We consider the problem of characterizing the set of input-output correlations that can be generated by an arbitrarily given quantum measurement. Our main result is to provide a closed-form, full characterization of such a set for any qubit measurement, and to discuss its geometrical interpretation. As applications, we further specify our results to the cases of real and complex symmetric, informationally complete measurements and mutually unbiased bases of a qubit, in the presence of isotropic noise. Our results provide the optimal device-independent tests of quantum measurements
The range of a quantum measurement is the set of outcome probability distributions that can be produ...
We consider the problem of discriminating between states of a specified set with maximum confidence....
Self-testing refers to the possibility of characterizing an unknown quantum device based only on the...
We consider the problem of characterizing the set of input-output correlations that can be generated...
We consider the problem of characterizing the set of input-output correlations that can be generated...
Recently, a novel framework for semi-device-independent quantum prepare-and-measure protocols has be...
We show that the entropy of a message can be tested in a device-independent way. Specifically, we co...
The device-independent approach to physics is one where conclusions are drawn directly from the obse...
Bell’s theorem teaches us that there are quantum correlations that can not be simulated by just shar...
Quantum measurements on a two-level system can have more than two independent outcomes, and in this ...
The verification and quantification of experimentally created entanglement by simple measurements, e...
We consider the problem of testing the dimension of uncharacterized classical and quantum systems in...
Self-testing is a method to characterise an arbitrary quantum system based only on its classical inp...
We introduce new methods and tools to study and characterise classical and quantum correlations emer...
Given a quantum pure state chosen from a set with some a priori probabilities, what is the optimal m...
The range of a quantum measurement is the set of outcome probability distributions that can be produ...
We consider the problem of discriminating between states of a specified set with maximum confidence....
Self-testing refers to the possibility of characterizing an unknown quantum device based only on the...
We consider the problem of characterizing the set of input-output correlations that can be generated...
We consider the problem of characterizing the set of input-output correlations that can be generated...
Recently, a novel framework for semi-device-independent quantum prepare-and-measure protocols has be...
We show that the entropy of a message can be tested in a device-independent way. Specifically, we co...
The device-independent approach to physics is one where conclusions are drawn directly from the obse...
Bell’s theorem teaches us that there are quantum correlations that can not be simulated by just shar...
Quantum measurements on a two-level system can have more than two independent outcomes, and in this ...
The verification and quantification of experimentally created entanglement by simple measurements, e...
We consider the problem of testing the dimension of uncharacterized classical and quantum systems in...
Self-testing is a method to characterise an arbitrary quantum system based only on its classical inp...
We introduce new methods and tools to study and characterise classical and quantum correlations emer...
Given a quantum pure state chosen from a set with some a priori probabilities, what is the optimal m...
The range of a quantum measurement is the set of outcome probability distributions that can be produ...
We consider the problem of discriminating between states of a specified set with maximum confidence....
Self-testing refers to the possibility of characterizing an unknown quantum device based only on the...