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This paper proposes a classical spectral method for planted noisy k-XOR (sparse Learning Parity with Noise) that matches the recovery performance of the Kikuchi hierarchy and outperforms it in some parameter regimes. The authors also give a subquadratic quantum speedup by replacing one step with a quantum walk, while noting that it does not overturn the reported quartic speedup of quantum Kikuchi. For readers, the main takeaway is an incremental algorithmic result in quantum algorithms for a cryptography-relevant inference problem, not a practical capability claim.
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Hypergraph cycle enumeration for efficient inference of planted k-XOR with smooth trade-off

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arXiv:2610.40941v1 Announce Type: new Abstract: We introduce hypergraph cycle enumeration (HCE), a simple spectral framework for detecting and recovering planted signals in noisy hypergraph inference problems. We study HCE on one representative problem from this class, namely planted noisy k-XOR, also known as sparse Learning Parity with Noise (LPN). Both theoretically and empirically, HCE achieves comparable recovery behavior to Kikuchi method, matching Kikuchi hierarchy. We identify parameter regimes where HCE outperforms Kikuchi method, showing that neither algorithm is universally better. We also show a subquadratic quantum speedup for HCE by replacing one of the algorithm's steps with a quantum walk. Our classical and quantum algorithms do not refute the quartic quantum speedup of quantum Kikuchi method, which remains valid for the practically relevant regime of large size and high noise strength.

Abstract:We introduce hypergraph cycle enumeration (HCE), a simple spectral framework for detecting and recovering planted signals in noisy hypergraph inference problems. We study HCE on one representative problem from this class, namely planted noisy k-XOR, also known as sparse Learning Parity with Noise (LPN). Both theoretically and empirically, HCE achieves comparable recovery behavior to Kikuchi method, matching Kikuchi hierarchy. We identify parameter regimes where HCE outperforms Kikuchi method, showing that neither algorithm is universally better. We also show a subquadratic quantum speedup for HCE by replacing one of the algorithm's steps with a quantum walk. Our classical and quantum algorithms do not refute the quartic quantum speedup of quantum Kikuchi method, which remains valid for the practically relevant regime of large size and high noise strength.

Quantum Physics (quant-ph); Data Structures and Algorithms (cs.DS); Computation (stat.CO)

arXiv:2610.40941 [quant-ph]

(or arXiv:2610.40941v1 [quant-ph] for this version)

https://doi.org/10.48550/arXiv.2610.40941 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

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