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Multiphoton molecular dissociation in intense laser fields
Shaul Mukamel
*
,
Joshua Jortner
*
Corresponding author for this work
School of Chemistry
Tel Aviv University
Massachusetts Institute of Technology
Research output
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Contribution to journal
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Article
›
peer-review
151
Scopus citations
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Keyphrases
Energy Range
100%
Intense Laser Field
100%
Multiphoton
100%
Molecular Dissociation
100%
Photofragmentation
83%
Intermediate Energy
50%
Radiative Coupling
50%
Low Energy
33%
Molecular Parameters
33%
Level Structure
33%
Ladder Model
33%
Zero Order
16%
High Energy
16%
Numerical Simulation
16%
Intrastate
16%
Hamiltonian Formalism
16%
Pulse Duration
16%
Collision-free
16%
Power Required
16%
Saturation Effect
16%
Anharmonic Oscillator
16%
Field Intensity
16%
Specific Applications
16%
Mixed State
16%
Multilevel Systems
16%
Effective Hamiltonian
16%
Excitation Process
16%
Polyatomic Molecules
16%
Vibrational Relaxation
16%
Pulse Parameters
16%
Photodissociation
16%
Off-resonance
16%
Anharmonicity
16%
Potential Surface
16%
Vibrational Energy
16%
Resonance Theory
16%
Vibrational States
16%
Dynamic Stark Shift
16%
Field Parameters
16%
Energy Region
16%
Isotope Shift
16%
Bond Dissociation Energy
16%
Energy Redistribution
16%
Medium-sized Molecules
16%
High Energy Level
16%
Molecular Energy Levels
16%
Chemistry
Ground State
100%
Anharmonic Oscillator
100%
Vibrational Relaxation
100%
Surface Potential
100%
Photodissociation
100%
Vibrational State
100%
Vibrational Energy
100%
Dissociation Energy
100%
Resonance Energy
100%
Anharmonicity
100%
Physics
Molecular Relaxation
100%
Photodissociation
100%
Polyatomic Molecule
100%
Vibrational State
100%
Molecular Energy Levels
100%
Ground State
100%