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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MVPNalyzer: An Investigative Framework for Auditing the Security &...

Wayne Wang (University of Michigan), Aaron Ortwein (University of Michigan), Enrique Sobrados (University of New Mexico), Robert Stanley (University of Michigan), Piyush Kumar Sharma (University of Michigan, IIT Delhi), Afsah Anwar (University of New Mexico), Roya Ensafi (University of Michigan)

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From Obfuscated to Obvious: A Comprehensive JavaScript Deobfuscation Tool...

Dongchao Zhou (Beijing University of Post and Telecommunication and QI-ANXIN Technology Research Institute), Lingyun Ying (QI-ANXIN Technology Research Institute), Huajun Chai (QI-ANXIN Technology Research Institute), Dongbin Wang (Beijing University of Post and Telecommunication)

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Pando: Extremely Scalable BFT Based on Committee Sampling

Xin Wang (Tsinghua University and State Key Laboratory of Cryptography and Digital Economy Security), Haochen Wang (Tsinghua University), Haibin Zhang (Yangtze Delta Region Institute of Tsinghua University, Zhejiang), Sisi Duan (Tsinghua University, Zhongguancun Laboratory, Shandong Institute of Blockchains and State Key Laboratory of Cryptography and Digital Economy Security)

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