High Aperture Optical Systems and Super-Resolution | |
Exploring Living Cells and Molecular Dynamics with Polarized Light Microscopy | p. 3 |
Introduction | p. 3 |
Equipment Requirement | p. 3 |
Biological Examples | p. 8 |
Video-Enhanced Microscopy | p. 12 |
The LC Pol-Scope | p. 13 |
The Centrifuge Polarizing Microscope | p. 14 |
Polarized Fluorescence of Green Fluorescent Protein | p. 17 |
Concluding Remarks | p. 18 |
References | p. 19 |
Characterizing High Numerical Aperture Microscope Objective Lenses | p. 21 |
Introduction | p. 21 |
Disclaimer | p. 21 |
Objective Lens Basics | p. 22 |
Point Spread Function | p. 23 |
Fibre-Optic Interferometer | p. 24 |
PSF Measurements | p. 25 |
Chromatic Aberrations | p. 28 |
Apparatus | p. 28 |
Axial Shift | p. 30 |
Pupil Function | p. 31 |
Phase-Shifting Interferometry | p. 32 |
Zernike Polynomial Fit | p. 33 |
Restoration of a 3-D Point Spread Function | p. 36 |
Empty Aperture | p. 37 |
Esoterica | p. 39 |
Temperature Variations | p. 39 |
Apodization | p. 40 |
Polarization Effects | p. 42 |
Conclusion | p. 42 |
References | p. 43 |
Diffractive Read-Out of Optical Discs | p. 45 |
Introduction | p. 45 |
Historic Overview of Video and Audio Recording on Optical Media | p. 45 |
The Early Optical Video System | p. 47 |
The Origin of the CD-System | p. 48 |
The Road Towards the DVD-System | p. 49 |
Overview of the Optical Principles of the CD- and the DVD-System | p. 50 |
Optical Read-Out of the High-Frequency Information Signal | p. 50 |
Optical Error Signals for Focusing and Radial Tracking of the Information | p. 55 |
Examples of Light Paths | p. 58 |
Radial Tracking for DVD | p. 60 |
A Diffraction Model for the DPD and DTD Tracking Signal | p. 60 |
The Influence of Detector Misalignment on the Tracking Signal | p. 62 |
The DTD Tracking Signal for the DVD-System | p. 65 |
The DTD2 and the DTD4 Signal in the Presence of Defocus | p. 66 |
Compatibility Issues for the DVD-and the CD-System | p. 68 |
The Substrate-Induced Spherical Aberration | p. 69 |
The Effective Optical Transfer Function | p. 73 |
The Two-Wavelength Light Path | p. 74 |
Efficient Calculation Scheme for the Detector Signal | p. 75 |
Optical Configuration and the FFT-Approach | p. 75 |
The Analytic Approach | p. 77 |
The Harmonic Components of the Detector Signal | p. 80 |
The Representation of the Function F[subscript m,n](x, y) | p. 81 |
Orthogonality in Pupil and Image Plane | p. 83 |
Conclusion | p. 84 |
References | p. 84 |
Superresolution in Scanning Optical Systems | p. 87 |
Introduction | p. 87 |
Direct Methods | p. 88 |
Pendry Lens | p. 88 |
Kino's Solid Immersion Lens | p. 91 |
Toraldo di Francia's Apodising Masks | p. 91 |
Inverse Methods and Image-Plane Masks | p. 94 |
Optical Systems for Scanning Imaging | p. 96 |
Analytical Results | p. 98 |
Numerical Results | p. 101 |
The Comparison of Non-linear Optical Scanning Systems | p. 104 |
High-Aperture Image-Plane Masks | p. 107 |
References | p. 109 |
Depth of Field Control in Incoherent Hybrid Imaging Systems | p. 111 |
Introduction | p. 111 |
Hybrid Imaging Systems | p. 111 |
Digital Post-Processing | p. 112 |
New Metric for Defocused Image Blurring | p. 112 |
Extended Depth of Field | p. 113 |
Design of a Rectangular EDF Phase Plate | p. 114 |
Performance of a Logarithmic Phase Plate | p. 119 |
Performance Comparison of Different EDF Phase Plates | p. 125 |
Reduced Depth of Field | p. 128 |
Design of a Rectangular RDF Phase Plate | p. 130 |
Performance of a Rectangular RDF Phase Grating | p. 132 |
CCD Effect on Depth of Field Control | p. 136 |
Charge-Coupled Device-Limited PSF | p. 136 |
CCD Effect on Depth of Field Extension | p. 136 |
CCD Effect on Depth of Field Reduction | p. 138 |
Conclusions | p. 140 |
References | p. 141 |
Wavefront Coding Fluorescence Microscopy Using High Aperture Lenses | p. 143 |
Extended Depth of Field Microscopy | p. 143 |
Methods for Extending the Depth of Field | p. 144 |
High Aperture Fluorescence Microscopy Imaging | p. 146 |
Experimental Method | p. 147 |
PSF and OTF Results | p. 149 |
Biological Imaging Results | p. 151 |
Wavefront Coding Theory | p. 152 |
Derivation of the Cubic Phase Function | p. 153 |
Paraxial Model | p. 153 |
High Aperture PSF Model | p. 154 |
High Aperture OTF Model | p. 156 |
Defocused OTF and PSF | p. 157 |
Simulation Results | p. 158 |
Discussion | p. 162 |
Conclusion | p. 164 |
References | p. 165 |
Nonlinear Techniques in Optical Imaging | |
Nonlinear Optical Microscopy | p. 169 |
Introduction | p. 169 |
Second Harmonic Nonlinear Microscopy | p. 170 |
Basic Principle of SHG | p. 170 |
Coherence Effects in SH Microscopy | p. 174 |
Scanning Near-Field Nonlinear Second Harmonic Generation | p. 175 |
Sum Frequency Generation Microscopy | p. 177 |
Basic Principle of Sum Frequency Generation | p. 177 |
Far-Field SFG Microscopy | p. 178 |
Near-Field SFG Imaging | p. 179 |
Third Harmonic Generation Microscopy | p. 180 |
Coherent Anti-Stokes Raman Scattering Microscopy | p. 182 |
Multiphoton Excited Fluorescence Microscopy | p. 184 |
Two-Photon Excited Fluorescence (TPEF) Microscopy | p. 185 |
TPEF Far-Field Microscopy Using Multipoint Excitation | p. 188 |
4-Pi Confocal TPEF Microscopy | p. 189 |
Simultaneous SHG/TPEF Microscopy | p. 190 |
Three-Photon-Excited Fluorescence Microscopy | p. 191 |
Stimulated-Emission-Depletion (STED) Fluorescence Microscopy | p. 192 |
Conclusion | p. 193 |
References | p. 193 |
Parametric Nonlinear Optical Techniques in Microscopy | p. 197 |
Introduction | p. 197 |
Nonlinear Optics--Parametric Processes | p. 198 |
Introduction | p. 198 |
Optical Sectioning Capability | p. 200 |
Second Harmonic Generation (SHG) | p. 200 |
Third Harmonic Generation (THG) | p. 201 |
Coherent Anti-Stokes Raman Scattering (CARS) | p. 202 |
Third Harmonic Generation (THG) Microscopy | p. 204 |
General Characteristics | p. 204 |
Selected Applications | p. 205 |
Summary | p. 209 |
Coherent Anti-Stokes Raman Scattering (CARS) Microscopy | p. 209 |
General Characteristics | p. 209 |
Multiplex CARS | p. 210 |
Summary | p. 214 |
Conclusion | p. 214 |
References | p. 216 |
Second Harmonic Generation Microscopy Versus Third Harmonic Generation Microscopy in Biological Tissues | p. 219 |
Introduction | p. 219 |
SHG Microscopy | p. 220 |
Bio-Photonic Crystal Effect in Biological SHG Microscopy | p. 221 |
THG Microscopy | p. 228 |
Conclusion | p. 230 |
References | p. 231 |
Miscellaneous Methods in Optical Imaging | |
Adaptive Optics | p. 235 |
Introduction | p. 235 |
Historical Background | p. 236 |
Strehl Ratio and Wavefront Variance | p. 239 |
Wavefront Sensing | p. 240 |
Deformable Mirrors and Other Corrective Devices | p. 243 |
The Control System | p. 245 |
Low Cost AO Systems | p. 248 |
Current Research Issues in Astronomical Adaptive Optics | p. 250 |
Adaptive Optics and the Eye | p. 252 |
References | p. 254 |
Low-Coherence Interference Microscopy | p. 257 |
Introduction | p. 257 |
Geometry of the Interference Microscope | p. 259 |
Principle of Low-Coherence Interferometry | p. 261 |
Analysis of White-Light Interference Fringes | p. 263 |
Digital Filtering Algorithms | p. 264 |
Phase Shift Algorithms | p. 265 |
Spatial Coherence Effects | p. 266 |
Experimental Setup | p. 267 |
The Illumination System | p. 267 |
The Interferometer | p. 267 |
Experimental Results | p. 269 |
Discussion and Conclusion | p. 271 |
References | p. 272 |
Surface Plasmon and Surface Wave Microscopy | p. 275 |
Introduction | p. 275 |
Overview of SP and Surface Wave Properties | p. 276 |
Surface Plasmon Microscopy--Kretschmann Prism Based Methods | p. 282 |
Objective Lens Based Surface Plasmon Microscopy: Amplitude Only Techniques | p. 285 |
Objective Lens Based SP Microscopy: Techniques Involving the Phase of the Transmission/Reflection Coefficient | p. 287 |
Objective Lens Interferometric Techniques | p. 287 |
Fluorescence Methods and Defocus | p. 294 |
Discussion | p. 301 |
SP Microscopy in Aqueous Media | p. 302 |
Discussion and Conclusions | p. 304 |
References | p. 306 |
Optical Coherence Tomography | p. 309 |
Introduction | p. 309 |
Principles of Operation | p. 310 |
Technological Developments | p. 314 |
Optical Sources for High-Resolution Imaging | p. 314 |
Spectroscopic OCT | p. 315 |
Real-Time OCT Imaging | p. 316 |
Optical Coherence Microscopy | p. 319 |
Beam Delivery Systems | p. 320 |
Applications | p. 322 |
Developmental Biology | p. 322 |
Cellular Imaging | p. 325 |
Medical and Surgical Microscopy--Identifying Tumors and Tumor Margins | p. 327 |
Image-Guided Surgery | p. 329 |
Materials Investigations | p. 331 |
Conclusions | p. 332 |
References | p. 33 |
Near-Field Optical Microscopy and Application to Nanophotonics | p. 339 |
Introduction | p. 339 |
Nano-Scale Fabrication | p. 340 |
Depositing Zinc and Aluminum | p. 340 |
Depositing Zinc Oxide | p. 345 |
Nanophotonic Devices and Integration | p. 346 |
Switching by Nonlinear Absorption in a Single Quantum Dot | p. 347 |
Switching by Optical Near-Field Interaction Between Quantum Dots | p. 348 |
Optical Storage and Readout by Optical Near-Field | p. 351 |
Conclusion | p. 354 |
References | p. 355 |
Optical Trapping of Small Particles | p. 357 |
Introduction | p. 357 |
Optical Levitation | p. 358 |
Momentum Transfer | p. 358 |
Experimental Setup | p. 360 |
Applications | p. 361 |
Optical Trapping | p. 362 |
Principles | p. 362 |
Optical Tweezers | p. 364 |
Photonic Force Microscopy | p. 366 |
Atom Traps | p. 370 |
Theory | p. 370 |
Arbitrary Focused Fields | p. 370 |
Scattering by Focused Fields | p. 372 |
Position Detection | p. 373 |
Trapping Forces | p. 375 |
Thermal Noise and Trap Calibration | p. 377 |
Experimental Setup | p. 380 |
Mechanics and Optics | p. 380 |
Traps and Probes | p. 381 |
Electronics | p. 382 |
Applications of Photonic Force Microscopy | p. 382 |
3D Thermal Noise Imaging | p. 382 |
Micro-mechanical Properties of Single Molecules | p. 384 |
Future Aims in Photonic Force Microscopy | p. 385 |
References | p. 386 |
Index | p. 389 |
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