Engineering non-linear resonator mode interactions in circuit QED by continuous driving: Introduction

ORAL

Abstract

High-Q microwave resonators show great promise for storing and manipulating quantum states in circuit QED. Using resonator modes as such a resource in quantum information processing applications requires the ability to manipulate the state of a resonator efficiently. Further, one must engineer appropriate coupling channels without spoiling the coherence properties of the resonator. We present an architecture that combines millisecond lifetimes for photonic quantum states stored in a linear resonator with fast measurement provided by a low-Q readout resonator. We demonstrate experimentally how a continuous drive on a transmon can be utilized to generate highly non-classical photonic states inside the high-Q resonator via effective nonlinear resonator mode interactions. Our approach opens new avenues for using modes of long-lived linear resonators in the circuit QED platform for quantum information processing tasks.

Authors

  • Wolfgang Pfaff

    • Departments of Applied Physics and Physics, Yale University
    • Yale Univ
  • Matthew Reagor

    • Departments of Applied Physics and Physics, Yale University
    • Yale Univ
  • Reinier W. Heeres

    • Yale University
    • Yale Univ
    • Departments of Applied Physics and Physics, Yale University
  • Nissim Ofek

    • Yale University
    • Departments of Applied Physics and Physics, Yale University
    • Yale Univ
  • Kevin Chou

    • Departments of Applied Physics and Physics, Yale University
    • Yale Univ
  • Jacob Blumoff

    • Departments of Applied Physics and Physics, Yale University
    • Yale Univ
  • Z. Leghtas

    • Department of Applied Physics, Yale University
    • Yale University
    • Departments of Applied Physics and Physics, Yale University
    • Yale Univ
  • Steven Touzard

    • Departments of Applied Physics and Physics, Yale University
    • Yale Univ
  • K.M. Sliwa

    • Yale University
    • Departments of Applied Physics and Physics, Yale University
    • Yale Univ
    • Department of Applied Physics, Yale University
  • Eric Holland

    • Departments of Applied Physics and Physics, Yale University
    • Yale Univ
    • Yale University
  • Stefan I. Krastanov

    • Yale Univ
    • Yale University
  • L. Frunzio

    • Yale University
    • Yale Univ
    • Departments of Applied Physics and Physics, Yale University
    • Department of Applied Physics, Yale University
  • M.H. Devoret

    • Yale University
    • Yale Univ
    • Department of Applied Physics, Yale University
    • Departments of Applied Physics and Physics, Yale University
  • Liang Jiang

    • Yale University
    • Departments of Applied Physics and Physics, Yale University
    • Yale Univ
    • Department of Applied Physics, Yale University, USA
    • Department of Applied Physics, Yale University
  • Robert Schoelkopf

    • Yale University
    • Yale Univ
    • Departments of Applied Physics and Physics, Yale University
    • Department of Applied Physics, Yale University