Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

International Journal of Theoretical Physics

Quantum mechanics as relativistic statistics. II: The case of two interacting particles

Yu. A. Rylov

Published Jan 1, 1973• 9 citations
Publisher
DOI
10.1007/bf00678612

Related papers

Quantum mechanics as relativistic statistics. I: The two-particle case

Yu. A. Rylov

International Journal of Theoretical Physics•Jan 1, 1973•11 citations

Relativistic quantum mechanics for two interacting particles in one-time representation

A. Pliś, Tomasz Zastawniak

Reports on Mathematical Physics•Jun 1, 1992•1 citation

On the relativistic quantum mechanics of two interacting spinless particles

V. A. Rizov

Annals of Physics•Oct 1, 1985•4 citations

Quantum mechanics as relativistic statistics III. A relativistic particle in two-dimensional space-time

Yu. A. Rylov

International Journal of Theoretical Physics•Sep 1, 1980•5 citations

Relativistic quantum mechanics

Franco Strocchi

Abstract The chapter focuses on the problems at the origin of QFT: i) the conflict between locality and energy positivity, which affects relativistic wave equations in general, and ii) the need of describing relativistic particle interactions by contact interactions (such as field-mediated interactions) rather than by interactions at a distance. It is argued that QFT emerges as a possible solution, fully under mathematical control in the free case.

Oxford University Press eBooks•Feb 14, 2013•1 citation

FRACTIONAL STATISTICS IN ONE DIMENSION: MODELING BY MEANS OF 1/x2 INTERACTION AND STATISTICAL MECHANICS

SERGEI B. ISAKOV

The equivalence of a quantum system of particles interacting with a two-body inverse square potential to a system of noninteracting particles obeying 1D fractional statistics (1D anyons), stated by Polychronakos for particles on a line, is studied for the cases where the interacting system is placed (i) into a harmonic potential on a line, and (ii) on a ring, with imposing periodic boundary conditions. In the first case, reducibility of the interacting system to the Calogero system is used to explore the statistical distribution for free 1D anyons. On a ring, the thermodynamic limit is discussed in terms of the thermodynamic (asymptotic) Bethe ansatz. Yang and Yang’s integral equation is treated in this case as describing the statistical mechanics of free 1D anyons. It gives a functional equation for the statistical distribution of 1D anyons consistent with the harmonic potential approach. We show that on a ring of a finite circumference, a system of two free 1D anyons is equivalent to a system of two particles interacting with an inverse sine square potential (the Sutherland system). We also discuss the relation to the statistical mechanics of free anyons in 2+1 dimensions.

International Journal of Modern Physics A•Jun 20, 1994•74 citations
The equivalence of a quantum system of particles interacting with a two-body inverse square potential to a system of noninteracting particles obeying 1D fractional statistics (1D anyons), stated by Polychronakos for particles on a line, is studied for the cases where the interacting system is placed (i) into a harmonic potential on a line, and (ii) on a ring, with imposing periodic boundary conditions. In the first case, reducibility of the interacting system to the Calogero system is used to explore the statistical distribution for free 1D anyons. On a ring, the thermodynamic limit is discussed in terms of the thermodynamic (asymptotic) Bethe ansatz. Yang and Yang’s integral equation is treated in this case as describing the statistical mechanics of free 1D anyons. It gives a functional equation for the statistical distribution of 1D anyons consistent with the harmonic potential approach. We show that on a ring of a finite circumference, a system of two free 1D anyons is equivalent to a system of two particles interacting with an inverse sine square potential (the Sutherland system). We also discuss the relation to the statistical mechanics of free anyons in 2+1 dimensions.