Dephasing by a nonstationary classical intermittent noise
Josef Schriefl, Maxime Clusel, David Carpentier, Pascal Degiovanni
Abstract
We consider a new phenomenological model for a 1/fμ classical intermittent noise and study its effects on the dephasing of a two-level system. Within this model, the evolution of the relative phase between the |> states is described as a continuous time random walk (CTRW). Using renewal theory, we find exact expressions for the dephasing factor and identify the physically relevant various regimes in terms of the coupling to the noise. In particular, we point out the consequences of the non-stationarity and pronounced non-Gaussian features of this noise, including some new anomalous and aging dephasing scenarii.
Create a lesson
Related papers
Anomalous Hall Response and Real-Space Current Correlations in Rhombohedral Graphene
Zhen Bi, Chandra M. Varma
Chirality rules for optical vortices in rhombohedral graphene multilayers
Felipe Pérez Riffo, Matías Castro Schnaidt, Juan M. Florez et al.
Energy-Resolved Cross-Correlation of THz Field Emission of Electrons from a Metal Nanotip
Laurent N. David, Rodrigo T. Paulino, Angela Moskal et al.
Liouvillian Kramers Degeneracy
Kohei Kawabata
Multiple windows of eigenstate-selective delocalization in a non-Hermitian quasiperiodic lattice
Souvik Roy, Santanu K. Maiti
The effects of an alternating bias on a single orbital spin impurity
Matyas Nachtigall, Jose Reina-Gálvez, Christoph Wolf et al.