Quantum Control of Molecular Dynamics
The following sections are included:
Introduction
Quantum Control of Nuclear Dynamics
Time-Dependent Schrödinger Equation for Nuclear Wave Packets
Born-Oppenheimer (BO) Hamiltonian
Time-Propagation of Nuclear Wave Packets
Overview of Optical Control by Laser Pulses
Two-Electronic-State Model
One-Electronic-State Model
Pulse Design by Optimal Control Theory
Global Control Method
Wave Function Formalism
Density Matrix Formalism
Relation between the Schrödinger Formalism and the Density Matrix Formalism
Calculation Algorithms
Perturbative Treatments
Other Optimal Control Methods
Local Control Method
Preliminary Results Using the Local Control Method
Population Control
Population Inversion of a Two-Level System
Population Inversion of a Three-level System
Wave Packet Control
Displaced Harmonic Oscillator Model
Displaced Morse Oscillator Model
Application of the Local Control Method to Photochemical Reactions
Control of Photo-isomerization
Quantum Control of NaI Predissociation
Wave Packet-Shaping Scheme
Pump-Dump Control Scheme
Application of the Optimal (Global) Method to the Control of Intramolecular Vibrational-Energy Redistribution (IVR) Processes
Concluding Remarks
Acknowledgment
References