Minsk bibliography on light scattering


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Important notes.   1. To see all references of a section one must visit all its subsections. Sorry for this (temporal) inconvenience.   2. At the moment only a part of the database is available via the Internet.


  T a b l e   o f   c o n t e n t s :
1 SPHERICAL HOMOGENEOUS PARTICLES
1.1 General works on light scattering. History.
1.1.1 General works on light scattering
1.1.2 History
1.1.3 Old works (before 1950)
1.2 Mie theory. Methodology.
1.2.1 Bessel functions
1.2.2 Angular functions and their presentations.
1.2.3 Other methodological questions
1.2.4 Integrals of Bessel and Legendre functions
1.3 Mie theory. Calculations
1.3.0 Calculations by Mie theory (single particles). Old papers
1.3.1 Asymmetry of phase function and scattering in solid angles(?)
1.4 Mie theory calculations (polydisper.)
1.5.0 Resonances in sphere (plane wave)
1.5.1 Resonances under beam action
1.5.2 Resonance (particles on substratum or fiber)
1.6 Asymptotic expressions for large particles
1.6 Organized structures (microlitogr., particles on substr.)
1.7 Internal field and absorption of homogeneous sphere
1.7.0 Internal field
1.7.1 Absorption
1.7.2 Absorption in selected region of sphere
1.7.3 Internal and near field due to irradiation by beam
1.7.4 Internal field in geometrical optics
1.7.5 Angle-averaged internal field
1.7.6 Description of absorption by plasmons, polaritrons, etc.
1.8 Near field of sphere
1.9 Particles (not only spheres) of active materials
1_10 Perfectly reflecting spheres
1_11.0 Addition theorems
1_11.1 Stokes vector. Mueller matrices for any particles
1_12 Emissivity of particles (not of C)
1_13 Integral formulation of scattering theory
1_14 Propagation of EM waves in media
1_14.1 Anisotropic, bianisotropic, chiral media
1_14.2 Inhomogeneous media
2 INHOMOGENEOUS SPHERES
2.1 Core-mantle and multilayered spheres
2.1.0 Calculations by exact theory (core-mantle)
2.1.1 Multilayered sphere
2.1.2 Methodology of calculation for core-mantle and layered spheres
2.2 Sphere with smooth radial inhomogeneity
2.3 Internal field and absorption in inhomogeneous sphere
2.4 Resonance for inhomogeneous sphere
2.5 Sphere with chaotic internal inhomogeneity
2.6 Rayleigh and RGD approximations for inhomogeneous sphere
2.7 Anomalous diffraction approximation inhomogeneous spheres
2.8 Sphere with nonconcentric core and inclusions
2.9 GO approximation for inhomogeneous spheres
3 APPROXIMATIONS FOR HOMOGENEOUS SPHERES
3.1.0 GO approximation and calculations for large spheres. Rainbows
3.1.1 Kirchhoff diffraction
3.2 Rayleigh and RGD approximations for homogeneous sphere
3.3 Hulst approximation for homogeneous sphere
3.4 Debye resonance
3.5 Shifrin method for spheres
3.6 Plasma resonance
3.7 Eikonal approximation for sphere
4 COMPLICATED PROBLEMS
4.1 Sphere in absorbing medium. Evanescent wave.
4.2 Beam scattering
4.2.1 Sphere
4.2.2 Cylinder
4.2.3 Spheroid, etc.
4.2.4 Particle aggregate
4.3 Impulse scattering by particle
4.4 Scattering by charged sphere and particle charging
4.5 Scattering by rough particle
4.6 Scattering by spatially dispersive sphere
4.7 Scattering by anisotropic and chiral particles
4.7.0 Anisotropic particles (not only spheres)
4.7.1 Spherulites, crystals
4.7.2 Gyrotropic and chiral particles
4.7.3 Liquid crystals
4.7.4 RGD and AD for anisotropic particles
4.7.5 Anisotropic ferrite particles
4.7.6 Particle in anisotropic medium
4.8 Exotic problems of diffraction theory
4.9 Magnetic spheres (and all with account of mu)
4_10 Scattering by optically nonlinear objects (not only sphere)
4_11 Scattering by particles close to surface
4_12 Scattering of several waves by a particle
4_13 Moving particle
5 CYLINDRICAL PARTICLES
5.1 Circular infinite cylinder (normal incidence)
5.2 Oblique incidence and orientation averaging
5.3 Multilayered cylinders
5.4 GO approximation for cylinders (incl. hexagon. ones)
5.5 Cylinders with smooth radial inhomogeneity
5.6 Gyrotr., gyroelectr., anisotropic cylinders
5.7 Internal and near fields of cylinder
5.8 Experiments on cylinders
5.9 Resonances on cylinders
5_10 Miscellaneous, incl. arrays
5_11 Hulst approximation for cylinders
5_12 Rayleigh and RGD approximations for cylinders
5_13 Noncircular infinite cylinders
5_14 Circular cylinder of finite length and disk
5_15 S-approximation (Perelman) and Hart-Montroll one for cylinders
6 NONSPHERICAL OBJECTS
6.1 T-matrix method
6.1.0 T-matrix method in general
6.1.1 T-matrix method for complex objects
6.1.2 Averaging over orientations and polydispers.
6.1.3 Modifications of T-matrix method
6.2 Asano method
6.2.0 Asano method for single particle
6.2.1 Spheroidal function method for complex objects
6.2.2 Spheroidal functions
6.3 Integral equation method (Usunoglu, Weil, etc.)
6.4 Point matching method (PMT, GPMT)
6.5 Perturbation method
6.6 DDA method (in wide sense)
6.7.0 Method of moments (MoM) and finite element method
6.7.1 FDTD and FDFD methods
6.7.2 Discretized Mie-formalism (DMF)
6.7.3 Generalized multipole technique (GMT, MMP)
6.7.4 Method of equivalent discrete sources
6.7.5 Current filament method
6.8 Other numerical methods
6.9 Eyges, Nelson works and similar ones
6_10 Chylek method
6_11 GO approximation for nonspherical particles (except cylinders)
6_12 Rayleigh and RGD approximations for nonspherical particles
6_13 Works of Khlebtsov
6_14 Multiple scattering by nonspherical particles
6_15 Stevenson method
6_16 Experiments on nonspherical particles
6_17 Russian exotic works
6_18 Miscellaneous
6_19 Interaction with nonspherical particles
6_19.0 Internal and near fields of nonspherical particles
6_19.1 Resonances in nonspherical objects
6_20 Shifrin methods for nonspherical objects
6_21 Dyadic Green function (common works)
6_22 Hulst approximation for nonspherical particles
6_23 Inverse tasks for nonspherical particles
6_24 Scattering by several spheroids (theory)
6_25 Nonspherical particle of randomly irregular shape
6_26 Rayleigh hypothesis
6_27 Approximations of Perelman (S-approx.) and Hart-Montroll
6_28 WKB approximation
6_29 Works of Chew
7 SPECIFIC SCATTERING MEDIA
7.1 Pigments
7.2 Interstellar particles
7.2.0 Composition
7.2.1 Reviews, proceedings, etc
7.2.2 Alignment of particles
7.2.3 Polarization
7.2.4 Scattering by particles
7.2.5 Thermal effects and emission
7.2.6 Optical constants
7.2.7 Clusters and aggregates
7.2.8 Radiation pressure on particles
7.2.9 Laboratory investigations
7.3 Marine particles
7.4 Bubbles in water and glass
7.5 Photolayers
7.6 Clouds of Venus, Jupiter, etc.
7.7 Industrial ?vybrosy?
7.8 Microbioobjects (labor.)
7.9 Macrobioobjects
7_10 Oil/water? emulsions
7_11 Metal ashes?
7_11.0 Metal ashes? in general
7_11.1 Size effect in metalic particles
7_11.2 Anomalous absorption in far-IR
7_11.3 Surface plasmon in metalic particles
7_11.4 Colour of metalic ?zolej?
7_11.5 Silver
7_12 Holograms
7_13 Rough surfaces
7_14 Combustion products (oxides of Al, Mg, etc.)
7_15 Powders
7_16 Plasma objects
7_17 Vegetation
7_18 Volcanic ash
8 CARBON
8.1.1 Optical constants of C
8.1.2 General information on carbon particles (size, etc.)
8.2 Scattering and extinction by C particles
8.3 ?Vozdejstvie?, combustion, unveiling?, breakdown of C particles
8.4 Emission of C particles
8.5 Soot in atmosphere, smokes, nuclear winter
8.6 Slurry
8.7 Fuel droplets
9 ICE
9.1 General information
9.1.1 Optical, therm. and mechanical constants of ice
9.1.2 Ice in atmosphere (not optics)
9.2 Scattering by ice particles and crystals in general
9.3 Halo, rainbow and other optical effects
9.4 Snow
9.5 Radiation effects for ice crystals
A0 WATER
A0.1 Optical constants of water
A0.2 Scattering by water particles (incl. those in clouds)
A0.3 Scattering by raindrops? in cm-, mm-, and radio-domains
A0.4 Condensational growth of water droplets. Size distribution.
A0.5 Surface layer of a raindrop
A1 AGGLOMERATES, FRACTALS
A1.1 Scattering by two spheres and ensemble of spheres
A1.2 Scattering by fractals
A1.2.1 Common works on fractals
A1.2.2 Scattering by agglomerates, fractals, clusters
A1.2.3 Metalic clusters
A1.2.4 Carbon clusters
A1.3 M-G and effective medium theories
A1.4 Collective? effects. Close-packed particles.
A1.5 Slab of random? particles (radiation transfer, weak localization)
A1.6 Ordered? structures (microlitogr., particles on substr.)
A1.7 Works of Twersky
A1.8 Films
A2 NONLINEAR AND MECHANICS EFFECTS IN AEROSOLS
A2.0 Reviews on nonlinear phenomena
A2.1 Mechanics effects
A2.1.1 Levitation, trapping and radiation pressure
A2.1.2 Photophoresis
A2.1.3 Thermal elasticity
A2.2 Stimulated oscillations of particles and thermal modulation
A2.3 Photoelectron emission
A2.4 Raman-effect and fluorescence
A2.5 SERS on surface of particles
A2.6 Aureole. Self-actions of beams.
A2.7 Optical breakdown and plasma
A2.8 Laser spectral analysis of aerosols
A2.9 Laser effect on particles and order generation
A2_10 Optical bistability
A2_11 Measurement of particle temperature
A3 VAPORIZATION AND EXPLOSION OF PARTICLES (EXCEPT C AND ICE)
A3.1 General questions
A3.1.1 Thermodynamic? constants
A3.1.2 Grids. Mathematical questions
A3.2 Evaporation
A3.2.1 Evaporation a drop
A3.2.2 Clearing channel in evaporating medium
A3.3 Heating, evapor., superheat. of solid particles (except C, ice, metals)
A3.4 Heating and evaporation of nonspherical particles
A3.5 Heating and combustion of metallic particles
A3.6 Explosion of particles
A3.7 Evaporation, explosion, combustion of c.-m. and layered particles
A4 ATMOSPHERE AEROSOL
A4.1 Optical constants of atmosphere aerosol (except C)
A4.2 Scattering by atmosphere aerosol
A4.2.0 Scattering by atmosphere aerosol
A4.2.1 Relation of optical parameters with humidity
A4.2.2 Measurement of scattering matrix of atm. aerosol
A4.3 Stratosphere aerosol
A4.4 Aerosol influence on climate
A4.5 Physical processes in aerosol systems
A4.6 Size distributions
A5 OPTICAL CONSTANTS
A5.1 Common questions
A5.1.0 Exper. methods of determination of optical constants
A5.1.1 Reflection by absorbing media
A5.2 IR-materials
A5.3 Minerals
A5.4 Quartz, silicon and its oxides
A5.5 Magnesium oxide
A5.6 Beryllium oxide
A5.7 Aluminium oxide
A5.8 Metals, their oxides and silicates
A5.8.1 Metals
A5.8.2 Oxides, silicates
A5.9 Optical constants in mm-domain
A5_10 Magnetic constants
A6 INVERSE TASKS
A6.1 Regularization method
A6.2 Method of complete phase function?
A6.3 Method of spectral turbidity
A6.4 Small-angle method
A6.5 Determination of particle sizes from scattering
A6.6 Determination of optical constants from scattering
A6.7 Determination of concentration
A6.8 Works of common interest
A6.9 Determination of particle size by Doppler technique
A7 LABORATORY EXPERIMENT
A7.1 Experimental equipment
A7.2 Experiments for single particles
A7.3 Synthesis of aerosols and ?zoles?
A7.4 Methodology of laboratory experiment
A7.5 Particle counters
A7.6 Measurement of scattering matrix (not atmosphere)
A7.7 Dispersion filters
A7.8 Microwave experiment
A7.9 Microtargets for LTC
A7_10 LTC
A7_11 Med.-biolog. effects of EM radiation (except lasers)
A7_12 Appl.of lasers and effects of laser rad. on medium (except biol.)
A7_13 Application of laser rad. in medicine and biology
A7_14 CREO?
A8 LASER REMOTE SENSING
A8.1 Theory of remote sensing in atmosphere
A8.2 Laser remote sensing (experiments)
A8.3 Remote sensing of aerosols over the ocean
A8.4 Scattering of solar radiation
A9 RADIATIVE TRANSFER
A9.1 Theory of radiative transfer
A9.2 Two- and many-flux methods (Kubelka-Munk)
A9.3 Speed of light in scattering media
B0 BOOKS, COLLECTIONS
B0.1 Books
B0.2 Collections and special issues
B0.3 Handbooks, tables
B0.4 Patents
B0.5 Dissertations
B0.6 Preprints
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(c) 1990,2001 Victor Babenko (Bibliography compiling)
(c) 2001 Serge Beletsky (Design & Programming)
 

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Last updated: 2001/10/30