It is shown that a system of coupled harmonic oscillators can be made a model of a heat bath. Thus a particle coupled harmonically to the bath and by an arbitrary force to a fixed center will (in an appropriate limit) exhibit Brownian motion. Both classical and quantum mechanical treatments are given.Peer Reviewedhttp://deepblue.lib.umich.edu/bitstream/2027.42/70752/2/JMAPAQ-6-4-504-1.pd
The microscopic model of Ullersma (1966) for a harmonic oscillator in contact with a thermal reservo...
The microscopic model of Ullersma (1966) for a harmonic oscillator in contact with a thermal reservo...
The microscopic model of Ullersma (1966) for a harmonic oscillator in contact with a thermal reservo...
The quantum Langevin equation is the Heisenberg equation of motion for the (operator) coordinate of ...
In the frames of classical mechanics, the generalized Langevin equation is derived for an arbitrary ...
We investigate a finite linear chain of N equal particles connected by equal harmonic springs whose ...
We investigate a finite linear chain of N equal particles connected by equal harmonic springs whose ...
We investigate a finite linear chain of N equal particles connected by equal harmonic springs whose ...
The theory of Brownian motion of a quantum oscillator is developed. The Brownian motion is described...
As in a previous paper1) an elastically bound particle, linearly coupled with a bath of small oscill...
We use the system-plus-reservoir approach to study the dynamics of a system composed of two independ...
We use the system-plus-reservoir approach to study the dynamics of a system composed of two independ...
We solve the model of N quantum Brownian oscillators linearly coupled to an environment of quantum o...
The microscopic model of Ullersma (1966) for a harmonic oscillator in contact with a thermal reservo...
The microscopic model of Ullersma (1966) for a harmonic oscillator in contact with a thermal reservo...
The microscopic model of Ullersma (1966) for a harmonic oscillator in contact with a thermal reservo...
The microscopic model of Ullersma (1966) for a harmonic oscillator in contact with a thermal reservo...
The microscopic model of Ullersma (1966) for a harmonic oscillator in contact with a thermal reservo...
The quantum Langevin equation is the Heisenberg equation of motion for the (operator) coordinate of ...
In the frames of classical mechanics, the generalized Langevin equation is derived for an arbitrary ...
We investigate a finite linear chain of N equal particles connected by equal harmonic springs whose ...
We investigate a finite linear chain of N equal particles connected by equal harmonic springs whose ...
We investigate a finite linear chain of N equal particles connected by equal harmonic springs whose ...
The theory of Brownian motion of a quantum oscillator is developed. The Brownian motion is described...
As in a previous paper1) an elastically bound particle, linearly coupled with a bath of small oscill...
We use the system-plus-reservoir approach to study the dynamics of a system composed of two independ...
We use the system-plus-reservoir approach to study the dynamics of a system composed of two independ...
We solve the model of N quantum Brownian oscillators linearly coupled to an environment of quantum o...
The microscopic model of Ullersma (1966) for a harmonic oscillator in contact with a thermal reservo...
The microscopic model of Ullersma (1966) for a harmonic oscillator in contact with a thermal reservo...
The microscopic model of Ullersma (1966) for a harmonic oscillator in contact with a thermal reservo...
The microscopic model of Ullersma (1966) for a harmonic oscillator in contact with a thermal reservo...
The microscopic model of Ullersma (1966) for a harmonic oscillator in contact with a thermal reservo...