Path integral formulation of retardation effects in nonlinear optics
- 15 February 1994
- journal article
- Published by AIP Publishing in The Journal of Chemical Physics
- Vol. 100 (4), 2953-2974
- https://doi.org/10.1063/1.466438
Abstract
The signatures of retardation in nonlinear optical susceptibilities are studied by starting with the multipolar Hamiltonian and using path integral techniques to develop a perturbative scheme for incorporating the retarded interaction with the electromagnetic field. The present approach accounts for cooperative radiative decay and polariton transport which show up in resonant spectroscopies of nanostructures. These effects, which require a quantum electrodynamical description of the field, are missed by conventional nonretarded theories. Application is made to the enhanced spontaneous emission rate of biexcitons, which may show up in the nonlinear reflection off molecular superlattices.Keywords
This publication has 31 references indexed in Scilit:
- Cooperative radiative decay in the nonlinear optical response of excitonic nanostructuresPhysical Review B, 1993
- Charge-transfer excitons and χ(2) of molecular monolayersThe Journal of Chemical Physics, 1992
- Density-dependent exciton radiative lifetimes in GaAs quantum wellsPhysical Review B, 1992
- Transient gratings, four-wave mixing and polariton effects in nonlinear opticsPhysics Reports, 1991
- Temperature-dependent superradiant decay of excitons in small aggregatesPhysical Review Letters, 1990
- Quasi-epitaxial growth of organic multiple quantum well structures by organic molecular beam depositionApplied Physics Letters, 1990
- Nonlinear susceptibilities of molecular aggregates: Enhancement ofby sizePhysical Review A, 1989
- Three-photon difference-frequency spectroscopy of polaritons in alkali halidesPhysical Review B, 1989
- Surface and Bulk Spectroscopy of A Molecular Crystal: Effect of Relaxation and Thermal or Static DisorderAdvances in Chemical Physics, 1988
- Propagation and Dephasing of Picosecond Phonon Polariton Pulses in Ammonium ChloridePhysical Review Letters, 1986