |
 | Generalized harmonic analysis |
 | Appendix A: Three-dimensional Fourier transform |
 | Appendix B: Three-dimensional vector Fourier
transform |
 | Appendix C: The n-dimensional vector Fourier
transform |
 | Appendix D: The Fourier transform in polar
coordinates |
 | Appendix E: The Fourier transform in spherical
coordinates |
 | Appendix F: The Fourier transform in
hyperspherical coordinates |
 | Appendix G: Relation of the FFT to the DFT |
 | Appendix H: The Fresnel transform |
 | Appendix I: The uncertainty principle |
 | Appendix J: The uncertainty principle and the
Gaussian |
2.
Comb Math
 | Introduction |
 | Relation of the Fourier series to the Fourier
transform |
 | Relation of the discrete Fourier transform (DFT)
to the Fourier transform |
 | Encoding phase in fringe shifts |
 | Appendix A: An alternate derivation of the
relation between the continuous Fourier transform and the discrete
Fourier
transformation |
3.
Sampling
 | Introduction |
 | The Whittaker-Shannon sampling theorem |
 | Sampling real functions: the Nyquist sampling
rate |
 | Over-sampling |
 | Under-sampling and aliasing |
 | The sampling theorem in two dimensions |
 | Appendix A: Uniformly shifted sample points |
 | Appendix B: Non-rectangular apertures |
 | Appendix C: Sampling on non-rectangular lattices |
 | Appendix D: A sampling theorem for a function
and its derivative |
 | Appendix E: A sampling theorem for the Fresnel
transform |
 | Appendix F: Cross artifacts and symmetry |
 | Appendix G: The Lagrange sampling theorem |
4.
Carrier-Wave Modulation
 | Introduction |
 | Cosine-carrier modulation |
 | Squarewave-carrier modulation |
 | The modulation image
superposition |
5.
MATLAB
 | Introduction |
 | Variables |
 | Operators |
 | Flow-control structures |
 | Input/output commands |
 | Disk commands |
 | Other functions |
 | Appendix A: Matrix filling examples |
 | Appendix B: flow-control structure
examples |
 | Appendix C: Example M-file: DFT of a uniformly
filled array |
 | Appendix D: CGH program |
 |
Copyable M-file CGH script |
6.
Systems Theory
 | Systems diagrams |
 | Operational calculus |
 | Hilbert space |
 | Power-series operators and
Taylor series |
 | First-order expansion and
linear systems |
 | Shift-invariance |
 | LSI: Linear Shift-Invariant
system |
PART II: THE CGH
1.
Holography in a Nutshell
 | What is a hologram? |
 | Selected events in the history of holography |
 | Waves |
 | The parabolic approximation |
 | Optical elements |
 | The optical Fourier transform |
 | Recording media characteristics |
 | The hologram as a distorted diffraction grating
|
 | Fringe distortions in interferometric holograms |
 | Binary holograms |
 | Detour phase |
 | Diffusers |
 | Phase-only holograms |
 | Depth effects |
 | Appendix A: The parabolic approximation |
2.
Simulating the Optical Fourier Transform
 | Introduction |
 | Application of comb math |
 | Object space |
 | Fourier space |
 | Reduced coordinates |
 | A remark on normalization |
 | Diffraction efficiency |
 | Bleached binary CGH's |
3.
Point-Oriented Versus Cell-Oriented CGH's
 | Introduction |
 | Contrasting the two CGH families |
 | Point-oriented example |
 | Simulating a point-oriented CGH |
 | Fabricating a point-oriented CGH |
 | Cell-oriented example |
 | Simulating a cell-oriented CGH |
 | Fabricating a cell-oriented CGH |
4.
Point-Oriented CGH's
 | Introduction |
 | The perfect CGH |
 | The referenceless on-axis computer hologram
(ROACH) |
 | The graytone CGH |
 | The squarewave CGH |
 | The crossed-squarewave CGH |
 | Appendix A: The sandwich hologram |
 | Appendix B: The referenceless on-axis complex
hologram (ROACH) |
 | Appendix C: CGH's that reconstruct in higher
diffraction orders |
 | Appendix D: Multiplex CGH's |
5.
Cell-Oriented CGH's
 | Introduction |
 | The Lohmann Type-III binary hologram |
 | The gap and overlap problem: circular overflow
solution |
 | Appendix A: A useful identity |
 | Appendix B: Fabricating a CGH |
6.
The Third Dimension
 | Introduction |
 | Illumination |
 | Transmission |
 | Reflection |
 | Propagation |
 | Additional considerations for propagation |
 | CGH's grouped by propagation region |
 | CGH's with circular carriers |
 | Appendix A: The wave equation |
 | Appendix B: Characteristic bodies |
 | Appendix C: Depth effects for Fresnel CGH's |
 | Appendix D: Depth effects for near-Fourier CGH's |
 | Appendix E: Depth effects for image-plane CGH's |
 | Appendix F: Depth effects for near-field CGH' |
 | Appendix G: Imaging in the parabolic
approximation |
 | Appendix H: Transforming the spherical wave |
7.
Computer Simulation of Non-Fourier Holograms
 | Introduction |
 | The two-plane self-luminous object |
 | Adjusting the viewing perspective |
 | Depth effects in modulation images |
PART III: ADVANCED TOPICS
1.
Diffusers
 | Introduction |
 | Desirable properties of the Fourier spectrum |
 | Diffusers for interferometric holograms |
 | Random vs. deterministic diffuser functions |
 | General purpose (object independent)
vs. specific
(object dependent) diffuser functions |
 | RADAR codes |
 | Schroeder codes |
 | Frank-Heimiller codes |
 | Calabro-Wolf (hyperbolic) codes |
 | Modern methods |
 | Simulated annealing |
 | Gerchberg-Saxton (phase
diversity)
procedure |
 | Speckle suppression |
2.
Analysis of Imperfections
 | Complex amplitude distortions |
 | Sampling and point-oriented CGH's |
 | Fourier domain phase quantization |
 | Shift effect of Fourier domain phase
quantization |
 | Depth effects of Fourier domain phase
quantization |
 | Effects on irradiance |
3.
Binarization of Holograms
 | Introduction |
 | Thresholding |
 | Wandering threshold |
 | Halftoning |
 | Dot density |
 | Dithering or tesselating |
 | Error diffusion |
 | Dynamic programming (Bellman optimization) |
PART IV: APPLICATIONS
1.
Replication, Fanouts, and Interconnects
 | Introduction |
 | Replication |
 | Fanouts and interconnects |
2.
Image Display
 | Introduction |
 | Information reduction |
 | Shading models |
 | Multiplexing and color display |
 | Realtime display |
3.
Spatial Filtering
 | Introduction |
 | Complex amplitude linear filters |
 | Image enhancement |
 | Image recognition |
 | Encryption |
 | Irradiance linear filters |
4.
Optical Testing
 | Introduction |
 | Interferometry |
 | Blanks ( rough surfaces) |
 | Polarization |
 | White Light |
5.
Diffractive Optical Elements
 | Introduction |
 | Prisms |
 | Lenses |
 | Near-field optics |
PART V: MISCELLANEOUS
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