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Quantum $(r,δ)$-Locally Recoverable BCH and Homothetic-BCH Codes

Carlos Galindo, Fernando Hernando, Ryutaroh Matsumoto

TL;DR

This article is devoted to studying how to get pure quantum $(r,\delta)$-LRCs from BCH and homothetic-BCH codes which are optimal for the Singleton-like bound.

Abstract

Quantum $(r,δ)$-locally recoverable codes ($(r,δ)$-LRCs) are the quantum version of classical $(r,δ)$-LRCs designed to recover multiple failures in large-scale distributed and cloud storage systems. A quantum $(r,δ)$-LRC, $Q(C)$, can be constructed from an $(r,δ)$-LRC, $C$, which is Euclidean or Hermitian dual-containing. This article is devoted to studying how to get quantum $(r,δ)$-LRCs from BCH and homothetic-BCH codes. As a consequence, we give pure quantum $(r,δ)$-LRCs which are optimal for the Singleton-like bound.

Quantum $(r,δ)$-Locally Recoverable BCH and Homothetic-BCH Codes

TL;DR

This article is devoted to studying how to get pure quantum -LRCs from BCH and homothetic-BCH codes which are optimal for the Singleton-like bound.

Abstract

Quantum -locally recoverable codes (-LRCs) are the quantum version of classical -LRCs designed to recover multiple failures in large-scale distributed and cloud storage systems. A quantum -LRC, , can be constructed from an -LRC, , which is Euclidean or Hermitian dual-containing. This article is devoted to studying how to get quantum -LRCs from BCH and homothetic-BCH codes. As a consequence, we give pure quantum -LRCs which are optimal for the Singleton-like bound.
Paper Structure (14 sections, 22 theorems, 50 equations, 1 table)