Quantum characteristics of a mass-accreting oscillator are investigated using the invariant operator theory, which is a rigorous mathematical tool for unfolding quantum theory for time-dependent Hamiltonian systems. In particular, the quantum energy of the system is analyzed in detail and compared to the classical one. We focus on two particular cases; one is a linearly mass-accreting oscillator and the other is an exponentially mass-accreting one. It is confirmed that the quantum energy is in agreement with the classical one in the limit ℏ→0. We showed that not only the classical but also the quantum energy oscillates with time. It is carefully analyzed why the energy oscillates with time, and a reasonable explanation for that outcome is g...
In a few previous papers, we developed a so-called classical fluctuation model, which revealed remar...
The evolution of a quantum oscillator, with periodically varying frequency and damping, is studied i...
In this work we present the classical and quantum solutions of time-dependent coupled harmonic oscil...
An adiabatic invariant, which is a conserved quantity, is useful for studying quantum and classical ...
Remarkable features have been predicted for the mechanical fluctuations at the bistability transitio...
In a previous note (1) we examined the idea of a classical frequency such as that of an oscillator a...
The quantum theory of the damped harmonic oscillator has been a subject of continual investigation s...
In Part I we noted that the quantum oscillator result E= hbar w (n+.5) implies that for exp(-iEt) th...
In this paper, we join two different theoretical approaches to the problem of finding a classical-li...
It is proven that the energy of a quantum mechanical harmonic oscillator with a generically time-dep...
Thesis (Ph. D.)--University of Rochester. Dept. of Physics and Astronomy, 2014.In this thesis, we se...
In this thesis, we study the generalized harmonic oscillator with frequency dependent mass and time...
We consider the possibility that both classical statistical mechanical systems as well as quantum me...
The ground state wavefunction of the quantum oscillator is Wo=Cexp(-bxx) and the first excited state...
In the previous Part I of this paper, we developed a theoretical model to account for energy and mas...
In a few previous papers, we developed a so-called classical fluctuation model, which revealed remar...
The evolution of a quantum oscillator, with periodically varying frequency and damping, is studied i...
In this work we present the classical and quantum solutions of time-dependent coupled harmonic oscil...
An adiabatic invariant, which is a conserved quantity, is useful for studying quantum and classical ...
Remarkable features have been predicted for the mechanical fluctuations at the bistability transitio...
In a previous note (1) we examined the idea of a classical frequency such as that of an oscillator a...
The quantum theory of the damped harmonic oscillator has been a subject of continual investigation s...
In Part I we noted that the quantum oscillator result E= hbar w (n+.5) implies that for exp(-iEt) th...
In this paper, we join two different theoretical approaches to the problem of finding a classical-li...
It is proven that the energy of a quantum mechanical harmonic oscillator with a generically time-dep...
Thesis (Ph. D.)--University of Rochester. Dept. of Physics and Astronomy, 2014.In this thesis, we se...
In this thesis, we study the generalized harmonic oscillator with frequency dependent mass and time...
We consider the possibility that both classical statistical mechanical systems as well as quantum me...
The ground state wavefunction of the quantum oscillator is Wo=Cexp(-bxx) and the first excited state...
In the previous Part I of this paper, we developed a theoretical model to account for energy and mas...
In a few previous papers, we developed a so-called classical fluctuation model, which revealed remar...
The evolution of a quantum oscillator, with periodically varying frequency and damping, is studied i...
In this work we present the classical and quantum solutions of time-dependent coupled harmonic oscil...