
TL;DR
This paper develops methods for self-testing multiple entangled qubit pairs simultaneously in a parallel setting, enhancing the ability to verify large quantum states efficiently.
Contribution
It introduces new sufficient conditions and constructions for parallel self-testing of many maximally entangled qubit pairs, extending previous sequential testing approaches.
Findings
Derived sufficient conditions for parallel self-testing.
Proposed two new constructions for simultaneous testing.
Enhanced robustness against dishonest players in multi-pair tests.
Abstract
Self-testing allows us to determine, through classical interaction only, whether some players in a non-local game share particular quantum states. Most work on self-testing has concentrated on developing tests for small states like one pair of maximally entangled qubits, or on tests where there is a separate player for each qubit, as in a graph state. Here we consider the case of testing many maximally entangled pairs of qubits shared between two players. Previously such a test was shown where testing is sequential, i.e., one pair is tested at a time. Here we consider the parallel case where all pairs are tested simultaneously, giving considerably more power to dishonest players. We derive sufficient conditions for a self-test for many maximally entangled pairs of qubits shared between two players and also two constructions for self-tests where all pairs are tested simultaneously.
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Taxonomy
TopicsQuantum Mechanics and Applications · Quantum Information and Cryptography · Quantum Computing Algorithms and Architecture
