Skip to main content

Jordan Stone

NIST Research Scientist

Research Scientist
Profile photo of Jordan Stone

Contact Information

National Institute of Standards and Technology

Email:
jordan.stone@nist.gov
Lab:
NIST 216/E108

Additional Info

About

Jordan is a NIST research scientist working on the metrology of nonlinear nanophotonics devices.

 

Research Areas: 

  • Integrated photonics design/fab/test
  • Nonlinear nanophotonics

Research Groups

Recent Publications

Recent News

  • Illustration of the nanophotonic spectral translation of an electro-optic frequency comb

    A new approach to spectroscopy of quantum systems using nonlinear integrated photonics

    December 20, 2024

    We demonstrate that nanophotonic spectral translation of electro-optic frequency combs is a versatile and compelling approach for addressing high-resolution spectroscopy needs in quantum science and technology.

  • Optical parametric oscillation device with an underlying thermo-optic heater (top) and OPO devices generating colors across the green gap (bottom).

    New results on chip-scale lasers based on nonlinear integrated photonics

    September 30, 2024

    In two new papers, we describe how to increase the continuous tuning range of chip-integrated optical parametric oscillators (OPOs) and we demonstrate dense coverage of the so-called 'green gap' spectral region using such OPOs.

  • A green line branches into a blue, a green and a red line inside of a flat ring.

    Do the Bump: NIST Scientists Perfect Miniaturized Technique to Generate Precise Wavelengths of Visible Laser Light

    December 4, 2023

    In research, sometimes the bumpy path proves to be the best one. By creating tiny, periodic bumps in a miniature racetrack for light, researchers at the NIST and JQI have converted near-infrared laser light into specific desired wavelengths of visible light with high accuracy and efficiency. The technique has potential applications in precision timekeeping and quantum information science, which require highly specific wavelengths of visible laser light that cannot always be achieved with diode lasers (devices akin to LED lights) to drive atomic or solid-state systems.