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This research introduces a novel photonic method to test state symmetries under cyclic group actions, advancing fundamental primitives like the Hadamard test essential for variational quantum algorithms and quantum machine learning. By generalizing existing circle and SWAP tests, the work provides new tools for permutation searches and eigenstate identification in multiphoton systems.
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Symmetry tests for cyclic groups with quantum linear optics

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arXiv:2607.11393v2 Announce Type: replace Abstract: Testing quantum states for symmetries has multiple applications in quantum state comparison or as a primitive in more complex quantum algorithms. We present a method that determines whether an input photonic state is invariant under the action of a cyclic group defined by an operator $\hat{S}$ with eigenvalues which are roots of unity. The results generalize previously known circle and SWAP tests related to suppression laws in Fourier interferometers and offer a new test for permutations defined by a binary shift and a way to search for eigenstates in multiphoton states. Finally, we discuss the scenarios where this measurement can be used to perform Hadamard test, a fundamental primitive in variational and quantum machine-learning algorithms.

Abstract:Testing quantum states for symmetries has multiple applications in quantum state comparison or as a primitive in more complex quantum algorithms. We present a method that determines whether an input photonic state is invariant under the action of a cyclic group defined by an operator $\hat{S}$ with eigenvalues which are roots of unity. The results generalize previously known circle and SWAP tests related to suppression laws in Fourier interferometers and offer a new test for permutations defined by a binary shift and a way to search for eigenstates in multiphoton states. Finally, we discuss the scenarios where this measurement can be used to perform Hadamard test, a fundamental primitive in variational and quantum machine-learning algorithms.

arXiv:2607.11393 [quant-ph]

(or arXiv:2607.11393v2 [quant-ph] for this version)

https://doi.org/10.48550/arXiv.2607.11393 Focus to learn more arXiv-issued DOI via DataCite

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