Light scattering by nonspherical particles: theory, measurements, and applications (San Diego, 2000). - ОГЛАВЛЕНИЕ / CONTENTS
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ОбложкаLight scattering by nonspherical particles: theory, measurements, and applications / ed. by Mishchenko M.I., Hovenier J.W., Travis L.D. - San Diego: Academic Press, 2000. - xxx, 690 p., [10] p. of plates: ill. - Ref.: p.603-673. - Ind.: p.675-690. - ISBN 0-12-498660-9
 

Оглавление / Contents
 
Contributors ................................................... xv
Preface ....................................................... xix
Hints from History: A Foreword ................................ xxv
Hendrik C. van de Hulst


Part I Introduction
Chapter 1 Concepts, Terms, Notation Michael I. Mishchenko, Joop W. Hovenier, and Larry D. Travis I. Introduction ............................................. 3 II. Independent Scattering ................................... 4 III. Reference Frames and Particle Orientation ................ 5 IV. Amplitude Matrix ......................................... 7 V. Stokes Parameters ........................................ 9 VI. Phase Matrix ............................................ 11 VII. Total Optical Cross Sections ............................ 12 VIII. Dichroism and Extinction Matrix ......................... 13 IX. Reciprocity ............................................. 14 X. Ensemble Averaging ...................................... 15 XI. Scattering Matrix and Macroscopically Isotropic and Symmetric Media ......................................... 17 XII. Multiple Scattering and Radiative Transfer Equation ..... 22 XIII. Appendix: Geometrical Interpretation of Stokes Parameters and the Rotation Transformation Law for I, Q, U, and V ...................................... 24 Chapter 2 Overview of Scattering by Nonspherical Particles Michael I. Mishchenko, Warren J. Wiscombe, Joop W. Hovenier, and Larry D. Travis I. Introduction ............................................ 30 II. Exact Theories and Numerical Techniques ................. 31 III. Approximations .......................................... 45 IV. Measurements ............................................ 49 V. Manifestations of Nonsphericity in Electromagnetic Scattering .............................................. 54 VI. Abbreviations ........................................... 59 Chapter 3 Basic Relationships for Matrices Describing Scattering by Small Particles Joop W. Hovenier and Cornelis V.M. van der Mee I. Introduction ............................................ 61 II. Relationships for Scattering by One Particle in a Fixed Orientation ..................................... 62 III. Relationships for Single Scattering by a Collection of Particles ............................................... 74 IV. Testing Matrices Describing Scattering by Small Particles ............................................... 77 V. Discussion and Outlook .................................. 82
Part II Theoretical and Numerical Techniques
Chapter 4 Separation of Variables for Electromagnetic Scattering by Spheroidal Particles loan R. Ciric and Francis R. Cooray I. Introduction ............................................ 90 II. Spheroidal Coordinate Systems ........................... 91 III. Spheroidal Wave Functions ............................... 92 IV. Spheroidal Vector Wave Functions ........................ 98 V. Electromagnetic Scattering by a Coated Lossy Spheroid ............................................... 100 VI. Scattering of Electromagnetic Waves by a Chiral Spheroid ............................................... 109 VII. Scattering by Systems of Arbitrarily Oriented Spheroids .............................................. 114 Chapter 5 The Discrete Dipole Approximation for Light Scattering by Irregular Targets Bruce T. Draine I. Introduction ........................................... 131 II. What Is the Discrete Dipole Approximation? ............. 132 III. The DDSCAT Scattering Code ............................. 133 IV. Dipole Array Geometry .................................. 134 V. Target Generation ...................................... 134 VI. Dipole Polarizabilities ................................ 136 VII. Accuracy and Validity Criteria ......................... 137 VIII. Solution Method ........................................ 137 IX. Computational Requirements ............................. 139 X. Benchmark Calculations: Scattering by Tetrahedra ....... 140 XI. Summary ................................................ 144 Chapter 6 T-Matrix Method and Its Applications Michael I. Mishchenko, Larry D. Travis, and Andreas Macke I. Introduction ........................................... 147 II. The T-Matrix Approach .................................. 148 III. Analytical Averaging over Orientations ................. 152 IV. Computation of the T Matrix for Single Particles ....... 157 V. Aggregated and Composite Particles ..................... 160 VI. Public-Domain T-Matrix Codes ........................... 166 VII. Applications ........................................... 170 Chapter 7 Finite Difference Time Domain Method for Light Scattering by Nonspherical and Inhomogeneous Particles Ping Yang and K.N. Liou I. Introduction ........................................... 174 II. Conceptual Basis of the Finite Difference Time Domain Method ................................................. 175 III. Finite Difference Equations for the Near Field ......... 178 IV. Absorbing Boundary Condition ........................... 194 V. Field in Frequency Domain .............................. 201 VI. Transformation of Near Field to Far Field .............. 204 VII. Scattering Properties of Aerosols and Ice Crystals ..... 211 VIII. Conclusions ............................................ 220
Part III Compounded, Heterogeneous, and Irregular Particles
Chapter 8 Electromagnetic Scattering by Compounded Spherical Particles Kirk A. Fuller and Daniel W. Mackowski I. Introduction ........................................... 226 II. Historical Overview .................................... 226 III. Scattering and Absorption of Light by Homogeneous and Concentrically Stratified Spheres ...................... 229 IV. Eccentric Two-Sphere Systems ........................... 240 V. Aggregates of Ns Arbitrarily Configured Spheres ........ 243 VI. Cluster T Matrix and Random-Orientation Properties ..... 253 VII. Measurements and Applications .......................... 256 VIII. Vector Addition Theorem ................................ 267 Chapter 9 Effective Medium Approximations for Heterogeneous Particles Petr Chýlek, Gorden Videen, D.J. Wally Geldart, J. Steven Dobbie, and H.C. William Tso I. Introduction ........................................... 274 II. Effective Medium Approximations ........................ 275 III. Frequency-Dependent Dielectric Function ................ 277 IV. Dynamic Effective Medium Approximation ................. 282 V. Extended Effective Medium Approximations ............... 290 VI. Comparison with Other Approximations, Models, and Measurements ........................................... 293 VII. Operational Definition of an Effective Dielectric Constant ............................................... 306 VIII. Conclusions ............................................ 307 Chapter 10 Monte Carlo Calculations of Light Scattering by Large Particles with Multiple Internal Inclusions Andreas Macke I. Introduction ........................................... 309 II. Ray-Tracing/Monte Carlo Technique ...................... 310 III. Results ................................................ 313 IV. Analytic Approximation ................................. 320 V. Conclusions ............................................ 322 Chapter 11 Light Scattering by Stochastically Shaped Particles Karri Muinonen I. Introduction ........................................... 323 II. Stochastic Geometry .................................... 327 III. Scattering by Gaussian Particles ....................... 335 IV. Conclusion ............................................. 349
Part IV Laboratory Measurements
Chapter 12 Measuring Scattering Matrices of Small Particles at Optical Wavelengths Joop W. Hovenier I. Introduction ........................................... 355 II. Mueller Matrices and Polarization Modulation ........... 356 III. Experimental Setup ..................................... 360 IV. Tests .................................................. 361 V. Results ................................................ 362 Chapter 13 Microwave Analog to Light-Scattering Measurements Bo Å.S. Gustafson I. Introduction ........................................... 367 II. Analog Materials ....................................... 368 III. Measurement Principles ................................. 370 IV. Measurements ........................................... 378 V. Discussion ............................................. 389
Part V Applications
Chapter 14 Lidar Backscatter Depolarization Technique for Cloud and Aerosol Research Kenneth Sassen I. Introduction ........................................... 393 II. Theoretical Background ................................. 395 III. Polarization Lidar Design Considerations ............... 399 IV. Aerosol Research ....................................... 403 V. Water and Mixed-Phase Cloud Research ................... 406 VI. Cirrus Cloud Research .................................. 408 VII. Precipitation and the Phase Change ..................... 411 VIII. Conclusions and Outlook ................................ 414 Chapter 15 Light Scattering and Radiative Transfer in Ice Crystal Clouds: Applications to Climate Research K.N. Liou, Yoshihide Takano, and Ping Yang I. Introduction ........................................... 418 II. Unified Theory for Light Scattering by Ice Crystals .... 418 III. Application to Remote Sensing and Climate Research ..... 435 IV. Summary ................................................ 447 Chapter 16 Centimeter and Millimeter Wave Scattering from Nonspherical Hydrometeors Kültegin Aydin I. Introduction ........................................... 451 II. Polarimetric Radar Parameters .......................... 452 III. Hydrometeor Models ..................................... 456 IV. Scattering Characteristics of Hydrometeors ............. 459 V. Discrimination of Hydrometeors with Polarimetric Radar .................................................. 470 VI. Quantitative Estimation with Polarimetric Radar ........ 476 Chapter 17 Microwave Scattering by Precipitation Jeffrey L. Haferman I. Introduction ........................................... 482 II. Review of Previous Work ................................ 485 III. Mathematical Formulation ............................... 499 IV. Examples of Model Atmosphere Simulations and Results ... 512 V. Conclusions and Recommendations ........................ 519 VI. Appendix A. Particle Size Distribution: N(r) versus N(D) ....................................... 522 VII. Appendix B. Particle Size Distribution: Equivalent Spheres ..................................... 522 VIII. Appendix C. Use of Power Law Distribution in T-Matrix Method ................................................. 524 Chapter 18 Polarized Light Scattering in the Marine Environment Mary S. Quinby-Hunt, Patricia G. Hull, and Arlon J. Hunt I. Introduction ........................................... 525 II. Analytical Description of Light Scattering ............. 527 III. Experimental Measurement Techniques .................... 533 IV. Polarized Light Scattering in the Marine Atmosphere .... 536 V. Polarized Light Scattering in the Submarine Environment ............................................ 543 VI. Polarized Light Scattering in Sea Ice .................. 551 VII. Conclusions ............................................ 553 Chapter 19 Scattering Properties of Interplanetary Dust Particles Kari Lumme I. Introduction ........................................... 555 II. Observations of Zodiacal Light and Their Interpretation ......................................... 558 III. Dust in the Solar System: Complementary View ........... 568 IV. Shape Models for Dust Particles ........................ 572 V. Light Scattering by Cosmic Dust Particles .............. 578 VI. Discussion ............................................. 582 Chapter 20 Biophysical and Biomedical Applications of Nonspherical Scattering Alfons G. Hoekstra and Peter M.A. Sloot I. Introduction ........................................... 585 II. Theoretical Framework .................................. 587 III. Experimental Techniques ................................ 596 IV. Concluding Remarks ..................................... 602 References .................................................... 603 Index ......................................................... 675


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