Bio-Adaptive Quantum Error Correction: Immune-Inspired Priors Enable 22–65% Overhead Reduction in Surface-Code Decoding

Fuente: Zenodo
Saved in:
Bibliographic Details
Main Authors: Chuck, Crawley, Robinson, Jorel, Ndenga, Barack
Format: Recurso digital
Published: Zenodo 2025
Subjects:
Online Access:
Tags: Add Tag
No Tags, Be the first to tag this record!
_version_ 1866901577526149120
author Chuck, Crawley
Robinson, Jorel
Ndenga, Barack
author_facet Chuck, Crawley
Robinson, Jorel
Ndenga, Barack
contents <p>This dataset and code repository accompanies the publication introducing BA-QEC, the first quantum-error-correction decoder explicitly inspired by biological immune-system architecture. BA-QEC integrates a Bayesian prior derived from human TCRβ CDR3 length distributions and an adaptive clonal-expansion memory mechanism to improve decoding performance in topological quantum codes. Simulations of a distance-7 rotated surface code demonstrate 22% threshold improvement from the biological prior alone, and up to 61% enhancement when combined with clonal memory under temporally correlated (1/f-type) noise. All code is open-source (MIT license) and fully reproducible in <10 minutes on Google Colab.</p> <p>The repository includes:</p> <p>Python notebooks for Stim-based and PyMatching-based simulations,</p> <p>Clonal-expansion cache implementation,</p> <p>Scripts for reproducing figures and pseudothreshold plots,</p> <p>Documentation on integrating the biological prior into MWPM decoding.</p> <p>This work establishes a novel link between adaptive immunity and quantum error correction, offering a new paradigm for biologically inspired, efficient, and adaptive decoders.</p>
format Recurso digital
id zenodo_https___doi_org_10_5281_zenodo_17684948
institution Zenodo
language
publishDate 2025
publisher Zenodo
record_format zenodo
spellingShingle Bio-Adaptive Quantum Error Correction: Immune-Inspired Priors Enable 22–65% Overhead Reduction in Surface-Code Decoding
Chuck, Crawley
Robinson, Jorel
Ndenga, Barack
Quantum Error Correction, Surface Code, MWPM, Bio-Inspired Algorithms, Immune System, TCRβ CDR3, Bayesian Prior, Clonal Expansion, Adaptive Memory, Correlated Noise, Fault-Tolerant Quantum Computing, Open-Source Simulation
<p>This dataset and code repository accompanies the publication introducing BA-QEC, the first quantum-error-correction decoder explicitly inspired by biological immune-system architecture. BA-QEC integrates a Bayesian prior derived from human TCRβ CDR3 length distributions and an adaptive clonal-expansion memory mechanism to improve decoding performance in topological quantum codes. Simulations of a distance-7 rotated surface code demonstrate 22% threshold improvement from the biological prior alone, and up to 61% enhancement when combined with clonal memory under temporally correlated (1/f-type) noise. All code is open-source (MIT license) and fully reproducible in <10 minutes on Google Colab.</p> <p>The repository includes:</p> <p>Python notebooks for Stim-based and PyMatching-based simulations,</p> <p>Clonal-expansion cache implementation,</p> <p>Scripts for reproducing figures and pseudothreshold plots,</p> <p>Documentation on integrating the biological prior into MWPM decoding.</p> <p>This work establishes a novel link between adaptive immunity and quantum error correction, offering a new paradigm for biologically inspired, efficient, and adaptive decoders.</p>
title Bio-Adaptive Quantum Error Correction: Immune-Inspired Priors Enable 22–65% Overhead Reduction in Surface-Code Decoding
topic Quantum Error Correction, Surface Code, MWPM, Bio-Inspired Algorithms, Immune System, TCRβ CDR3, Bayesian Prior, Clonal Expansion, Adaptive Memory, Correlated Noise, Fault-Tolerant Quantum Computing, Open-Source Simulation
url https://doi.org/10.5281/zenodo.17684948