Self-testing is a method to infer the underlying physics of a quantum experiment in a black
box scenario. As such it represents the strongest form of certification for quantum systems. In …

We report on a method to certify a unitary operation with the help of source and
measurement apparatuses whose calibration throughout the certification process needs not …

Quantum self-testing is a device-independent way to certify quantum states and
measurements using only the input-output statistics, with minimal assumptions about the …

First proposed by Mayers and Yao, self-testing provides a certification method to infer the
underlying physics of quantum experiments in a black-box scenario. Numerous …

We examine the problem of exhibiting Bell nonlocality for a two-qudit entangled pure state
using a randomly chosen set of mutually unbiased bases (MUBs). Interestingly, even if we …

Self-testing protocols enable the certification of quantum systems in a device-independent
manner, ie without knowledge of the inner workings of the quantum devices under test …

The device-independent paradigm has had spectacular successes in randomness
generation, key distribution and self-testing, however most of these results have been …

We demonstrate one-sided device-independent self-testing of any pure two-qubit entangled
state based on a fine-grained steering inequality. The maximum violation of a fine-grained …

Device-independent certifications employ Bell tests to guarantee the proper functioning of
an apparatus from the sole knowledge of observed measurement statistics, ie without …

Nonlocality, manifested by the violation of Bell inequalities, indicates entanglement within a
joint quantum system. A natural question is how much entanglement is required for a given …