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International Journal of Theoretical Physics

Generalization of Deutsch’s Algorithm

Koji Nagata, Tadao Nakamura

Published Jun 29, 2020• 7 citations
Publisher
DOI
10.1007/s10773-020-04522-0

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The Deutsch-Jozsa algorithm is one of the first examples of a quantum algorithm that is exponentially faster than any possible deterministic classical algorithm. It was proposed by Deutsch and Jozsa in 1992 with improvements by Cleve, Ekert, Macchiavello, and Mosca in 1998. The Deutsch-Jozsa problem is a promise problem and we can equivalently describe it as a partial function ${\text{DJ}}_{n}^{0}:{{0,1}}^{n}\ensuremath{\rightarrow}{0,1}$ defined as DJn0(x)=1{\text{DJ}}_{n}^{0}(x)=1DJn0​(x)=1 for ∣x∣=n/2,DJn0(x)=0|x|=n/2, {\text{DJ}}_{n}^{0}(x)=0∣x∣=n/2,DJn0​(x)=0 for ∣x∣=0,n|x|=0,n∣x∣=0,n, and it is undefined for the rest of the cases, where nnn is even, and ∣x∣|x|∣x∣ is the Hamming weight of xxx. The optimal quantum algorithm needs only one query to compute DJn0{\text{DJ}}_{n}^{0}DJn0​ but the classical deterministic algorithm requires ${2}^{n\ensuremath{-}1}+1$ queries to compute it in the worse case. In this article, we generalize the Deutsch-Jozsa problem as DJnk(x)=1{\text{DJ}}_{n}^{k}(x)=1DJnk​(x)=1 for ∣x∣=n/2,DJnk(x)=0|x|=n/2, {\text{DJ}}_{n}^{k}(x)=0∣x∣=n/2,DJnk​(x)=0 for ∣x∣|x|∣x∣ in the set ${0,1,...,k,n\ensuremath{-}k,n\ensuremath{-}k+1,...,n}$, and it is undefined for the rest of the cases, where $0\ensuremath{\le}k<n/2$. In particular, we give and prove an optimal exact quantum query algorithm with complexity k+1k+1k+1 for computing the generalized Deutsch-Jozsa problem DJnk{\text{DJ}}_{n}^{k}DJnk​. It is clear that the case of k=0k=0k=0 is in accordance with the Deutsch-Jozsa problem. Also, we give a method for finding the approximate and exact degrees of symmetric partial Boolean functions.