Introduction | p. 1 |
Propagation of Light | p. 5 |
Preliminaries | p. 6 |
Basic Properties of the Electromagnetic Wave | p. 6 |
Young's Experiment | p. 9 |
Scalar Diffraction Theory | p. 13 |
The Rayleigh-Sommerfeld Diffraction Formula | p. 13 |
Fresnel Approximation | p. 16 |
The Airy Disk | p. 19 |
The Coherence Function | p. 25 |
Varieties of the Coherence Function | p. 26 |
Generalised van Cittert-Zernike Theorem | p. 32 |
Incoherent Sources of Light: Stars | p. 34 |
Quasi-Monochromatic Approximation | p. 37 |
Young's Experiment Revisited | p. 44 |
The Coherence Function in Young's Experiment | p. 45 |
ABCD Method | p. 50 |
Power Spectrum of the Fringe Pattern | p. 51 |
Heuristic Approach | p. 56 |
Higher Order Correlation Functions: Intensity Interferometry | p. 62 |
Imaging Process: Propagation Through Optical Systems | p. 73 |
Fourier Optics | p. 74 |
The Optical Transfer Function | p. 76 |
Optical Aberrations: The Zernike Polynomials | p. 82 |
The Coherence Function | p. 88 |
Image Intensity Distribution | p. 88 |
Coherent Imaging | p. 92 |
Coherence Properties in the Image Plane | p. 99 |
Propagation Through Interferometers | p. 103 |
Young's Experiment with a Lens | p. 104 |
Apertures of Finite Size | p. 110 |
Spectra of Finite Width | p. 116 |
Objects of Finite Size | p. 122 |
Considerations on the Interferometric Field of View | p. 128 |
Masked Field of View | p. 132 |
The uv-Plane | p. 139 |
Large Apertures, Short Baseline: The LBT | p. 141 |
Large Apertures, Long Baselines: The VLTI | p. 144 |
Image Reconstruction: General Principles | p. 149 |
Atmospheric Turbulence | p. 157 |
Kolmogorov Turbulence | p. 158 |
First Principles | p. 158 |
Index of Refraction Fluctuations | p. 159 |
Statistical Properties of the Perturbed Complex Wave | p. 164 |
Thin Layer Turbulence Model | p. 164 |
Multiple Layers, the Fried Parameter | p. 166 |
Anisoplanatic and Temporal Effects | p. 172 |
Propagation Through Optical Systems | p. 178 |
Fringe Motion | p. 178 |
Image Motion | p. 190 |
Zernike Representation of Atmospheric Turbulence | p. 194 |
Scintillation | p. 198 |
Speckle Pattern and Seeing Disk | p. 200 |
Speckle Interferometry | p. 208 |
Instrumental Techniques | p. 217 |
Combination of Two Telescopes | p. 218 |
Fizeau Configuration | p. 218 |
Michelson Configuration | p. 222 |
Co-Axial Combination | p. 226 |
Multi-Aperture Combination: Michelson Configuration | p. 234 |
Multi-Axial and Co-Axial Combination | p. 234 |
Aspects of Beam Combination | p. 239 |
Multi-Aperture Combination: Direct Imaging | p. 243 |
Fizeau Configuration | p. 244 |
Hypertelescope | p. 246 |
Interferometric Remapped Array Nulling: IRAN | p. 249 |
Nulling Interferometer | p. 257 |
Layout of Interferometer Arrays | p. 263 |
Many Apertures | p. 263 |
Few Apertures | p. 268 |
Delay Lines | p. 271 |
Observing Through Atmospheric Turbulence | p. 275 |
Visibility Measurement Through Atmospheric Turbulence | p. 276 |
Power Spectrum of the Fringe Pattern | p. 283 |
ABCD Method | p. 287 |
Beating Atmospheric Turbulence | p. 293 |
Fringe Tracking | p. 293 |
Dual-Feed System | p. 301 |
Closure Phase | p. 306 |
Adaptive Optics | p. 310 |
Wave Front Sensing | p. 311 |
Closed Loop Operation | p. 313 |
Modern Interferometers | p. 317 |
Appendix | p. 319 |
The Fourier Transform | p. 319 |
Atmospheric Transmission Bands | p. 322 |
References | p. 325 |
Index | p. 337 |
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