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Solution of the Schrödinger Equation with a Hamiltonian Periodic in Time

Physical Review · 1965 · Vol. 138(4B) · pp. B979–B987
J.H. Shirley

Abstract

The interaction of a quantum system with an oscillating field is studied in a formalism which replaces the semiclassical time-dependent Hamiltonian with a time-independent Hamiltonian represented by an infinite matrix. The formalism is developed as a mathematical equivalent to the semiclassical treatment, and interpreted as a classical approximation to the quantum treatment of the field. Combined with a perturbation theory for two nearly degenerate states, the formalism provides a convenient method for determining resonance transition probabilities including frequency shifts and multiple quantum transitions. The theory is illustrated by a detailed study of the simple case of a two-state system excited by a strong oscillating field.

Spectroscopy and Quantum Chemical StudiesQuantum Information and CryptographyQuantum optics and atomic interactionsSemiclassical physicsHamiltonian (control theory)PhysicsDegenerate energy levelsQuantum mechanicsExcited stateSchrödinger equationQuantum field theoryCovariant Hamiltonian field theoryFormalism (music)
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References
Coherent and Incoherent States of the Radiation Field
Physical Review · 1963 · 6,672 citations
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