New Directions in Quantum Simulation with Trapped Atomic Ions
POSTER
Abstract
The high-degree of isolation and controllability in a trapped ion system makes it a natural platform for quantum simulation. We coherently control and manipulate 15-25 171Yb+ ions confined in a three-layer linear rf Paul trap. Using global Raman beams we engineer tunable spin-spin interactions, which are combined with transverse and longitudinal effective magnetic fields to realize a long-range Ising model. We combine this with a site-dependent effective Bz magnetic field from a tightly focused beam, allowing for initialization of arbitrary product states or creation of a programmable site-dependent field. Harnessing these coherent operations and site-resolved detection, we present recent experiments implemented on this trapped-ion quantum simulator, exploring non-equilibrium phases and toy models of high-energy physics phenomena.
*This work is supported by the DARPA Driven and Non-equilibrium Quantum Systems (DRINQS) Program (D18AC00033), NSF Practical Fully-Connected Quantum Computer Program (PHY-1818914), the DOE Basic Energy Sciences: Materials and Chemical Sciences for Quantum Information Science program (DE-SC0019449), the DOE High Energy Physics: Quantum Information Science Enabled Discovery Program (DE-0001893), and the AFOSR MURI on Dissipation Engineering in Open Quantum Systems (FA9550-19-1-0399).
Presenters
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Kate S Collins
- University of Maryland, College Park
- Joint Quantum Institute and Joint Center for Quantum Information and Computer Science, University of Maryland and NIST, College Park, MD 20742 USA
- Joint Quantum Institute, Joint Center for Quantum Information and Computer Science, and Physics Department, University of Maryland, College Park and National Institute of Sta