Certified Everlasting Zero-Knowledge Proof for QMA
Taiga Hiroka, Tomoyuki Morimae, Ryo Nishimaki, Takashi Yamakawa
摘要
In known constructions of classical zero-knowledge protocols for NP, either of zero-knowledge or soundness holds only against computationally bounded adversaries. Indeed, achieving both statistical zero-knowledge and statistical soundness at the same time with classical verifier is impossible for NP unless the polynomial-time hierarchy collapses, and it is also believed to be impossible even with a quantum verifier. In this work, we introduce a novel compromise, which we call the certified everlasting zero-knowledge proof for QMA. It is a computational zero-knowledge proof for QMA, but the verifier issues a classical certificate that shows that the verifier has deleted its quantum information. If the certificate is valid, even unbounded malicious verifier can no longer learn anything beyond the validity of the statement.
We construct a certified everlasting zero-knowledge proof for QMA. For the construction, we introduce a new quantum cryptographic primitive, which we call commitment with statistical binding and certified everlasting hiding, where the hiding property becomes statistical once the receiver has issued a valid certificate that shows that the receiver has deleted the committed information. We construct commitment with statistical binding and certified everlasting hiding from quantum encryption with certified deletion by Broadbent and Islam [TCC 2020] (in a black box way), and then combine it with the quantum sigma-protocol for QMA by Broadbent and Grilo [FOCS 2020] to construct the certified everlasting zero-knowledge proof for QMA. Our constructions are secure in the quantum random oracle model. Commitment with statistical binding and certified everlasting hiding itself is of independent interest, and there will be many other useful applications beyond zero-knowledge.
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引用它的顶会 Paper7
- Cryptography with Certified DeletionJames Bartusek, Dakshita KhuranaCRYPTO 2023 · 被引用 25 次
- Cloning Games: A General Framework for Unclonable PrimitivesPrabhanjan Ananth, Fatih Kaleoglu, Qipeng LiuCRYPTO 2023 · 被引用 17 次
- Publicly-Verifiable Deletion via Target-Collapsing FunctionsJames Bartusek, Dakshita Khurana, Alexander PorembaCRYPTO 2023 · 被引用 14 次
- Software with Certified DeletionJames Bartusek, Vipul Goyal, Dakshita Khurana, Giulio Malavolta 等EUROCRYPT 2024 · 被引用 13 次
- Certified Everlasting Secure Collusion-Resistant Functional Encryption, and MoreTaiga Hiroka, Fuyuki Kitagawa, Tomoyuki Morimae, Ryo Nishimaki 等EUROCRYPT 2024 · 被引用 10 次
它引用的顶会 Paper6
- Post-quantum zero knowledge in constant roundsNir Bitansky, Omri ShmueliSTOC 2020 · 被引用 47 次
- Non-interactive Zero-Knowledge Arguments for QMA, with PreprocessingAndrea Coladangelo, Thomas Vidick, Tina ZhangCRYPTO 2020 · 被引用 29 次
- On the Round Complexity of Secure Quantum ComputationJames Bartusek, Andrea Coladangelo, Dakshita Khurana, Fermi MaCRYPTO 2021 · 被引用 24 次
- QMA-hardness of Consistency of Local Density Matrices with Applications to Quantum Zero-KnowledgeAnne Broadbent, Alex B. GriloFOCS 2020 · 被引用 15 次
- Quantum garbled circuitsZvika Brakerski, Henry YuenSTOC 2022 · 被引用 10 次
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