Xinshu Ma (University of Edinburgh), Michio Honda (University of Edinburgh)

Quantum computers threaten to break the cryptographic foundations of classical TLS, prompting a shift to post-quantum cryptography. However, post-quantum authentication imposes significant performance overheads, particularly for mutual TLS in cloud environments with high handshake rates. We present Looma, a fast post-quantum authentication architecture that splits authentication into a fast, on-path sign/verify operation and slow, off-path pre-computations performed asynchronously, reducing handshake latency without sacrificing security. Integrated into TLS 1.3, Looma lowers PQTLS handshake latency by up to 44% compared to a Dilithium-2–based baseline. Our results demonstrate the practicality of Looma for scaling postquantum secure communications in cloud environments.

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Tariq Houis (Concordia University), Shaoqi Jiang (Concordia University), Mohammad Mannan (Concordia University), Amr Youssef (Concordia University)

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Lucas Stephens (Oregon State University), Jacob Porter (Oregon State University), Zane Ma (Oregon State University)

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Xiangxiang Chen (Zhejiang University), Peixin Zhang (Singapore Management University), Jun Sun (Singapore Management University), Wenhai Wang (Zhejiang University), Jingyi Wang (Zhejiang University)

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