It is shown how the "trajectory-close method" introduced in earlier papers of this series can be used to treat other resonant systems semiclassically. The method, which does not involve the use of any curvilinear coordinate system, is illustrated for two coupled oscillators which have 3:1, 4:1, 5:1, 3:2, and 5:2 internal resonances. It is readily executed and it is shown how it can be extended to the three-oscillator case. This work supplements our earlier studies of 1:1, 2:1, and 3:1 resonant systems using this technique. Shapes of eigentrajectories and of corresponding quantum mechanical wave functions are compared for each of these systems. The paper also contains a survey of and comparison with other semiclassical methods which have bee...
The present paper gives an analytical perturbation theory to treat the problem of internal resonance...
Computation of nonlinear optical response functions allows for an in-depth connection between theory...
The island tori, surrounding a stable periodic orbit in a classical resonance, are not quantized by ...
It is shown how the "trajectory-close method" introduced in earlier papers of this series can be use...
A method utilizing integration along invariant curves on Poincaré's surfaces of section is described...
A method utilizing integration along invariant curves on Poincaré's surfaces of section is described...
The semiclassical theory of infrared vibrational intensities is extended and applied to multidimensi...
Semiclassical techniques have been widely used for describing the dynamics of molecular collisions. ...
Low order classical perturbation theory is used to obtain semiclassical eigenvalues for a system of ...
Semiclassical studies on molecular bound states, molecular collisions, and time-dependent dynamical ...
The semiclassical theory developed by Maslov and Fedoriuk is used to calculate the wave function for...
Semiclassical theory for bound states is discussed and a method is described for calculating the eig...
A method is devised to calculate eigenvalues semiclassically for an anharmonic system whose two unpe...
The method is devised to calculate eigenvalues semiclassically for an anharmonic system whose two un...
The present paper gives an analytical perturbation theory to treat the problem of internal resonance...
The present paper gives an analytical perturbation theory to treat the problem of internal resonance...
Computation of nonlinear optical response functions allows for an in-depth connection between theory...
The island tori, surrounding a stable periodic orbit in a classical resonance, are not quantized by ...
It is shown how the "trajectory-close method" introduced in earlier papers of this series can be use...
A method utilizing integration along invariant curves on Poincaré's surfaces of section is described...
A method utilizing integration along invariant curves on Poincaré's surfaces of section is described...
The semiclassical theory of infrared vibrational intensities is extended and applied to multidimensi...
Semiclassical techniques have been widely used for describing the dynamics of molecular collisions. ...
Low order classical perturbation theory is used to obtain semiclassical eigenvalues for a system of ...
Semiclassical studies on molecular bound states, molecular collisions, and time-dependent dynamical ...
The semiclassical theory developed by Maslov and Fedoriuk is used to calculate the wave function for...
Semiclassical theory for bound states is discussed and a method is described for calculating the eig...
A method is devised to calculate eigenvalues semiclassically for an anharmonic system whose two unpe...
The method is devised to calculate eigenvalues semiclassically for an anharmonic system whose two un...
The present paper gives an analytical perturbation theory to treat the problem of internal resonance...
The present paper gives an analytical perturbation theory to treat the problem of internal resonance...
Computation of nonlinear optical response functions allows for an in-depth connection between theory...
The island tori, surrounding a stable periodic orbit in a classical resonance, are not quantized by ...