CSS-T Codes from Reed Muller Codes
Emma Andrade, Jessalyn Bolkema, Thomas Dexter, Harrison Eggers, Victoria Luongo, Felice Manganiello, Luke Szramowski

TL;DR
This paper explores the construction of CSS-T quantum error-correcting codes from Reed-Muller codes, achieving high rates and potentially diverging minimum distances, advancing quantum fault-tolerance.
Contribution
It introduces a comprehensive study of non-degenerate CSS-T codes derived from Reed-Muller codes, highlighting their asymptotic rate and distance properties.
Findings
Achieves nonvanishing asymptotic rates up to 1/2
Potential for diverging minimum distance in non-degenerate codes
Provides a framework for constructing quantum codes with desirable properties
Abstract
CSS-T codes are a class of stabilizer codes introduced by Rengaswamy \emph{et al} with desired properties for quantum fault-tolerance. In this work, we comprehensively study non-degenerate CSS-T codes built from Reed-Muller codes. These classical codes allow for constructing CSS-T code families with nonvanishing asymptotic rates up to and possibly diverging minimum distance when non-degenerate.
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Taxonomy
TopicsQuantum Computing Algorithms and Architecture · Semiconductor materials and devices · Radiation Effects in Electronics
