Quantum correlations do not allow signaling, and any operation which may be performed on one system of an entangled pair cannot be detected by measurement of the other system alone. This no-signaling condition limits allowed operations and, in the context of quantum communication, may be used to put bounds on quantum state discrimination. We find that the natural figure of merit to consider is the confidence in identifying a state, which is optimized by the maximum confidence strategy. We show that this strategy may be derived from the no-signaling condition, and demonstrate the relationship between maximum confidence measurements and entanglement concentration
The theory of generalised measurements is used to examine the problem of discriminating unambiguousl...
The theory of generalised measurements is used to examine the problem of discriminating unambiguousl...
Quantum state discrimination is a fundamental task in the field of quantum communication and quantum...
Quantum correlations do not allow signaling, and any operation which may be performed on one system ...
Quantum correlations do not allow signaling, and any operation which may be performed on one system ...
We consider the problem of discriminating between states of a specified set with maximum confidence....
We have investigated the problem of discriminating between nonorthogonal quantum states with the lea...
We present the first experimental demonstration of the maximum confidence measurement strategy for q...
We study the problem of discriminating between non-orthogonal quantum states with least probability ...
The theory of generalised measurements is used to examine the problem of discriminating unambiguousl...
We present a full demonstration of unambiguous state discrimination between nonorthogonal quantum st...
We present a full demonstration of unambiguous state discrimination between nonorthogonal quantum st...
One of the most fundamental results in quantum information theory is that no measurement can perfect...
We present a full demonstration of unambiguous state discrimination between nonorthogonal quantum st...
The theory of generalised measurements is used to examine the problem of discriminating unambiguousl...
The theory of generalised measurements is used to examine the problem of discriminating unambiguousl...
The theory of generalised measurements is used to examine the problem of discriminating unambiguousl...
Quantum state discrimination is a fundamental task in the field of quantum communication and quantum...
Quantum correlations do not allow signaling, and any operation which may be performed on one system ...
Quantum correlations do not allow signaling, and any operation which may be performed on one system ...
We consider the problem of discriminating between states of a specified set with maximum confidence....
We have investigated the problem of discriminating between nonorthogonal quantum states with the lea...
We present the first experimental demonstration of the maximum confidence measurement strategy for q...
We study the problem of discriminating between non-orthogonal quantum states with least probability ...
The theory of generalised measurements is used to examine the problem of discriminating unambiguousl...
We present a full demonstration of unambiguous state discrimination between nonorthogonal quantum st...
We present a full demonstration of unambiguous state discrimination between nonorthogonal quantum st...
One of the most fundamental results in quantum information theory is that no measurement can perfect...
We present a full demonstration of unambiguous state discrimination between nonorthogonal quantum st...
The theory of generalised measurements is used to examine the problem of discriminating unambiguousl...
The theory of generalised measurements is used to examine the problem of discriminating unambiguousl...
The theory of generalised measurements is used to examine the problem of discriminating unambiguousl...
Quantum state discrimination is a fundamental task in the field of quantum communication and quantum...