Document Type
Conference Proceeding
Publisher
IEEE Press
Faculty
Faculty of Computing, Health and Science
School
Electron Science Research Institute (ESRI)
RAS ID
10237
Abstract
We propose a new method to realize a two-dimensional magnetic lattice, having two different configurations of asymmetric magnetic lattice, which exhibits magnetic band gap structure, and a symmetric magnetic lattice. We also describe the tunneling mechanisms of magnetically trapped ultracold atoms, prepared in a degenerate quantum gas such as Bose-Einstein Condensate (BEC). A coherent quantum tunneling of ultracold atoms between the sites of the asymmetrical magnetic lattice can be realized which induces the adiabatically controlled dc Josephson current. At critical phase transitions, namely at certain values of site phase difference and population fraction, a plasma oscillation can be observed in which it forms a discharging Josephson state to be used as coherently coupled n quantum bits.
DOI
10.1109/HONET.2009.5423089
Access Rights
free_to_read
Comments
This is an Author's Accepted Manuscript of: Abdelrahman, A., Alameh, K., & Hannford, P. (2010). Adiabatic coherent quantum tunneling of ultracold atoms trapped in an asymmetrical two-dimensional magnetic lattices. Proceedings of High-Capacity Optical Networks and Enabling Technologies (HONET). (pp. 120-124). Alexandria, Egypt. IEEE Press. Available here
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