The first comprehensive graduate-level introduction to stochastic thermodynamics
Stochastic thermodynamics is a well-defined subfield of statistical physics that aims to …

We introduce a new technique to bound the fluctuations exhibited by a physical system,
based on the Euclidean geometry of the space of observables. Through a simple unifying …

We show that the entropy production rate bounds the rate at which physical processes can
be performed in stochastic systems far from equilibrium. In particular, we prove the …

The relationship between the thermodynamic and computational properties of physical
systems has been a major theoretical interest since at least the 19th century. It has also …

Thermodynamic uncertainty relations quantify how the signal-to-noise ratio of a given
observable is constrained by dissipation. Fluctuation relations generalize the second law of …

Starting at the mesoscopic level with a general formulation of stochastic thermodynamics in
terms of Markov jump processes, we identify the scaling conditions that ensure the …

Starting from a microscopic system-baths description, we derive the general conditions for a
time-local quantum master equation (QME) to satisfy the first and second laws of …

We study two-mode bosonic engines undergoing an Otto cycle. The energy exchange
between the two bosonic systems is provided by a tunable unitary bilinear interaction in the …

The entropy production rate (EPR) measures time-irreversibility in systems operating far
from equilibrium. The challenge in estimating the EPR for a continuous variable system is …

The Gibbs distribution universally characterizes states of thermal equilibrium. In order to
extend the Gibbs distribution to non-equilibrium steady states, one must relate the self …