Systematic Treatment of General Time-Dependent Harmonic Oscillator in Classical and Quantum Mechanics
スポンサーリンク
概要
- 論文の詳細を見る
A systematic way of treating a general time-dependent harmonic oscillator in classical and quantum mechanics is given. By a general canonical transformation in classical mechanics, the time-dependent Hamiltonian can be transformed to a time-independent one (the Lewis-Riesenfeld invariant), explicitly separating a total time-derivative term. In quantum mechanics, one can obtain the phase of the wave function straightforwardly from this total-derivative term, together with the corresponding time-independent Hamiltonian. We solve analytically and algebraically the general time-dependent harmonic oscillator driven by a time-dependent inverse cubic force as an example.
- 理論物理学刊行会の論文
- 1995-05-25
著者
-
Okada Hidehiko
Research And Development Center Toshiba Corp.
-
KANASUGI Hirotaka
Department of Physics, Tokyo Institute of Technology
-
Kanasugi Hirotaka
Department Of Physics Tokyo Institute Of Technology
-
OKADA Hidehiko
Department of Physics, Tokyo University
-
OKADA Hidehiko
Department of physics, Tokyo Institute of Technology
-
OKADA Hidehiko
Research and Development Center, Toshiba Corp.
関連論文
- The Perturbative QCD and the e^+e^- Single Particle Inclusive Reaction
- Applications of Cut Vertex Method to Parity Violating Processes
- Two-Loop Anomalous Dimensions of Timelike Cut Vertices and Scaling Violation of Fragmentation Functions in QCD
- Strings at High and Low Temperatures : Particles and Fields
- Systematic Treatment of General Time-Dependent Harmonic Oscillator in Classical and Quantum Mechanics
- An Application of SU_3 Group to the Theory of Weak Interactions
- Relations between Inclusive Reactions Based on the Vector-Meson-Dominance Model and Smoothness of Invariant Amplitudes
- Triple Reggeization of the Spin-Dependent Inclusive Reactions. I : π+N→π+Anything
- Symmetry of General Time-Dependent Harmonic Oscillator : Particles and Fields
- Thermodynamics of Open Bosonic Strings in Background Fields : Particles and Fields