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Cryptology ePrint Archive

Fast Isogeny Evaluation on Binary Curves Quick Draw Queries: Lightweight Searchable Public-key Ciphertexts with Hidden Structures via Non-Interactive Key Exchange A Constructive Treatment of Authentication Boolean Arithmetic over $\mathbb{F}_2$ from Group Commutators HAWK with Hint: Algebraic Key Recovery from Side-Channel Leakage Post-Quantum Secure k-Times Traceable Ring Signature A Key Schedule Design and Evaluation under Boundary Round-Key Leakage 2G2T: Constant-Size, Statistically Sound MSM Outsourcing Proximity Signatures Breaking Optimized HQC: The First Cache-Timing Full Decryption Oracle Key-Recovery Attack in Post-Quantum Cryptography Efficient Partially Blind Signatures from Isogenies Evaluating PQC KEMs, Combiners, and Cascade Encryption via Adaptive IND-CPA Testing Using Deep Learning High-Throughput Side-Channel-Protected Stream Cipher Hardware for 6G Systems Efficient e = 3 Threshold RSA via Integer Coordinates for Intel SGX Zeal: PIR for Non-Cooperative Databases VEIL: Lightweight Zero-Knowledge for Hash-Based Multilinear Proof Systems Witness-Indistinguishable Arguments of Knowledge and One-Way Functions The many faces of Schnorr: a touch-up Open Problems in List Decoding and Correlated Agreement Compressed Key Exchange Protocol from Orientations of Large Discriminant Using AVX-512 SPLASH: SPeculative Leakage-Adaptive Secure Hardware An Efficient Identity-Based Blind Signature Scheme from SM9 Efficient Batch Threshold Encryption Using Partial Fraction Techniques A note on the Unsuitability of LIGA for Linkable Ring Signatures: The perils of non-commutativity Verification Facade: Masquerading Insecure Cryptographic Implementations as Verified Code Cryptographic Implications of Worst-Case Hardness of Time-Bounded Kolmogorov Complexity Efficient Merkle-Tree Consistent Accumulator FLOSS: Fast Linear Online Secret-Shared Shuffling Which Privacy Blanket is Optimal in the Shuffle Model? Applications of Bruhat-Chevalley-Renner Decomposition to Metric-Aware Code-Based Cryptography
Speeding Up Sum-Check Proving (Extended Version)
Quang Dao, Carnegie Mellon University · 2026-03-25 · via Cryptology ePrint Archive

Paper 2026/587

Speeding Up Sum-Check Proving (Extended Version)

Zachary DeStefano, New York University

Suyash Bagad, Ingonyama

Yuval Domb, Ingonyama

Justin Thaler, Georgetown University, a16z crypto research

Abstract

The sum-check protocol is a foundational primitive in modern cryptographic proof systems, but its prover-side cost has emerged as a concrete bottleneck. This paper introduces three complementary techniques that significantly reduce sum-check proving time and memory, especially in the context of zero-knowledge virtual machines (zkVMs). First, for applications involving products of many multilinear polynomials, we develop a new algorithm that significantly reduces the number of field multiplications required for proving. Second, we develop a "small-value sum-check prover" algorithm. This significantly speeds up the prover in the common setting where the polynomials being summed evaluate to 64 or 32-bit integers, or to elements of a small sub-field within a larger extension field. Even outside of the small-value setting, this algorithm yields a faster "streaming prover", by which we mean a small-space algorithm that applies whenever the terms being summed can be enumerated in small space (as arises, for example, in zkVM applications). Third, we nearly eliminate prover overhead in the ubiquitous case where one factor is an equality polynomial by exploiting its decomposable tensor structure. We implement these techniques in Jolt, a state-of-the-art zkVM, and evaluate their performance. In Jolt, we observe over an order of magnitude runtime speedup and memory reduction on the Spartan sub-protocol, and $1.7\times$ to $2.2\times$ speedups for a key high-degree sum-check sub-protocol in the Shout batch-evaluation argument.

Note: This manuscript directly combines and improves upon results from prior works: 2025/1117, 2024/1046, and 2024/1210

BibTeX

@misc{cryptoeprint:2026/587,
      author = {Quang Dao and Zachary DeStefano and Suyash Bagad and Yuval Domb and Justin Thaler},
      title = {Speeding Up Sum-Check Proving (Extended Version)},
      howpublished = {Cryptology {ePrint} Archive, Paper 2026/587},
      year = {2026},
      url = {https://eprint.iacr.org/2026/587}
}