A Quantum computer based on trapped ions
ORAL · Invited
Abstract
Trapped ions are a promising candidate system to realize a scalable quantum computer. We present a modular quantum computing architecture comprised of a chain of single 171Yb+ ions with individual laser beam addressing and readout [1]. We use the transverse modes of motion in the chain to produce entangling gates between any qubit pair. This creates a fully connected system which can be configured efficiently to run any sequence of single- and two-qubit gates [2], making it in effect an arbitrarily programmable quantum computer.
Recent results from different quantum algorithms with five and seven qubits will be presented [3], including a probe into the black-hole information paradox. I will also discuss schemes to scale up this architecture.
[1] S. Debnath et al., Nature 563:63 (2016)
[2] NML et al., PNAS 114 13:3305 (2017)
[3] K. Landsman et al., arXiv: 1806.02807 (2018)
Recent results from different quantum algorithms with five and seven qubits will be presented [3], including a probe into the black-hole information paradox. I will also discuss schemes to scale up this architecture.
[1] S. Debnath et al., Nature 563:63 (2016)
[2] NML et al., PNAS 114 13:3305 (2017)
[3] K. Landsman et al., arXiv: 1806.02807 (2018)
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Presenters
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Norbert M. Linke
Joint Quantum Institute, University of Maryland
Authors
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Norbert M. Linke
Joint Quantum Institute, University of Maryland