Quantum coherence is a fundamental property of quantum systems, separating quantum
from classical physics. Recently, there has been significant interest in the characterization of …

Many fruitful analogies have emerged between the theories of quantum entanglement and
thermodynamics, motivating the pursuit of an axiomatic description of entanglement akin to …

Quantum channels underlie the dynamics of quantum systems, but in many practical settings
it is the channels themselves that require processing. We establish universal limitations on …

Distillation, or purification, is central to the practical use of quantum resources in noisy
settings often encountered in quantum communication and computation. Conventionally …

Quantum coherence is one of the fundamental aspects distinguishing classical and quantum
theories. Coherence between different energy eigenstates is particularly important, as it …

We show that both the classical as well as the quantum definitions of the Fisher information
faithfully identify resourceful quantum states in general quantum resource theories, in the …

Identifying what quantum-mechanical properties are useful to untap a superior performance
in quantum technologies is a pivotal question. Quantum resource theories provide a unified …

Resource theories provide a general framework for the characterization of properties of
physical systems in quantum mechanics and beyond. Here we introduce methods for the …

Computing the exact rate at which entanglement can be distilled from noisy quantum states
is one of the longest-standing questions in quantum information. We give an exact solution …

The second law of thermodynamics is the cornerstone of physics, characterizing the
convertibility between thermodynamic states through a single function, entropy. Given the …