Foundations of Statistical Mechanics and Theory of Phase Transition
E. D. Belokolos
Abstract
A new formulation of statistical mechanics is put forward according to which a random variable characterizing a macroscopic body is postulated to be infinitely divisible. It leads to a parametric representation of partition function of an arbitrary macroscopic body, a possibility to describe a macroscopic body under excitation by a gas of some elementary quasiparticles etc. A phase transition is defined as such a state of a macroscopic body that its random variable is stable in sense of Lévy. From this definition it follows by deduction all general properties of phase transitions: existence of the renormalization semigroup, the singularity classification for thermodynamic functions, the phase transition universality and universality classes. On this basis we has also built a 2-parameter scaling theory of phase transitions, a thermodynamic function for the Ising model etc.
Create a lesson
Related papers
Fixed-Point Abundances and the Onset of Extinctions in Multispecies Lotka-Volterra Ecosystems
Philippe Jacquod
On the exact quantization of BCOV Theory on Calabi-Yau Manifolds
Si Li, Minghao Wang
Augmentation curve for torus knots
Alexander Hock, Sergey Shadrin
Dynamical Conservation Laws in Quantum Spin Systems
Vojkan Jakšić, Claude-Alain Pillet, Anna Szczepanek
Approach to Equilibrium in Translation-Invariant Quantum Systems: Structural Results II
Vojkan Jakšić, Claude-Alain Pillet, Anna Szczepanek
Semiclassical Band Splitting in the Infinite Chern Band Model
Tyler Guo