Skip to main content
Home
Department Of Physics text logo
  • Research
    • Our research
    • Our research groups
    • Our research in action
    • Research funding support
    • Summer internships for undergraduates
  • Study
    • Undergraduates
    • Postgraduates
  • Engage
    • For alumni
    • For business
    • For schools
    • For the public
Menu
Atomic and Laser Physics
Credit: Jack Hobhouse

Dr Mario Gely

PDRA

Sub department

  • Atomic and Laser Physics

Research groups

  • Ion trap quantum computing
mario.gely@physics.ox.ac.uk
Clarendon Laboratory, room Old Library
  • About
  • Publications

Measuring and controlling radio-frequency quanta with superconducting circuits

(2020)
More details from the publisher
Details from ArXiV

Current detection using a Josephson parametric upconverter

(2020)

Authors:

Felix E Schmidt, Daniel Bothner, Ines C Rodrigues, Mario F Gely, Mark D Jenkins, Gary A Steele
More details from the publisher

QuCAT: quantum circuit analyzer tool in Python

New Journal of Physics IOP Publishing 22:1 (2020) 013025

Authors:

Mario F Gely, Gary A Steele
More details from the publisher
More details
Details from ArXiV

QuCAT: Quantum Circuit Analyzer Tool in Python

(2019)

Authors:

Mario F Gely, Gary A Steele
More details from the publisher

Observation and stabilization of photonic Fock states in a hot radio-frequency resonator.

Science (New York, N.Y.) 363:6431 (2019) 1072-1075

Authors:

Mario F Gely, Marios Kounalakis, Christian Dickel, Jacob Dalle, Rémy Vatré, Brian Baker, Mark D Jenkins, Gary A Steele

Abstract:

Detecting weak radio-frequency electromagnetic fields plays a crucial role in a wide range of fields, from radio astronomy to nuclear magnetic resonance imaging. In quantum optics, the ultimate limit of a weak field is a single photon. Detecting and manipulating single photons at megahertz frequencies presents a challenge because, even at cryogenic temperatures, thermal fluctuations are appreciable. Using a gigahertz superconducting qubit, we observed the quantization of a megahertz radio-frequency resonator, cooled it to the ground state, and stabilized Fock states. Releasing the resonator from our control, we observed its rethermalization with nanosecond resolution. Extending circuit quantum electrodynamics to the megahertz regime, we have enabled the exploration of thermodynamics at the quantum scale and allowed interfacing quantum circuits with megahertz systems such as spin systems or macroscopic mechanical oscillators.
More details from the publisher
More details
More details
Details from ArXiV

Pagination

  • First page First
  • Previous page Prev
  • Page 1
  • Page 2
  • Page 3
  • Page 4
  • Page 5
  • Current page 6
  • Page 7
  • Page 8
  • Page 9
  • Next page Next
  • Last page Last

Footer Menu

  • Contact us
  • Giving to the Dept of Physics
  • Work with us
  • Media

User account menu

  • Log in

Follow us

FIND US

Clarendon Laboratory,

Parks Road,

Oxford,

OX1 3PU

CONTACT US

Tel: +44(0)1865272200

University of Oxfrod logo Department Of Physics text logo
IOP Juno Champion logo Athena Swan Silver Award logo

© University of Oxford - Department of Physics

Cookies | Privacy policy | Accessibility statement

Built by: Versantus

  • Home
  • Research
  • Study
  • Engage
  • Our people
  • News & Comment
  • Events
  • Our facilities & services
  • About us
  • Current students
  • Staff intranet