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Cryptology ePrint Archive

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UltraProofs: Scalable Reed-Solomon Code Commitment
2025-05-16 · via Cryptology ePrint Archive

Paper 2025/865

UltraProofs: Scalable Reed-Solomon Code Commitment

Alex Luoyuan Xiong, National University of Singapore

Wenjie Qu, National University of Singapore

Jiaheng Zhang, National University of Singapore

Abstract

Reed–Solomon (RS) codes underpin a wide range of cryptographic protocols, from verifiable secret sharing (VSS) to blockchain data availability (DA). An RS code commitment enables a prover to distribute codeword fragments among many parties while allowing each recipient to verify that its fragment is consistent with a RS code. Existing constructions either rely on homomorphic polynomial commitments, which incur redundant commitments and expensive group operations, or use FRI-based interactive proofs, which achieve fast proving but suffer from prohibitively large communication. We present UltraProofs, a new RS code commitment framework that achieves linear-time proof generation while remaining compatible with any multilinear polynomial commitment. Our key technical contribution is an evaluation-consolidation protocol that reduces $n$ evaluation proofs at distinct RS points to a single randomized evaluation, eliminating redundant commitments and removing the need for homomorphic structure. We further design a tailored multilinear PCS, LightLigero, which achieves $O(\lambda \log n)$ proof size and maintains $O(n \log n)$ prover time. UltraProofs attains asymptotically optimal prover complexity with concrete speedups in practice: in VSS, it reduces prover time by $2.4\times$ and proof size by $4\times$ compared to HydraProofs (S&P'25); in DA, it cuts per-node communication by up to $2{\sim}5\times$ relative to FRIDA (Crypto'24) while retaining similar prover cost. By decoupling verifiable RS encoding from any specific PCS instantiation, UltraProofs provides a flexible, efficient, and modular foundation for large-scale verifiable storage and distributed cryptographic systems.

BibTeX

@misc{cryptoeprint:2025/865,
      author = {Yanpei Guo and Alex Luoyuan Xiong and Wenjie Qu and Jiaheng Zhang},
      title = {{UltraProofs}: Scalable Reed-Solomon Code Commitment},
      howpublished = {Cryptology {ePrint} Archive, Paper 2025/865},
      year = {2025},
      url = {https://eprint.iacr.org/2025/865}
}