Direct experimental verification of quantum commutation relations for Pauli operators
Xing-Can Yao, Jaromir Fiurasek, He Lu, Wei-Bo Gao, Yu-Ao Chen,, Zeng-Bing Chen, Jian-Wei Pan

TL;DR
This paper presents an experimental scheme to directly verify quantum commutation relations for Pauli operators using a programmable quantum processor, demonstrating high accuracy and reliability in testing fundamental quantum properties.
Contribution
The work introduces a novel experimental method for directly testing quantum commutation relations with a programmable quantum processor, advancing quantum verification techniques.
Findings
High agreement between experimental results and theoretical predictions
Successful implementation of programmable quantum gates for testing commutation relations
Reliable verification of Pauli operator properties in a quantum processor
Abstract
We propose and demonstrate scheme for direct experimental testing of quantum commutation relations for Pauli operators. The implemented device is an advanced quantum processor that involves two programmable quantum gates. Depending on a state of two-qubit program register, we can test either commutation or anti-commutation relations. Very good agreement between theory and experiment is observed, indicating high-quality performance of the implemented quantum processor and reliable verification of commutation relations for Pauli operators.
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Taxonomy
TopicsQuantum Computing Algorithms and Architecture · Distributed systems and fault tolerance · Quantum Mechanics and Applications
