Quantum speed limits (QSLs) identify fundamental time scales of physical processes by
providing lower bounds on the rate of change of a quantum state or the expectation value 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 …

How fast an observable can evolve in time is answered by so-called observable speed limit.
Here, we prove a stronger version of the observable speed limit and show that the …

The quantum speed limit (QSL) is a fundamental lower bound on the evolution time for
quantum systems, and its tightness has been observed to be dependent on the properties of …

The notion of capacity of entanglement is the quantum information theoretic counterpart of
the heat capacity which is defined as the second cumulant of the entanglement spectrum …

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 …

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 …

In a quantum unitary system, an initial state may have different paths to evolve to a target
state, and the only requirement is that the initial and target states share the same eigenvalue …

Quantum mechanics is an inherently linear theory. However, collective effects in many body
quantum systems can give rise to effectively nonlinear dynamics. In the present work, we …

Coherence is the most fundamental quantum resource in quantum information processing.
How fast a physical system gets coherence or decoherence is a critical ingredient. We …