Fundamental physical limits on the speed of state evolution in quantum systems exist in the
form of the Mandelstam–Tamm and the Margolus–Levitin inequalities. We give an …

The evaluation of the minimal evolution time between two distinguishable states of a system
is important for assessing the maximal speed of quantum computers and communication …

The quantum speed limit indicates the maximal evolution speed of the quantum system. In
this work, we determine speed limits on the informational measures, namely the von …

We cast observable measure of quantum coherence as a resource to control the quantum
speed limit (QSL) for unitary evolutions. For non-unitary evolutions, QSL depends on that of …

In the Schrödinger picture, the state of a quantum system evolves in time and the quantum
speed limit describes how fast the state of a quantum system evolves from an initial state to a …

A comparison is made of various searching procedures, based upon different entanglement
measures or entanglement indicators, for highly entangled multiqubits states. In particular …

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 …

Quantum speed limit is bound on the minimum time a quantum system requires to evolve
from an initial state to final state under a given dynamical process. It sheds light on how fast …

Quantum-speed-limit (QSL) time captures the intrinsic minimal time interval for a quantum
system evolving from an initial state to a target state. In single qubit open systems, it was …

The quantum speed limit describes how quickly a quantum system can evolve in time from
an initial state to a final state under a given dynamics. Here, we derive a generalised …