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Postdoc position on Quantum Computing with trapped Rydberg ion

Stockholm University

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The Trapped Ion Quantum Technology group at Stockholm University invites applications for a postdoctoral position on our trapped Rydberg ion experiments. The postdoc will work on a room-temperature experimental setup to investigate Rydberg physics and perform quantum gates in longer ion strings. Trapped Rydberg ions are a new system for quantum computation. By laser pulses the ions’ outermost electron is excited to a high-lying Rydberg orbital [1]. Such Rydberg ions are million times bigger than ions in the ground state, and due to their size obtain very peculiar properties. Trapped ions can be entangled via a strong Rydberg interaction in less than a microsecond [2]. This method supports fast entangling gates in large ions crystals, thus enabling a fast trapped ion quantum computer or quantum simulator. For more information please visit our group website and/or contact Assoc. Prof. Markus Hennrich, markus.hennrich@fysik.su.se. Literature: [1] Higgins, et al., Coherent control of a single trapped Rydberg ion, Physical Review Letters 119 (22), 220501 (2017). [2] Zhang, et al., Submicrosecond entangling gate between trapped ions via Rydberg interaction, Nature 580, 345 (2020).

How to apply

Please apply here: https://www.su.se/english/about-the-university/work-at-su/available-jobs?rmpage=job&rmjob=20647&rmlang=UK

Stockholm University

Albanova University Center
SE – 106 9 Stockholm, Sweden

Postdoc position on Quantum Computing with trapped Rydberg ion
The Trapped Ion Quantum Technology group at Stockholm University invites applications for a postdoctoral position on our trapped Rydberg ion experiments. The postdoc will work on a room-temperature experimental setup to investigate Rydberg physics and perform quantum gates in longer ion strings. Trapped Rydberg ions are a new system for quantum computation. By laser pulses the ions’ outermost electron is excited to a high-lying Rydberg orbital [1]. Such Rydberg ions are million times bigger than ions in the ground state, and due to their size obtain very peculiar properties. Trapped ions can be entangled via a strong Rydberg interaction in less than a microsecond [2]. This method supports fast entangling gates in large ions crystals, thus enabling a fast trapped ion quantum computer or quantum simulator. For more information please visit our group website and/or contact Assoc. Prof. Markus Hennrich, markus.hennrich@fysik.su.se. Literature: [1] Higgins, et al., Coherent control of a single trapped Rydberg ion, Physical Review Letters 119 (22), 220501 (2017). [2] Zhang, et al., Submicrosecond entangling gate between trapped ions via Rydberg interaction, Nature 580, 345 (2020).
2023-03-31
Stockholm University
https://qtech.fysik.su.se
Albanova University Center
Stockholm
SE – 106 9
SE
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