It is well known that for the discrimination of classical and quantum channels in the finite, non-asymptotic regime, adaptive strategies can give an advantage over non-adaptive strategies. However, Hayashi [IEEE Trans. Inf. Theory 55(8), 3807 (2009)] showed that in the asymptotic regime, the exponential error rate for the discrimination of classical channels is not improved in the adaptive setting. We show that, for the discrimination of classical-quantum channels, adaptive strategies do not lead to an asymptotic advantage. As our main result, this establishes Stein’s lemma for classical-quantum channels. Our proofs are based on the concept of amortized distinguishability of channels, which we analyse using entropy inequalities
What is the ultimate performance for discriminating two arbitrary quantum channels acting on a finit...
We study the non-asymptotic fundamental limits for transmitting classical information over memoryles...
We study quantum channels that vary on time in a deterministic way, that is, they change in an indep...
It is well known that for the discrimination of classical and quantum channels in the finite, non-as...
It is well known that for the discrimination of classical and quantum channels in the finite, non-as...
This paper studies the difficulty of discriminating between an arbitrary quantum channel and a “repl...
We study asymmetric binary channel discrimination, for qantum channels acting on separable Hilbert s...
Summary: We study the difficulty of discriminating between an arbitrary quantum channel and a "...
Recently, the resource theory of asymmetric distinguishability for quantum strategies was introduced...
Altres ajuts: supported by the Catalan Government 001-P-001644 QuantumCAT within the ERDF Program of...
We use the smooth entropy approach to treat the problems of binary quantum hypothesis testing and th...
We provide a simple example that illustrates the advantage of adaptive over nonadaptive strategies f...
In the simple quantum hypothesis testing problem, upper bound with asymmetric setting is shown by us...
This paper develops the resource theory of asymmetric distinguishability for quantum channels, gener...
Abstract—We study the non-asymptotic fundamental limits for transmitting classical information over ...
What is the ultimate performance for discriminating two arbitrary quantum channels acting on a finit...
We study the non-asymptotic fundamental limits for transmitting classical information over memoryles...
We study quantum channels that vary on time in a deterministic way, that is, they change in an indep...
It is well known that for the discrimination of classical and quantum channels in the finite, non-as...
It is well known that for the discrimination of classical and quantum channels in the finite, non-as...
This paper studies the difficulty of discriminating between an arbitrary quantum channel and a “repl...
We study asymmetric binary channel discrimination, for qantum channels acting on separable Hilbert s...
Summary: We study the difficulty of discriminating between an arbitrary quantum channel and a "...
Recently, the resource theory of asymmetric distinguishability for quantum strategies was introduced...
Altres ajuts: supported by the Catalan Government 001-P-001644 QuantumCAT within the ERDF Program of...
We use the smooth entropy approach to treat the problems of binary quantum hypothesis testing and th...
We provide a simple example that illustrates the advantage of adaptive over nonadaptive strategies f...
In the simple quantum hypothesis testing problem, upper bound with asymmetric setting is shown by us...
This paper develops the resource theory of asymmetric distinguishability for quantum channels, gener...
Abstract—We study the non-asymptotic fundamental limits for transmitting classical information over ...
What is the ultimate performance for discriminating two arbitrary quantum channels acting on a finit...
We study the non-asymptotic fundamental limits for transmitting classical information over memoryles...
We study quantum channels that vary on time in a deterministic way, that is, they change in an indep...