The discrimination of two nonorthogonal states is a fundamental element for secure and
efficient communication. Quantum measurements of nonorthogonal coherent states can …

Measurement of the state of a quantum system with inherent quantum uncertainty (noise)
approaching the ultimate physical limits is of both technological and fundamental interest …

The optimal discrimination of nonorthogonal quantum states with minimum error probability
is a fundamental task in quantum measurement theory as well as an important primitive in …

Quantum state discrimination is a central problem in quantum measurement theory, with
applications spanning from quantum communication to computation. Typical measurement …

Quantum mechanics forbids perfect discrimination among nonorthogonal states through a
single shot measurement. To optimize this task, many strategies were devised that later …

The discrimination of non-orthogonal quantum states with reduced or without errors is a
fundamental task in quantum measurement theory. In this work, we investigate a quantum …

The impossibility of deterministic and error-free discrimination among nonorthogonal
quantum states lies at the core of quantum theory and constitutes a primitive for secure …

We investigate quantum measurement strategies capable of discriminating two coherent
states probabilistically with significantly smaller error probabilities than can be obtained …

Measurements approaching the ultimate quantum limits of sensitivity are central in quantum
information processing, quantum metrology, and communication. Quantum measurements …

The ability to uniquely identify a quantum state is integral to quantum science, but for
nonorthogonal states, quantum mechanics precludes deterministic, error-free discrimination …