Home > Publications database > Nonequilibrium random matrix theory: Transition probabilities |
Report/Journal Article | PUBDB-2017-01596 |
;
2017
APS
Woodbury, NY
This record in other databases:
Please use a persistent id in citations: doi:10.1103/PhysRevE.95.032144 doi:10.3204/PUBDB-2017-01596
Report No.: DESY-16-104; IFT-UAM-CSIC-16-053; arXiv:1606.07768
Abstract: In this paper we present an analytic method for calculating the transition probability between two random Gaussian matrices with given eigenvalue spectra in the context of Dyson Brownian motion. We show that in the Coulomb gas language, in large N limit, memory of the initial state is preserved in the form of a universal linear potential acting on the eigenvalues. We compute the likelihood of any given transition as a function of time, showing that as memory of the initial state is lost, transition probabilities converge to those of the static ensemble.
Keyword(s): matrix model: random ; potential: linear ; gas: Coulomb ; initial state ; expansion 1/N ; time dependence ; Brownian motion
![]() |
The record appears in these collections: |
Preprint/Report
Non-Equilibrium Random Matrix Theory : Transition Probabilities
Files
Fulltext by arXiv.org
BibTeX |
EndNote:
XML,
Text |
RIS