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Progress Towards a Revolutionary Quantum Computer in Silicon

L. Oberbeck, S. Prawer, Andrew S. Dzurak, A. R. Hamilton, Neil J. Curson, Steven R. Schofield, Robert Clark, Fay E. Stanley, E. Gauja, Katia Peceros, L. D. Macks, J. Szymanska, Tilo M. Buehler, Rita P. McKinnon, Ван Ту Чан, M. Mitić, D. J. Reilly, Michelle Yvonne Simmons, Matthew D. H. Lay, Victoria Millar, Cameron J. Wellard, Lloyd C. L. Hollenberg, Jeffrey Colin McCallum, David N. Jamieson, Chris I. Pakes, Chuhong Yang, P. G. Donnelan, A. Coulthurst, Damien P. George, P Spizzirri, Aip Congress

Published Jan 1, 2002• 0 citations
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Our progress towards realization of the all‐silicon solid‐state NMR quantum computer [PRL, 89, 017901 (2002) and revised version] is reported. We show experimentally that the phase memory time TM (or phase decoherence time T2) of 29Si nuclear spins in single‐crystal Si at room temperature can be extended up to 25 s (and possibly more) using RF decoupling techniques [quant‐ph/0309164 (2003)]. A simple estimate shows that a T2 of 25 s will allow for 106 single‐qubit and 104 two‐qubit operations, by far the largest number of operations possible among existing solid‐state quantum computer schemes. Recent progress in materials science needed for the realization of the all‐silicon quantum computer is also discussed.
There is a worldwide race to build a computer which exploits the counterintuitive principles of quantum mechanics. Silicon is one of the most promising platforms for emerging quantum information technologies for two reasons: one, it possesses many of the key desirable criteria for low-error quantum information processing, and two, the microelectronics industry has decades of experience with producing ultrapure silicon and nanoscale silicon devices, which makes silicon-based quantum devices attractive for future commercial integration. This paper reviews a selection of silicon-based quantum computer design proposals, their technological requirements, and explores recent experimental progress towards their realisation.