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Laser control of atoms and molecules /

Détails bibliographiques
Cote:Libro Electrónico
Auteur principal: Letokhov, V. S.
Format: Électronique eBook
Langue:Inglés
Publié: Oxford ; New York : Oxford University Press, 2007.
Sujets:
Accès en ligne:Texto completo
Table des matières:
  • 1. Introduction
  • Ways to control the emission of light
  • From the control of light to the control of atoms and molecules
  • On the aims of this book
  • 2. Elementary radiative processes
  • Spontaneous emission
  • Stimulated absorption and emission
  • Recoil effect and Doppler effect
  • Resonant excitation of a two-level system free from relaxation
  • Resonant excitation of a two-level system with relaxations
  • Radiation-scattering processes
  • 3. Laser velocity-selective excitation
  • Doppler broadening of optical spectral lines
  • Homogeneous broadening mechanisms
  • Doppler-free saturation spectroscopy
  • Ultrahigh spectral resolution
  • 4. Optical orientation of atoms and nuclei
  • Optical orientation of atoms
  • Radio-frequency spectroscopy of optically oriented atoms
  • Spin-exchange optical pumping
  • Coherent effects and optically oriented atoms
  • Applications of optically pumped atoms.
  • 5. Laser cooling of atoms
  • Introduction. History of ideas
  • Laser radiation force on a two-level atom
  • Quantum fluctuation effects. Temperature limits of laser cooling
  • Doppler cooling
  • Laser polarization gradient cooling below the Doppler limit
  • Cooling below the recoil limit
  • 6. Laser trapping of atoms
  • Optical trapping
  • Magnetic trapping
  • Magnetooptical trapping
  • Gravitooptical and near-field traps
  • Optical trapping of cold atoms
  • new tools for atomic physics
  • 7. Atom optics
  • Introduction. Matter waves
  • Reflection of atoms by light
  • Laser focusing of an atomic beam
  • Diffraction of atoms
  • Atom interferometry
  • Atomic holography
  • Towards atom nanooptics
  • 8. From laser-cooled and trapped atoms to atomic and molecular quantum gases
  • Introduction
  • Bose
  • Einstein condensation of atomic gases
  • Fermi-degenerate quantum atomic gases
  • Formation of ultracold molecules
  • Molecular quantum gases.
  • 9. Laser photoselective ionization of atoms
  • Introduction
  • Resonance excitation and ionization of atoms
  • Photoionization detection of rare atoms and radioactive isotopes
  • Laser photoionization separation of isotopes, isobars, and nuclear isomers
  • 10. Multiphoton ionization of molecules
  • Photoselective resonance ionization of molecules
  • Resonance-enhanced multiphoton ionization (REMPI) of molecules
  • Laser desorption/ionization of biomolecules
  • 11. Photoselective laser control of molecules via molecular vibrations
  • Vibrationally mediated photodissociation of molecules via excited electronic states
  • Basics of IR multiple-photon excitation/dissociation of polyatomic molecules in the ground state
  • Characteristics of the IR MPE/D of polyatomic molecules
  • Intermolecular selectivity of IR MPE/D for laser isotope separation
  • Prospects for mode-selective MPE/D by IR femtosecond pulses
  • 12. Coherent laser control of molecules
  • Introduction to coherent optimal control
  • Coherent control using wave packets
  • Coherent control using quantum interference
  • Optimal feedback control
  • Coherent optimal control by tailored strong-field laser pulses
  • Coherent control of large molecules in liquids
  • Perspectives
  • 13. Related topics: laser control of microparticles and free electrons
  • Laser trapping of microparticles
  • Laser control of free-electron motion
  • 14. Concluding comments.