量子逻辑线性时间扩展的语义分析及其动态方面

IF 0.7 4区 数学 Q3 COMPUTER SCIENCE, THEORY & METHODS ACM Transactions on Computational Logic Pub Date : 2022-12-16 DOI:10.1145/3576926
Tsubasa Takagi
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引用次数: 0

摘要

虽然已经提出了各种动态或时间逻辑来验证量子协议和系统,但这两种观点的研究还不够全面。我们提出了线性时间量子逻辑(LTQL),这是量子逻辑的线性时间扩展,具有量子含义,并将其扩展到动态线性时间量子逻辑(DLTQL)。这个逻辑有时间算子,用酉算子(量子门)表示跃迁;有动态算子,用投影(投影测量)表示跃迁。然后,我们证明了LTQL和DLTQL表达的这两种转换之间关系的一些逻辑属性。将LTQL应用于量子协议验证的一个缺点是,这些逻辑不能用线性时间逻辑表示未来算子。我们提出了一种方法,通过使用从(D)LTQL到线性时序模态逻辑(LTML)的转换和模拟来减轻这一缺点。这种转换将(D)LTQL公式的可满足性问题简化为具有量子态经典语义的LTML的可满足性问题。
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Semantic Analysis of a Linear Temporal Extension of Quantum Logic and Its Dynamic Aspect
Although various dynamic or temporal logics have been proposed to verify quantum protocols and systems, these two viewpoints have not been studied comprehensively enough. We propose Linear Temporal Quantum Logic (LTQL), a linear temporal extension of quantum logic with a quantum implication, and extend it to Dynamic Linear Temporal Quantum Logic (DLTQL). This logic has temporal operators to express transitions by unitary operators (quantum gates) and dynamic ones to express those by projections (projective measurement). We then prove some logical properties of the relationship between these two transitions expressed by LTQL and DLTQL. A drawback in applying LTQL to the verification of quantum protocols is that these logics cannot express the future operator in linear temporal logic. We propose a way to mitigate this drawback by using a translation from (D)LTQL to Linear Temporal Modal Logic (LTML) and a simulation. This translation reduces the satisfiability problem of (D)LTQL formulas to that of LTML with the classical semantics over quantum states.
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来源期刊
ACM Transactions on Computational Logic
ACM Transactions on Computational Logic 工程技术-计算机:理论方法
CiteScore
2.30
自引率
0.00%
发文量
37
审稿时长
>12 weeks
期刊介绍: TOCL welcomes submissions related to all aspects of logic as it pertains to topics in computer science. This area has a great tradition in computer science. Several researchers who earned the ACM Turing award have also contributed to this field, namely Edgar Codd (relational database systems), Stephen Cook (complexity of logical theories), Edsger W. Dijkstra, Robert W. Floyd, Tony Hoare, Amir Pnueli, Dana Scott, Edmond M. Clarke, Allen E. Emerson, and Joseph Sifakis (program logics, program derivation and verification, programming languages semantics), Robin Milner (interactive theorem proving, concurrency calculi, and functional programming), and John McCarthy (functional programming and logics in AI). Logic continues to play an important role in computer science and has permeated several of its areas, including artificial intelligence, computational complexity, database systems, and programming languages. The Editorial Board of this journal seeks and hopes to attract high-quality submissions in all the above-mentioned areas of computational logic so that TOCL becomes the standard reference in the field. Both theoretical and applied papers are sought. Submissions showing novel use of logic in computer science are especially welcome.
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