Recent advances in self-powered electronic devices have urged the development of energy-
harvesting technology. Batteries are gradually unable to satisfy the practical requirements …

The time-dependent energy transfer in a driven quantum system strongly coupled to a heat
bath is studied within an influence functional approach. Exact formal expressions for the …

We theoretically study the dynamical speedup of a quantum system in a nonequilibrium
environment. Based on the trace distance, we derive the generalized Margolus-Levitin and …

Recent tensor network techniques for simulating system-environment wave functions have
provided profound insights into non-Markovian dissipation and decoherence in open …

The MPSDynamics. jl package provides an easy-to-use interface for performing open
quantum systems simulations at zero and finite temperatures. The package has been …

We consider a metrology scenario in which qubit-like probes are used to sense an external
field that affects their energy splitting in a linear fashion. Following the frequency estimation …

We present and analyze the fermionic time-evolving density matrix using orthogonal
polynomials algorithm (fTEDOPA), which enables the numerically exact simulation of open …

Nanoscale devices, either biological or artificial, operate in a regime where the usual
assumptions of a structureless Markovian bath do not hold. Being able to predict and study …

Master equations are a useful tool to describe the evolution of open quantum systems. In
order to characterize the mathematical features and the physical origin of the dynamics, it is …

Chain-mapping techniques combined with the time-dependent density matrix
renormalization group are powerful tools for simulating the dynamics of open quantum …