Eigenstate spectroscopy with cold ion quantum simulation

Bryce Yoshimura, Wesley C. Campbell, James K. Freericks

R. Blatt

P. Zoller

Michał Tomza, Krzysztof Jachymski, R. Gerritsma +4 more

This article presents the microscopic physics governing interactions and dynamical processes between cold atoms and ions, and it reviews how these system can be prepared and combined in experiments. Also discussed are how ultracold ion-atom hybrid systems can be applied to study controlled chemical reactions, to form and explore the spectroscopy of cold molecular ions, and to implement quantum simulations of many-body phenomena.

Jordi Mur-Petit

Experimental advances in the production of cold molecules in the last years have triggered a flurry of theoretical work in fields as diverse as precision spectroscopy, controlled chemistry, fundamental physics, or quantum computation and simulation [1,2]. Progress on these lines naturally demands an increasing level of precision in the measurement and control of molecular states and properties. In this talk, I will present two of our recent contributions to this end. First, I will review some ideas and tools of cold atomic physics and quantum information that underlie our work. Then, I will introduce a quantum spectroscopy protocol for molecular ions based on their interaction with trapped atomic ions and phase gates [3]. After this, I will show how these ideas can be generalized to enable the measurement of a polar molecule's electric dipole moment [4]. Finally, I will discuss some of our ongoing work to use cold polar molecules for quantum simulation and quantum metrology.

Ana María Rey