In the physics literature “ergodicity” is sometimes taken to mean that a system, including a macroscopic one, visits all microscopic states in a relatively short time. However, many authors have realized that this is impossible and we provide a rigorous bound demonstrating this fact. A related concept is the “thermal distribution.” This enters in an understanding of dissipation, comparing the thermal state (the Boltzmann or Gibbs distribution) to its time evolute using relative entropy. The thermal distribution is based on the microcanonical ensemble, whose equal probability assumption is another phrasing of ergodicity in a macroscopic physical context. The puzzle then is why the results of these assumptions are in agreement with experience...
The present paper is meant to give a simple introduction to the problem of\ud the connection between...
Abstract: In ergodic physical systems, time-averaged quantities converge (for large times) to their ...
The observed general time-asymmetric behavior of macroscopic systems---embodied in the second law of...
The traditional use of ergodic theory in the foundations of equilibrium statistical mechanics is tha...
The traditional use of ergodic theory in the foundations of equilibrium statistical mechanics is tha...
The present paper is meant to give a simple introduction to the problem of the connection between m...
Gases reach equilibrium when left to themselves. Why do they behave in this way? The canonical answe...
In the framework of statistical mechanics the properties of macroscopic systems are deduced starting...
Ergodic properties such as convergence of time averages, for dynam-ical systems and stochastic proce...
The problem of irreversibility is difficult and part of this difficulty is due to dealing with the s...
The renewed interest in the foundations of quantum statistical mechanics in recent years h...
It is well known that the equipartition principle lies at the very basis of classical sta-tistical m...
Why do gases reach equilibrium when left to themselves? The canonical answer, orig-inally proffered ...
Why do gases reach equilibrium when left to themselves? The canonical answer, originally proffered b...
The foundation of statistical mechanics and the explanation of the success of its methods rest on th...
The present paper is meant to give a simple introduction to the problem of\ud the connection between...
Abstract: In ergodic physical systems, time-averaged quantities converge (for large times) to their ...
The observed general time-asymmetric behavior of macroscopic systems---embodied in the second law of...
The traditional use of ergodic theory in the foundations of equilibrium statistical mechanics is tha...
The traditional use of ergodic theory in the foundations of equilibrium statistical mechanics is tha...
The present paper is meant to give a simple introduction to the problem of the connection between m...
Gases reach equilibrium when left to themselves. Why do they behave in this way? The canonical answe...
In the framework of statistical mechanics the properties of macroscopic systems are deduced starting...
Ergodic properties such as convergence of time averages, for dynam-ical systems and stochastic proce...
The problem of irreversibility is difficult and part of this difficulty is due to dealing with the s...
The renewed interest in the foundations of quantum statistical mechanics in recent years h...
It is well known that the equipartition principle lies at the very basis of classical sta-tistical m...
Why do gases reach equilibrium when left to themselves? The canonical answer, orig-inally proffered ...
Why do gases reach equilibrium when left to themselves? The canonical answer, originally proffered b...
The foundation of statistical mechanics and the explanation of the success of its methods rest on th...
The present paper is meant to give a simple introduction to the problem of\ud the connection between...
Abstract: In ergodic physical systems, time-averaged quantities converge (for large times) to their ...
The observed general time-asymmetric behavior of macroscopic systems---embodied in the second law of...