On Function-Correcting Codes

Function-correcting codes were introduced in the work "Function-Correcting Codes" (FCC) by Lenz et al. 2023, which provides a graphical representation for the problem of constructing function-correcting codes. We use this function dependent graph to get a lower bound on the redundancy required for function correction codes. Considering the function to be a bijection, leads to a lower bound on the redundancy required for classical systematic error correcting codes (ECCs). We propose a range of parameters for which this bound is tight. For single error correcting codes, we show that this bound is at least as good as a bound proposed by Zinoviev, Litsyn, and Laihonen in 1998. Thus, this framework helps to study classical systematic error correcting codes. Further, we study the structure of this function dependent graph for linear functions, which leads to bounds on the redundancy of linear-function correcting codes. We show that the Plotkin-like bound for function-correcting codes proposed by Lenz et.al 2023 is simplified for linear functions. We identify a class of linear functions for which an upper bound proposed by Lenz et al., is tight and also identify a class of functions for which coset-wise coding is equivalent to a lower dimensional classical error correction problem.

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Publication Details

Journal
IEEE Transactions on Information Theory
Published
2025-05-30
DOI
https://doi.org/10.1109/tit.2025.3575300
Citations
2
Primary Topic
DNA and Biological Computing
Type
article
Field-Weighted Citation Impact
1.61
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article

On Function-Correcting Codes

B. Sundar Rajan, Rohit Premlal
2 citations
IEEE Transactions on Information Theory
DNA and Biological Computing
1.61
article

On Function-Correcting Codes

B. Sundar Rajan, Rohit Premlal
article en
2 citations

Abstract

Function-correcting codes were introduced in the work "Function-Correcting Codes" (FCC) by Lenz et al. 2023, which provides a graphical representation for the problem of constructing function-correcting codes. We use this function dependent graph to get a lower bound on the redundancy required for function correction codes. Considering the function to be a bijection, leads to a lower bound on the redundancy required for classical systematic error correcting codes (ECCs). We propose a range of parameters for which this bound is tight. For single error correcting codes, we show that this bound is at least as good as a bound proposed by Zinoviev, Litsyn, and Laihonen in 1998. Thus, this framework helps to study classical systematic error correcting codes. Further, we study the structure of this function dependent graph for linear functions, which leads to bounds on the redundancy of linear-function correcting codes. We show that the Plotkin-like bound for function-correcting codes proposed by Lenz et.al 2023 is simplified for linear functions. We identify a class of linear functions for which an upper bound proposed by Lenz et al., is tight and also identify a class of functions for which coset-wise coding is equivalent to a lower dimensional classical error correction problem.

IEEE Transactions on Information TheoryVol. 71(8)
University of Maryland, College Park (US)
Openalex Percentile: Top 17%
DNA and Biological Computing
1.61
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On Function-Correcting Codes — B. Sundar Rajan, Rohit Premlal · IEEE Transactions on Information Theory (2025) | TGRS Research Map | TGRS