Markovian Repeated Interaction Quantum Systems
arXiv:2202.05321 · doi:10.1142/S0129055X22500283
Abstract
We study a class of dynamical semigroups that emerge, by a Feynman--Kac type formalism, from a random quantum dynamical system driven by a Markov chain . We show that the almost sure large time behavior of the system can be extracted from the large asymptotics of the semigroup, which is in turn directly related to the spectral properties of the generator . As a physical application, we consider the case where the 's are the reduced dynamical maps describing the repeated interactions of a system with thermal probes . We study the full statistics of the entropy in this system and derive a fluctuation theorem for the heat exchanges and the associated linear response formulas.
References in corpus (9)
- Fluctuation theorems: Work is not an observable
- Entropic Fluctuations in Statistical Mechanics I. Classical Dynamical Systems
- Steady state fluctuations of the dissipated heat for a quantum stochastic model
- Random repeated interaction quantum systems
- Diffusion of wave packets in a Markov random potential
- On entropy production of repeated quantum measurements II. Examples
- A note on the Landauer principle in quantum statistical mechanics
- Thermalization of Fermionic Quantum Walkers
- Fermionic walkers driven out of equilibrium
Cited by in corpus (4)
- Entropy Production of Quantum Reset Models
- Quenched large deviations of Birkhoff sums along random quantum measurements
- A Multiplicative Ergodic Theorem for Bistochastic Ergodic Quantum Processes with Applications to Entanglement
- Asymptotic Purification of Quantum Trajectories under Random Generalized Measurements