CryptoRecords.info
Binary decoding

Decoding random binary codes

Decode a random binary linear code at a specified rate and error weight.

Binary · half distance

Half-distance decoding; worst asymptotic rate

8 results · 6 papers
ClassicalAsymptotic analysisRandom binary codes2c n + o(n)
#PUBLICATION / AUTHORSDATETIME BOUNDSPACE BOUNDEVIDENCE
1From Subset-Sum to Decoding: Improved Classical and Quantum Algorithms via Ternary Representation TechniqueYang LiInformation 2025SourceBibTeX / detailsheuristic12 Oct 202520.0453 n + o(n)—PublishedSource checked
2Decoding Linear Codes with High Error Rate and its Impact for LPN SecurityLeif Both · Alexander MayPQCrypto 2018SourceBibTeX / details27 Nov 201720.0465 n + o(n)20.0294 n + o(n)PublishedSource checked
3On Computing Nearest Neighbors with Applications to Decoding of Binary Linear CodesAlexander May · Ilya OzerovEurocrypt 2015SourceBibTeX / details26 Apr 201520.0473 n + o(n)—PublishedSource checked
4Decoding Linear Codes with High Error Rate and its Impact for LPN SecurityLeif Both · Alexander MayPQCrypto 2018SourceBibTeX / details27 Nov 201720.0478 n + o(n)20.029 n + o(n)PublishedSource checked
5Decoding Linear Codes with High Error Rate and its Impact for LPN SecurityLeif Both · Alexander MayPQCrypto 2018SourceBibTeX / details27 Nov 201720.0488 n + o(n)20.029 n + o(n)PublishedSource checked
6Decoding Random Binary Linear Codes in 2^(n/20): How 1+1=0 Improves Information Set DecodingAnja Becker · Antoine Joux · Alexander May · Alexander MeurerEurocrypt 2012SourceBibTeX / details20 Jan 201220.0494 n + o(n)—PublishedSource checked
7Decoding Random Linear Codes in Õ(2^{0.054n})Alexander May · Alexander Meurer · Enrico ThomaeAsiacrypt 2011SourceBibTeX / details201120.0537 n + o(n)—PublishedSource checked
8Smaller decoding exponents: ball-collision decodingDaniel J. Bernstein · Tanja Lange · Christiane PetersCrypto 2011SourceBibTeX / details7 Mar 201120.0556 n + o(n)—PublishedSource checked
Comparison definition & assumptions
Regime
Half-distance decoding; worst asymptotic rate
Computation
Classical
Rigor
Asymptotic analysis
Instances
Random binary codes
Cost scale
2^{c n + o(n)}
Parameter
n
Description
Classical information-set decoding in the half-distance convention used by the cited asymptotic papers.
Comparison rules
n is binary code length. Use half the Gilbert–Varshamov distance and the paper’s worst-rate convention. Full-distance decoding, fixed-rate instances, q-ary decoding, and quantum ISD require their own categories. These are historical reference bounds, not a complete current leaderboard.
Tags