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This research presents a linear algebraic method to minimize the number of observables and repair groups required for quantum error correction in entanglement-assisted codes. By establishing closed-form bounds for specific code constructions, the study advances the theoretical understanding of information locality within quantum systems. This work is significant for optimizing fault-tolerant architectures where efficient local recovery mechanisms are critical for scalability.
Simultaneous Reduction of Observables and Measured Qudits in Entanglement-Assisted Quantum Local Recovery
arXiv:2609.23316v1 Announce Type: new Abstract: For a general entanglement-assisted or unassisted quantum error-correcting code, a set of erasures, and an associated repair group, we propose a linear algebraic procedure to compute a reduced set of observables and a reduced repair group of codeword qudits for correcting the given erasures. The procedure has cubic complexity in the repair group size and the computed set of observables has the smallest possible size for correcting the given erasures. We specialize the general procedure to quantum codes constructed from Euclidean and Hermitian orthogonality, and provide closed-form upper bounds on the size of reduced repair groups for those special cases. Based on these closed-form bounds, we propose quantum counterparts of the information locality of classical local recovery.
Abstract:For a general entanglement-assisted or unassisted quantum error-correcting code, a set of erasures, and an associated repair group, we propose a linear algebraic procedure to compute a reduced set of observables and a reduced repair group of codeword qudits for correcting the given erasures. The procedure has cubic complexity in the repair group size and the computed set of observables has the smallest possible size for correcting the given erasures. We specialize the general procedure to quantum codes constructed from Euclidean and Hermitian orthogonality, and provide closed-form upper bounds on the size of reduced repair groups for those special cases. Based on these closed-form bounds, we propose quantum counterparts of the information locality of classical local recovery.
This is a continuation of arXiv:2608.04403
Quantum Physics (quant-ph); Information Theory (cs.IT)
arXiv:2609.23316 [quant-ph]
(or arXiv:2609.23316v1 [quant-ph] for this version)
https://doi.org/10.48550/arXiv.2609.23316 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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