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Cryptology ePrint Archive

Formalizing and Strengthening the Security Proof of NTOR Verifiable Anomaly and Similarity Detection Using Matrix Profile in Private Time-series Adaptor Signature Schemes with Deniable Presignatures Privacy Coins Under Viewing Key Compromise Adaptively-Secure Flexible and Identity-Based Broadcast Encryption from Decomposed LWE MERIDIAN: A Toroid-Inspired Permutation Block Cipher for Constrained Environments PPML Is More Vulnerable to Cryptanalytic Extraction Attacks Toward Practical Fair Data Exchange: Eliminating In-Circuit Public-Key Operations Fault Injection Attacks Against zkSTARKs Scale, Round, Break: Simple Leakage Attacks on Secret Sharing Schemes Private Delegation of (Non-)Membership Proof Updates in Cryptographic Accumulators Beyond Binary: crosscorrelation of Cubic, Quartic and Quintic Character Sequences ZEE200: Zero Knowledge for Everything and Everyone @ 200 KHz A Post-Quantum Accountable Sanitizable Signature Scheme Based on Unbalanced Oil and Vinegar Better Usability: Leakage-Resistant AEADs from Single-length Blockciphers TieredOMap: Skewness-Aware Oblivious Map From Rerandtopia to Interceptopia, the Anamorphic Encryption Saga Rises Non-Adaptive Programmable PRFs and Applications to Stacked Garbling Practical Post-Quantum Secure Publicly Verifiable Secret Sharing and Applications Mosaic: Practical Malicious Security for Garbled Circuits on Bitcoin Efficient Bootstrapping of Matrices in FHE Decomposing Multiplication: A Vertical Packing Approach for Faster TFHE Formal Verification, Integration and Physical Evaluation of Prime-Field Masking on Silicon New Techniques for Communication-Efficient Secure Comparison Protocols Pairing-Based Verifiable Shuffles with Logarithmic-Size Proofs Verifying Provenance of Digital Media: Security Analysis of C2PA and its Implementation EQuADiSE: Efficient Quantum-safe Adaptive Distributed Symmetric-key Encryption Secure and Updatable Single Password Authentication Batch-Puncturing Circuit CP-ABE (and More) from Lattices Panther: Robust Hybrid KEM Combiners via Structural Splicing
TETRIS: Automated Design Space Exploration of Randomness–...
Nilotpola Sarma, Indian Institute of Technology Guwahati · 2026-06-23 · via Cryptology ePrint Archive

Paper 2026/1306

TETRIS: Automated Design Space Exploration of Randomness–Latency Trade-offs in Masked Hardware

Tapish Patidar, Indian Institute of Technology Guwahati

Nupur Brahamanya, Indian Institute of Technology Guwahati

Chandan Karfa, Indian Institute of Technology Guwahati

Abstract

Given a fixed security order, the randomness and latency of masked hardware present a trade-off. This trade-off has not been structurally examined well enough to enable an efficient search for a user-optimal (randomness/latency-efficient) masked design. Gadget-based masking simplifies masking by replacing each unmasked primitive circuit with a corresponding masked circuit, called a \textit{gadget}, to realize a larger masked design. These gadgets, in turn, have masking-order-dependent latency-randomness costs, lending a structure to the randomness and latency of gadget-based masked hardware. This structure enables automated Design-Space Exploration (DSE) of gadget-based masked hardware that takes in a user's constraints on randomness (or latency) to arrive at the latency (or randomness) optimal assignment of gadgets with less area and vice versa. This article introduces a software-level DSE approach, the basis of which is the two DSE algorithms - Minimize Latency under Randomness Constraints (MLRC) and Minimize Randomness under Latency Constraints (MRLC), which are duals of each other. While prior work optimizes masked hardware by formulating a global optimization based on the Boolean Satisfiability Problem (SAT), our results show that gadget-based masked hardware using Probe-Isolating Non-Interference (PINI) gadgets embodies a structured trade-off, enabling efficient heuristic-based solutions rather than relying on heavy global optimizations. This gives our tool comparable or superior area results in under a millisecond - a speedup of up to several orders of magnitude to the State-of-the-Art tools.

Note: This paper is conditionally accepted at CHES 2026.

BibTeX

@misc{cryptoeprint:2026/1306,
      author = {Nilotpola Sarma and Tapish Patidar and Nupur Brahamanya and Chandan Karfa},
      title = {{TETRIS}: Automated Design Space Exploration of Randomness–Latency Trade-offs in Masked Hardware},
      howpublished = {Cryptology {ePrint} Archive, Paper 2026/1306},
      year = {2026},
      url = {https://eprint.iacr.org/2026/1306}
}