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Path Independence in Adiabatic Quantum Computing for Hadamard Gate
Author(s) -
Jusak Sali Kosasih,
Suhadi Suhadi,
Freddy P. Zen
Publication year - 2014
Publication title -
journal of mathematical and fundamental sciences
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.216
H-Index - 12
eISSN - 2337-5760
pISSN - 2338-5510
DOI - 10.5614/j.math.fund.sci.2014.46.1.3
Subject(s) - hadamard transform , adiabatic quantum computation , adiabatic process , hamiltonian (control theory) , mathematics , quantum computer , path (computing) , quantum , hamiltonian path , qubit , computation , hamiltonian path problem , quantum gate , statistical physics , quantum mechanics , algorithm , physics , mathematical analysis , computer science , mathematical optimization , discrete mathematics , graph , programming language
The computation time in adiabatic quantum computing (AQC) is determined by the time limit of the adiabatic evolution, which in turn depends on the evolution path. In this research we have used the variational method to find an optimized path. For the simplest case involving a single qubit and for the most general path involving one or more independent interpolating functions, the result is path independent. This result does not change when there is an extra Hamiltonian term. We have also applied these two scenarios in AQC to a Hadamard gate. Adding an extra Hamiltonian gives a non-trivial result compared to the normal AQC, however it does not result in a speed-up. Moreover, we show that in these two scenarios we can choose an arbitrary path provided that it satisfies the boundary conditions

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