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

Wigner functions for identical particles

E. Cancellieri, Paolo Bordone, Andrea Bertoni, G. Ferrari, Carlo Jacoboni

Published Jan 1, 2004• 0 citations
OpenAlex

Related papers

Wigner functions and their symmetries

Sibel Başkal, Young S Kim, Marilyn E. Noz

Institute of Physics eBooks•May 1, 2021•0 citations

Effect of the Pauli Exclusion Principle in the Many-Electron Wigner Function

E. Cancellieri, Paolo Bordone, Jacoboni, Carlo

An analysis of the Wigner function for identical particles is presented. Four situations have been considered. i) A scattering process between two indistinguishable electrons described by a minimum uncertainty wave packets showing the exchange and correlation hole in Wigner phase space. ii) An equilibrium ensemble of N electrons in a one-dimensional box and in a one-dimensional harmonic potential showing that the reduced single particle Wigner function as a function of the energy defined in the Wigner phase-space tends to a Fermi distribution. iii) The reduced one-particle transport-equation for the Wigner function in the case of interacting electrons showing the need for the two-particle reduced Wigner function within the BBGKY hierarchy scheme. iv) The electron-phonon interaction in the two-particle case showing co-participation of two electrons in the interaction with the phonon bath.

arXiv:cond-mat/0703185•Mar 7, 2007•0 citations

Wigner function for free relativistic particles

O. I. Zavialov, A. M. Malokostov

arXiv:hep-th/9812054•Theoretical and Mathematical Physics•Apr 1, 1999•13 citations

On the Moyal Formulation of Quantum Identical Particles

Manuel Gadella, Luis Miguel Nieto

Wigner functions of permutation operators are obtained and are used as a basis for a phase space formulation of quantum identical particles. Non-spin systems as well as 1/2 spin systems are considered. The general results are applied to a couple of examples.

Fortschritte der Physik/Progress of Physics•Jan 1, 1994•4 citations

Effect of symmetry in the many-particle Wigner function

E. Cancellieri, Paolo Bordone, Carlo Jacoboni

An analysis of the Wigner function for identical particles is presented. Four situations have been considered. (i) The first is scattering process between two indistinguishable particles described by a minimum uncertainty wave packets showing the exchange and correlation effects in Wigner phase space. (ii) An equilibrium ensemble of $N$ particles in a one-dimensional box and in a one-dimensional harmonic potential is considered second, showing that the reduced one-particle Wigner function, as a function of the energy defined in the Wigner phase space, tends to the Fermi-Dirac or to the Bose-Einstein distribution function, depending on the considered statistics. (iii) The third situation is reduced one-particle transport equation for the Wigner function, in the case of interacting particles, showing the need for the two-particle reduced Wigner function within the Bogoliubov-Born-Green-Kirkwood-Yvon hierarchy scheme. (iv) Finally, the electron-phonon interaction in the two-particle case is considered, showing coparticipation of two electrons in the interaction with the phonon bath.

Physical Review B•Dec 4, 2007•12 citations

Wigner functions

David K. Ferry, Xavier Oriols, Josef Weinbub

Institute of Physics eBooks•Nov 1, 2023•0 citations
An analysis of the Wigner function for identical particles is presented. Four situations have been considered. i) A scattering process between two indistinguishable electrons described by a minimum uncertainty wave packets showing the exchange and correlation hole in Wigner phase space. ii) An equilibrium ensemble of N electrons in a one-dimensional box and in a one-dimensional harmonic potential showing that the reduced single particle Wigner function as a function of the energy defined in the Wigner phase-space tends to a Fermi distribution. iii) The reduced one-particle transport-equation for the Wigner function in the case of interacting electrons showing the need for the two-particle reduced Wigner function within the BBGKY hierarchy scheme. iv) The electron-phonon interaction in the two-particle case showing co-participation of two electrons in the interaction with the phonon bath.
An analysis of the Wigner function for identical particles is presented. Four situations have been considered. (i) The first is scattering process between two indistinguishable particles described by a minimum uncertainty wave packets showing the exchange and correlation effects in Wigner phase space. (ii) An equilibrium ensemble of NNN particles in a one-dimensional box and in a one-dimensional harmonic potential is considered second, showing that the reduced one-particle Wigner function, as a function of the energy defined in the Wigner phase space, tends to the Fermi-Dirac or to the Bose-Einstein distribution function, depending on the considered statistics. (iii) The third situation is reduced one-particle transport equation for the Wigner function, in the case of interacting particles, showing the need for the two-particle reduced Wigner function within the Bogoliubov-Born-Green-Kirkwood-Yvon hierarchy scheme. (iv) Finally, the electron-phonon interaction in the two-particle case is considered, showing coparticipation of two electrons in the interaction with the phonon bath.