Solution of the Schrödinger Equation with a Hamiltonian Periodic in Time
- 24 May 1965
- journal article
- research article
- Published by American Physical Society (APS) in Physical Review B
- Vol. 138 (4B) , B979-B987
- https://doi.org/10.1103/physrev.138.b979
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.Keywords
This publication has 12 references indexed in Scilit:
- Observations of Transitions Between Stationary States in a Rotating Magnetic FieldPhysical Review B, 1964
- Coherent and Incoherent States of the Radiation FieldPhysical Review B, 1963
- Some Causes of Resonant Frequency Shifts in Atomic Beam Machines. I. Shifts Due to Other Frequencies of ExcitationJournal of Applied Physics, 1963
- Geometrical Representation of the Schrödinger Equation for Solving Maser ProblemsJournal of Applied Physics, 1957
- Resonance Transitions Induced by Perturbations at Two or More Different FrequenciesPhysical Review B, 1955
- Stark Effect in Rapidly Varying FieldsPhysical Review B, 1955
- Resonance Transitions in Molecular Beam Experiments. I. General Theory of Transitions in a Rotating Magnetic FieldPhysical Review B, 1955
- Use of Rotating Coordinates in Magnetic Resonance ProblemsReviews of Modern Physics, 1954
- On the Theory of the Magnetic Resonance Method of Determining Nuclear MomentsPhysical Review B, 1940
- Magnetic Resonance for Nonrotating FieldsPhysical Review B, 1940