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Accepted paper for the DAC 2020 conference We present a domain-specific co-processor to speed up Saber, a post-quantum key encapsulation mechanism competing on the NIST Post-Quantum Cryptography standardization process. Contrary to most lattice-based schemes, Saber doesn’t use NTT-based polynomial multiplication. We follow a hardware-software co-design approach: the execution is performed on an ARM core and only the most computationally expensive operation, i.e., polynomial multiplication, is offloaded to the co-processor to obtain a compact design. We exploit the idea of distributed computing at micro-architectural level together with novel algorithmic optimizations to achieve approximately a 6 times speed-up with respect to optimized software at a small area cost.
Domain-specic co-processor, Functional Encryption, Saber, lattice- based cryptography, post-quantum cryptography
Domain-specic co-processor, Functional Encryption, Saber, lattice- based cryptography, post-quantum cryptography
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