Attosecond and Strong-Field Physics : Principles and Applications
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- Nombre de pages405
- PrésentationBroché
- FormatGrand Format
- Poids1.05 kg
- Dimensions19,2 cm × 25,4 cm × 2,3 cm
- ISBN978-1-107-19776-3
- EAN9781107197763
- Date de parution01/01/2018
- ÉditeurCambridge University Press
Résumé
Probing and controlling electrons and nuclei in matter at the attosecond timescale became possible with the generation of attosecond pulses by few-cycle intense lasers, revolutionizing our understanding of atomic structure and molecular processes. This book provides an intuitive approach to this emerging field, utilizing simplified models to develop a clear understanding of how matter interacts with attosecond pulses of light.
An introductory chapter outlines the structure of atoms and molecules and the properties of a focused laser beam. Detailed discussion of the fundamental theory of attosecond and strong-field physics follows, including the molecular tunneling ionization model, the quantitative rescattering model, and the laser-induced electronic diffraction theory for probing the change of atomic configurations in a molecule.
Highlighting cutting-edge developments in attosecond and strong-field physics, and identifying future opportunities and challenges, this self-contained text is invaluable for students and researchers in the field.
An introductory chapter outlines the structure of atoms and molecules and the properties of a focused laser beam. Detailed discussion of the fundamental theory of attosecond and strong-field physics follows, including the molecular tunneling ionization model, the quantitative rescattering model, and the laser-induced electronic diffraction theory for probing the change of atomic configurations in a molecule.
Highlighting cutting-edge developments in attosecond and strong-field physics, and identifying future opportunities and challenges, this self-contained text is invaluable for students and researchers in the field.
Probing and controlling electrons and nuclei in matter at the attosecond timescale became possible with the generation of attosecond pulses by few-cycle intense lasers, revolutionizing our understanding of atomic structure and molecular processes. This book provides an intuitive approach to this emerging field, utilizing simplified models to develop a clear understanding of how matter interacts with attosecond pulses of light.
An introductory chapter outlines the structure of atoms and molecules and the properties of a focused laser beam. Detailed discussion of the fundamental theory of attosecond and strong-field physics follows, including the molecular tunneling ionization model, the quantitative rescattering model, and the laser-induced electronic diffraction theory for probing the change of atomic configurations in a molecule.
Highlighting cutting-edge developments in attosecond and strong-field physics, and identifying future opportunities and challenges, this self-contained text is invaluable for students and researchers in the field.
An introductory chapter outlines the structure of atoms and molecules and the properties of a focused laser beam. Detailed discussion of the fundamental theory of attosecond and strong-field physics follows, including the molecular tunneling ionization model, the quantitative rescattering model, and the laser-induced electronic diffraction theory for probing the change of atomic configurations in a molecule.
Highlighting cutting-edge developments in attosecond and strong-field physics, and identifying future opportunities and challenges, this self-contained text is invaluable for students and researchers in the field.