New Singleton-like and linear-programming dimension bounds are proven for disjoint quantum locally recoverable codes under a blockwise purity condition.
LRCs: Duality, LP Bounds, and Field Size
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abstract
We develop a duality theory of locally recoverable codes (LRCs) and apply it to establish a series of new bounds on their parameters. We introduce and study a refined notion of weight distribution that captures the code's locality. Using a duality result analogous to a MacWilliams identity, we then derive an LP-type bound that improves on the best known bounds in several instances. Using a dual distance bound and the theory of generalized weights, we obtain non-existence results for optimal LRCs over small fields. In particular, we show that an optimal LRC must have both minimum distance and block length relatively small compared to the field size.
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cs.IT 1years
2026 1verdicts
REJECT 1representative citing papers
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Bounds for Pure Disjoint $(r,\delta)$-Quantum Locally Recoverable Codes
New Singleton-like and linear-programming dimension bounds are proven for disjoint quantum locally recoverable codes under a blockwise purity condition.