Physical Review Letters · 2011 · 111 citations · 21 references
Natural SciencesPhysicsOpticsPhotonicsQuantum MechanicsNonlinear OpticsPhysical OpticsQuantum OpticsRefractive IndexIonizationKerr EffectKerr NonlinearityKramers-kronig RelationsNonlinear Optical EffectsNonlinear Optical PropertiesNonlinear Optical ResponseOptical Kerr Effect
Saturation of the intensity dependence of the refractive index is directly computed from ionization rates via a Kramers-Kronig transform. The linear intensity dependence and its dispersion are found to be in excellent agreement with complete quantum mechanical orbital computations. Higher-order terms concur with solutions of the time-dependent Schrödinger equation. Expanding the formalism to all orders up to the ionization potential of the atom, we derive a model for saturation of the Kerr effect. This model widely confirms recently published and controversially discussed experimental data and corroborates the importance of higher-order Kerr terms for filamentation.
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