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In this paper we discuss how we can design Hamiltonians to implement quantum algorithms, in particular we focus in Deutsch and Grover algorithms. As main result of this paper, we show how Hamiltonian inverse quantum engineering method allow us to obtain feasible and time-independent Hamiltonians for implementing such algorithms. From our approach for the Deutsch algorithm, different from others techniques, we can provide an alternative approach for implementing such algorithm where no auxiliary qubit and additional resources are required. In addition, by using a single quantum evolution, the Grover algorithm can be achieved with high probability 1 -𝜖𝜖 2 , where 𝜖𝜖 is a very small arbitrary parameter.
Alan C. Santos. 2018. \u201cQuantum Information Processing Via Hamiltonian Inverse Quantum Engineering\u201d. Global Journal of Science Frontier Research - F: Mathematics & Decision GJSFR-F Volume 18 (GJSFR Volume 18 Issue F3): .
Crossref Journal DOI 10.17406/GJSFR
Print ISSN 0975-5896
e-ISSN 2249-4626
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Total Score: 101
Country: Brazil
Subject: Global Journal of Science Frontier Research - F: Mathematics & Decision
Authors: Alan C. Santos (PhD/Dr. count: 0)
View Count (all-time): 130
Total Views (Real + Logic): 3092
Total Downloads (simulated): 1561
Publish Date: 2018 04, Mon
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In this paper we discuss how we can design Hamiltonians to implement quantum algorithms, in particular we focus in Deutsch and Grover algorithms. As main result of this paper, we show how Hamiltonian inverse quantum engineering method allow us to obtain feasible and time-independent Hamiltonians for implementing such algorithms. From our approach for the Deutsch algorithm, different from others techniques, we can provide an alternative approach for implementing such algorithm where no auxiliary qubit and additional resources are required. In addition, by using a single quantum evolution, the Grover algorithm can be achieved with high probability 1 -𝜖𝜖 2 , where 𝜖𝜖 is a very small arbitrary parameter.
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