Superconducting Mm-wave Photonic Crystal Cavities for Rydberg Cavity Quantum Electrodynamics.

ORAL

Abstract

I will describe progress towards a hybrid experimental system for engineering strong interactions between single optical and mm-wave photons using Rydberg atoms as an interface. Entanglement between photons with 100 gigahertz and optical frequencies creates a new platform to access exotic photonic quantum states as well as powerful new techniques in quantum computing and simulation at 1K. I will present recent experimental developments including trapping and cooling atoms in a cryogenic Magneto Optical Trap, measuring high-Q superconducting cavities at 100 GHz and coupling atoms to an optical cavity inside our custom designed and home-made cryostat. I will discuss in detail our use of photonic crystals as a new design for fabricated 100-gigahertz superconducting resonators.

*I would like to thank MRSEC for funding our project and my fellowship.

Presenters

  • Aziza Suleymanzade

    • Physics, Univ of Chicago

Authors

  • Aziza Suleymanzade

    • Physics, Univ of Chicago
  • Mark Stone

    • Physics, Univ of Chicago
  • Joshua Wakefield

    • Physics, Univ of Chicago
  • Jonathan Simon

    • Physics, Univ of Chicago
    • University of Chciago
    • Physics, University of Chicago
  • David Schuster

    • Univ of Chicago
    • Physics, Univ of Chicago
    • James Franck Institute and Department of Physics, University of Chicago
    • University of Chciago
    • Physics, University of Chicago
    • Institute for Molecular Engineering, University of Chicago
    • University of Chicago
    • James Franck Institute, University of Chicago