A Distribution Testing Oracle Separating QMA and QCMA

A. Natarajan, Chinmay Nirkhe
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引用次数: 1

Abstract

It is a long-standing open question in quantum complexity theory whether the definition of $\textit{non-deterministic}$ quantum computation requires quantum witnesses $(\textsf{QMA})$ or if classical witnesses suffice $(\textsf{QCMA})$. We make progress on this question by constructing a randomized classical oracle separating the respective computational complexity classes. Previous separations [Aaronson-Kuperberg (CCC'07), Fefferman-Kimmel (MFCS'18)] required a quantum unitary oracle. The separating problem is deciding whether a distribution supported on regular un-directed graphs either consists of multiple connected components (yes instances) or consists of one expanding connected component (no instances) where the graph is given in an adjacency-list format by the oracle. Therefore, the oracle is a distribution over $n$-bit boolean functions.
一个分离QMA和QCMA的分布测试Oracle
在量子复杂性理论中,定义$\textit{non-deterministic}$量子计算是否需要量子见证$(\textsf{QMA})$或者经典见证是否足够$(\textsf{QCMA})$是一个长期悬而未决的问题。我们通过构造一个随机的经典oracle来分离各自的计算复杂度类,从而在这个问题上取得进展。以前的分离[Aaronson-Kuperberg (CCC'07), Fefferman-Kimmel (MFCS'18)]需要一个量子酉神谕。分离问题是决定一个正则无向图上支持的分布是由多个连接的组件(有实例)组成,还是由一个扩展的连接组件(没有实例)组成,其中图由oracle以邻接表格式给出。因此,oracle是一个分布在$n$ -bit布尔函数。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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