Towards a robust system for cryogenic multi-species ion trapping

POSTER

Abstract

The increasing complexity of modern trapped ion quantum information processing experiments requires a stable and adaptable system designed for rapid turnaround. We present a robust cryogenic ion trapping apparatus for complex quantum computing experiments. Modular optical systems are integrated on custom-machined baseplates to stabilize and miniaturize the laser system. Light delivery is enabled by chamber-referenced optical couplers with parabolic mirrors and photonic crystal fibers for simplified alignment and identical focus of multiple wavelengths on an ion chain. We demonstrate trapping, initial quantum control, and high-fidelity state detection of 88Sr+ and present work towards trapping 133Ba+. These two species have visible and infrared transition wavelengths and a favorable atomic structure for quantum information experiments.

*This work is supported in part by the Army Research Office. Kyle DeBry gratefully acknowledges the support of the Doc Bedard Fellowship from the Laboratory for Physical Sciences

Presenters

  • Felix W Knollmann

    • Massachusetts Institute of Technology
    • MIT, Research Laboratory for Electronics
    • MIT, Department of Physics

Authors

  • Kyle DeBry

    • Massachusetts Institute of Technology
    • MIT, Research Laboratory for Electronics
    • Ohio State Univ - Columbus
  • Felix W Knollmann

    • Massachusetts Institute of Technology
    • MIT, Research Laboratory for Electronics
    • MIT, Department of Physics
  • Trevor J McCourt

    • University of Waterloo
  • Xiaoyang Shi

    • Massachusetts Institute of Technology
    • MIT, Research Laboratory for Electronics
    • University of California, Santa Barbara
  • Jules M Stuart

    • Massachusetts Institute of Technology
    • MIT, Research Laboratory for Electronics; MIT Lincoln Laboratory
    • Massachusetts Institute of Technology MIT
  • Susanna Todaro

    • Massachusetts Institute of Technology
    • MIT, Research Laboratory for Electronics
    • Massachusetts Institute of Technology MI
    • University of Colorado Boulder; National Institute of Standards and Technology Boulder
  • Jasmine Sinanan-Singh

    • Massachusetts Institute of Technology
    • MIT, Research Laboratory for Electronics
    • MIT, Department of Physics
  • Gabriel Mintzer

    • Massachusetts Institute of Technology
    • MIT, Research Laboratory for Electronics
    • MIT
  • Colin D Bruzewicz

    • MIT Lincoln Lab
    • MIT Lincoln Laboratory
  • Jeremy Sage

    • IonQ
    • Massachusetts Institute of Technology MIT
  • John Chiaverini

    • MIT Lincoln Lab
    • MIT Lincoln Laboratory, Massachusetts Institute of Technology
    • MIT, Research Laboratory for Electronics; MIT Lincoln Laboratory
  • Isaac Chuang

    • Massachusetts Institute of Technology
    • MIT, Research Laboratory for Electronics
    • MIT