Engage in both independent and collaborative research in the field of Atomic, Molecular, and Optical (AMO) physics, focusing on quantum information applications.
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Develop scalable architectures for neutral-atom Quantum Processing Units (QPUs) with cavity Quantum Electrodynamics (QED) atom-light interfaces, towards distributed quantum computing and quantum communications. This involves close collaboration with NanoQT’s FTQC/Quantum Information team (including high-rate QEC specialists).
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Develop and/or optimize protocols for fast and high-fidelity neutral-atom qubit operations, both in free space and in optical cavities.
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Propose novel applications of neutral atom and cavity QED systems for quantum communications, quantum sensing, analog quantum simulations, and other emerging quantum technologies.
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Publish results in peer-reviewed academic journals.
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Contribute to the design and optimization of nanofiber cavity QED and free-space neutral atom hardware, working closely with NanoQT’s hardware team (cold-atom and cavity QED experimentalists).
Qualifications
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Must have PhD before commencing the role.
Requirements
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Demonstrated expertise in theoretical research, particularly focused on Atomic, Molecular, and Optical (AMO) systems for quantum information applications, substantiated by publication history.
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Strong programming and code/data organization skills for efficient and reproducible numerical simulations.
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Proficient in verbal and written English communication (proficiency in Japanese is not mandatory).
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Ability to work cohesively in an interdisciplinary team and adjust to a rapidly evolving environment.
Desired Experience
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In-depth knowledge of cavity QED and/or neutral atoms for quantum information applications.
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Basic knowledge in fault-tolerant quantum computing and quantum communication.
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Leading role in collaborative research projects with experimentalists.