Radiation Scattering on Atoms, Plasmas, and Nanoparticles

Frank B. Rosmej; Valery A. Astapenko; Valery S. Lisitsa

doi:10.1007/978-3-030-05968-2_4

Radiation Scattering on Atoms, Plasmas, and Nanoparticles

Frank B. Rosmej
, Valery A. Astapenko
, Valery S. Lisitsa

École Polytechnique

Moscow Institute of Physics and Technology
Kurchatov Institute

Research output: Chapter in Book/Report/Conference proceeding › Chapter › peer-review

Abstract

Radiation scattering on free electrons, atoms, plasmas, and nanoparticles is considered using various approaches both quantum and classical ones. Scattering on atoms is described in dipole and non-dipole approximations while the high-frequency limit is applied for elastic (Rayleigh) and Compton scattering. The high-frequency limit is treated using the dynamical form factor (DFF), the Compton profile, and the impulse approximation. The DFF of the plasma component is also used for the description of the radiation scattering in plasmas, namely Compton scattering, transient scattering, and scattering with plasmon generation and absorption. Radiation scattering and absorption on nanoparticles placed in homogeneous media are presented within the framework of the Mie theory. Numerical examples are given for radiation scattering and absorption on silver nanospheres with different radii in glass in the vicinity of surface plasmon resonances.

Original language	English
Title of host publication	Springer Series on Atomic, Optical, and Plasma Physics
Publisher	Springer
Pages	149-180
Number of pages	32
DOIs	https://doi.org/10.1007/978-3-030-05968-2_4
Publication status	Published - 1 Jan 2021

Publication series

Name	Springer Series on Atomic, Optical, and Plasma Physics
Volume	104
ISSN (Print)	1615-5653
ISSN (Electronic)	2197-6791

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10.1007/978-3-030-05968-2_4

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title = "Radiation Scattering on Atoms, Plasmas, and Nanoparticles",

abstract = "Radiation scattering on free electrons, atoms, plasmas, and nanoparticles is considered using various approaches both quantum and classical ones. Scattering on atoms is described in dipole and non-dipole approximations while the high-frequency limit is applied for elastic (Rayleigh) and Compton scattering. The high-frequency limit is treated using the dynamical form factor (DFF), the Compton profile, and the impulse approximation. The DFF of the plasma component is also used for the description of the radiation scattering in plasmas, namely Compton scattering, transient scattering, and scattering with plasmon generation and absorption. Radiation scattering and absorption on nanoparticles placed in homogeneous media are presented within the framework of the Mie theory. Numerical examples are given for radiation scattering and absorption on silver nanospheres with different radii in glass in the vicinity of surface plasmon resonances.",

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AU - Lisitsa, Valery S.

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N2 - Radiation scattering on free electrons, atoms, plasmas, and nanoparticles is considered using various approaches both quantum and classical ones. Scattering on atoms is described in dipole and non-dipole approximations while the high-frequency limit is applied for elastic (Rayleigh) and Compton scattering. The high-frequency limit is treated using the dynamical form factor (DFF), the Compton profile, and the impulse approximation. The DFF of the plasma component is also used for the description of the radiation scattering in plasmas, namely Compton scattering, transient scattering, and scattering with plasmon generation and absorption. Radiation scattering and absorption on nanoparticles placed in homogeneous media are presented within the framework of the Mie theory. Numerical examples are given for radiation scattering and absorption on silver nanospheres with different radii in glass in the vicinity of surface plasmon resonances.

AB - Radiation scattering on free electrons, atoms, plasmas, and nanoparticles is considered using various approaches both quantum and classical ones. Scattering on atoms is described in dipole and non-dipole approximations while the high-frequency limit is applied for elastic (Rayleigh) and Compton scattering. The high-frequency limit is treated using the dynamical form factor (DFF), the Compton profile, and the impulse approximation. The DFF of the plasma component is also used for the description of the radiation scattering in plasmas, namely Compton scattering, transient scattering, and scattering with plasmon generation and absorption. Radiation scattering and absorption on nanoparticles placed in homogeneous media are presented within the framework of the Mie theory. Numerical examples are given for radiation scattering and absorption on silver nanospheres with different radii in glass in the vicinity of surface plasmon resonances.

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M3 - Chapter

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SP - 149

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BT - Springer Series on Atomic, Optical, and Plasma Physics

PB - Springer

ER -

Radiation Scattering on Atoms, Plasmas, and Nanoparticles

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