Interactions of Light with Small Particles
- Nyhet
Inbunden, Engelska, 2026
Av Craig F. Bohren, Donald R. Huffman, Eugene E. Clothiaux, Craig F. (Pennsylvania State University) Bohren, Donald R. (University of Arizona) Huffman, Eugene E. (Pennsylvania State University) Clothiaux
5 009 kr
Produktinformation
- Utgivningsdatum2026-03-25
- Mått170 x 240 x 170 mm
- FormatInbunden
- SpråkEngelska
- Antal sidor976
- Upplaga2
- FörlagWiley-VCH Verlag GmbH
- ISBN9783527406647
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Craig F. Bohren is Distinguished Professor Emeritus of Meteorology at the Pennsylvania State University. During the academic year 1986-87 he was Visiting Professor of Physics and Astronomy at Dartmouth College, in 1993 the Selby Fellow of the Australian Academy of Sciences, and in 1994 Visiting Professor of Physics at Trinity University. In 1988 he was elected a Fellow of the Optical Society of America. Professor Bohren is the author of several books, and the first recipient of the American Meteorological Society's Louis J. Battan Award for Authors. Eugen E. Clothiaux is an Associate Professor of Meteorology at the Pennsylvania State University. He received his doctoral degree in physics from Brown University in 1990, then went on to the Pennsylvania State University to become a post-doctoral fellow in 1991. He remained there as a Research Associate for five years before becoming an Assistant Professor in 1999. Dr. Clothiaux has written several contributions on millimeter wave cloud radar and atmospheric radiation. Donald R. Huffman is Regents Professor of Physics at the University of Arizona. In 1983 he and colleague Wolfgang Krätschmer produced the first sample of C60, buckminsterfullerene. The two scientists were honored with the MRS medal and shared in the 1994 Hewlett-Packard Europhysics Prize.
- Chapter 1. Introduction1.1 What is a Small Particle?1.2 Scattering, Emission, and Absorption as Observable Phenomena1.3 Detecting and Imaging1.4 Elastic, Quasielastic, and Inelastic Scattering1.5 Scattering, Emission, and Absorption: Theoretical Interpretation1.6 Physics of Scattering by a Single Particle1.7 Direct and Inverse Problems Chapter 2. Electromagnetic Theory2.1 Field Vectors and the Maxwell Equations2.2 Time-Harmonic Fields2.3 Frequency-Dependent Constitutive Parameters2.4 Poynting Vector2.5 Plane Waves in Unbounded Media2.6 Plane Waves in Bounded Media2.7 Reflection and Transmission by a Slab2.8 Scattering Interpretation of Reflection and Transmission2.9 Measurement of Optical Constants2.10 Polarization2.11 Slab and Particle: Similarities and Differences Chapter 3. Absorption and Scattering by an Arbitrary Particle3.1 General Formulation of the Problem3.2 Amplitude Scattering Matrix3.3 Scattering Matrix3.4 Extinction, Scattering, and Absorption Chapter 4. Absorption, Scattering, and Emission by a Sphere4.1 Solutions to the Vector Helmholtz Equation4.2 Expansion of a Plane Wave in Spherical Vector Wave Functions4.3 Internal and Scattered Fields4.4 Cross Sections and Matrix Elements4.5 Asymmetry Parameter, Radiation Force, and Torque4.6 Radar Backscattering Cross Section4.7 Thermal Emission4.8 Sphere on or Above a Substrate Chapter 5. Particles Small Compared with the Wavelength5.1 Sphere Small Compared with the Wavelength5.2 Electrostatic (Quasistatic) Approximation5.3 Ellipsoid in the Electrostatic Approximation5.4 Coated Ellipsoid5.5 Polarizability Tensor5.6 Anisotropic Sphere5.7 Scattering Matrix5.8 Rayleigh, Smoluchowski, Einstein, Fluctuation Theory of Scattering Chapter 6. Rayleigh-Gans Approximation6.1 Amplitude Scattering Matrix6.2 Homogeneous Sphere6.3 Finite Cylinder Chapter 7. Geometrical Optics7.1 Absorption and Scattering Cross Sections of a Sphere7.2 Rainbow Angles7.3 Glory Scattering7.4 Scattering by Prisms: Ice-Crystal Halos7.5 Scattering by Axially-Illuminated Spheroids Chapter 8. A Potpourri of Particles8.1 Uniformly Coated Sphere8.2 Isotropic Chiral Sphere8.3 Infinite Right Circular Cylinder8.4 Spheroids8.5 Anisotropic Sphere8.6 Particle in an Absorbing Medium8.7 Fraunhofer Approximation: Nonspherical Particles8.8 Randomly Sparse Clusters of Small Spheres8.9 Clusters of Arbitrary Spheres and Other Regular Particles8.10 Heterogeneous Media and Particles: Effective-Medium Theories8.11 A Survey of Numerical Methods for Irregular Particles OPTICAL PROPERTIES OF BULK MATTER Chapter 9. Classical Theories of Optical Constants9.1 The Lorentz Model9.2 The Multiple-Oscillator Model9.3 The Anisotropic Oscillator Model9.4 The Drude Model9.5 The Debye Relaxation Model9.6 General Relationship Between e and µ Chapter 10. Measured Optical Constants10.1 Optical Properties of an Insulator: Magnesium Oxide10.2 Optical Properties of a Metal: Aluminum10.3 Optical Properties of a Non-Free-Electron Metal: Gold10.4 Optical Properties of a Polar Liquid: Water10.5 The Magnitude of k10.6 Validity of Bulk Optical Constants in Small-Particle Calculations10.7 Summary of Absorption Mechanisms OPTICAL PROPERTIES OF PARTICLES Chapter 11. Extinction11.1 Extinction = Absorption + Scattering11.2 Extinction Survey11.3 Some Extinction Effects in Nonmetallic Spheres11.4 Ripple Structure11.5 Christiansen Filter11.6 Absorption Effects in Extinction11.7 Extinction by Nonspherical Particles11.8 Extinction Measurements11.9 Extinction: A Synopsis Chapter 12. Surface Modes in Small Particles12.1 Surface Modes of Small Spheres12.2 Surface Modes of Nonspherical Particles12.3 Vibrational Modes in Insulators12.4 Electronic Modes in Metals Chapter 13. Directional Dependence of Scattering13.1 Scattering of Unpolarized and Linearly Polarized Light13.2 Measurement and Particle Production Techniques13.3 Measurements on Single Particles13.4 Some Theoretical and Experimental Results13.5 Particle Sizing13.6 Scattering Matrix Symmetry13.7 Measuring the Scattering Matrix13.8 Some Results for the Scattering Matrix13.9 Summary: Applicability of Lorenz-Mie Theory