QMA的零知识证明系统

A. Broadbent, Zhengfeng Ji, F. Song, John Watrous
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引用次数: 47

摘要

先前的工作已经确定,NP中的所有问题都允许经典的零知识证明系统,并且在量子计算的合理硬度假设下,这些证明系统可以免受量子攻击。我们证明了一个结果,代表了这一事实的进一步量子推广,即复杂性类QMA中的每个问题都有一个量子零知识证明系统。更具体地说,假设存在无条件绑定和量子计算隐藏的承诺方案,我们证明了复杂性类QMA中的每个问题都有一个关于有效量子计算的零知识的量子交互证明系统。我们的QMA证明系统对任意量子证明者是健全的,但只需要一个诚实的证明者来执行多项式时间的量子计算,前提是它持有正在考虑的QMA问题的给定实例的量子见证。
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Zero-Knowledge Proof Systems for QMA
Prior work has established that all problems in NP admit classical zero-knowledge proof systems, and under reasonable hardness assumptions for quantum computations, these proof systems can be made secure against quantum attacks. We prove a result representing a further quantum generalization of this fact, which is that every problem in the complexity class QMA has a quantum zero-knowledge proof system. More specifically, assuming the existence of an unconditionally binding and quantum computationally concealing commitment scheme, we prove that every problem in the complexity class QMA has a quantum interactive proof system that is zero-knowledge with respect to efficient quantum computations. Our QMA proof system is sound against arbitrary quantum provers, but only requires an honest prover to perform polynomial-time quantum computations, provided that it holds a quantum witness for a given instance of the QMA problem under consideration.
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