Efficient Hardware Implementation of PQC Primitives and PQC algorithms Using High-Level Synthesis
Deepraj Soni, Ramesh Karri
Abstract
Efficient and quantum-resistant Post-Quantum Cryptographic (PQC) algorithms need to be built before development of large-scale quantum, which will break RSA and Elliptic Curve cryptography based existing public key infrastructure. Cryptographers are developing quantum-resistant PQC algorithms, which consist of PQC primitives. These primitives act as a basic building blocks that play a vital role in security and resource utilization. Hence, efficient and precise implementation of PQC primitives is crucial for stable PQC algorithms. This paper implements and optimizes PQC primitives using High-level synthesis. High-level synthesis produces area-optimized and speed-optimized solutions for the primitives. These solutions create efficient and constant-time PQC designs that keep the hardware secure against timing side-channel attack.