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Alexandra (Aly) Artusio-Glimpse (Fed)

Alexandra Artusio-Glimpse, or Aly, has been with the National Institute of Standards and Technology (NIST) since 2016, when she started as an NRC Postdoctoral Fellow developing high-power laser power sensors (smart mirror and HALO) that use radiation pressure for improved measurement precision. She subsequently moved to the RF Technology Division, where she works to advance the use of Rydberg atoms for sensing and SI-traceable measurement of radio frequency electric fields. This work received both the 2022 Department of Commerce Gold Medal Award and the 2022 Ron Brown Excellence in Innovation Award. More recently, Aly joined an effort to develop quantum-enabled transducers to support optically connected superconducting qubit nodes for future quantum computing networks. Her research interests span radiation pressure-based micromanipulation, spaceflight applications, atom-optical physics, RF communications, radiometry, cavity optomechanics, and microfabrication of micro-electro-opto-mechanical-systems.

Aly received her Ph.D. in Imaging Science from the Rochester Institute of Technology in 2016 and received the university's Outstanding Dissertation Award in 2017. She has been actively involved in several affiliate and advocacy groups supporting the needs of early-career researchers and women in STEM. She has also served in various roles within professional societies such as Optica and IEEE, including conference organizing committees and IEEE standards development activities.

Publications

Determining angle of arrival of radio frequency fields using subwavelength, amplitude-only measurements of standing waves in a Rydberg atom sensor

Author(s)
Rajavardhan Talashila, William Watterson, Benjamin Moser, Joshua Gordon, Alexandra Artusio-Glimpse, Nikunjkumar Prajapati, Noah Schlossberger, Matthew Simons, Christopher Holloway
Deep subwavelength RF imaging with atomic Rydberg sensors has overcome fundamental limitations of traditional antennas and enabled ultra-wideband detection of...

Data and Software Publications

Dataset in support of publication : Sensitivity Comparison of Rydberg Atom-Based Radio-Frequency Electric Field Detection: Ionization Current Versus Optical Readout

Author(s)
Dangka Shylla, Rajavardhan Talashila, Alexandra Artusio-Glimpse, Adil Meraki, Dixith Manchaiah, Noah Schlossberger, Samuel Berweger, Matthew T. Simons, Christopher L. Holloway, Nikunjkumar Prajapati
We investigate a technique for detecting radio-frequency (RF) electric fields in a Cesium (Cs) vapor cell at room temperature by collecting charge from ionized Rydberg atoms and compare its

Patents (2018-Present)

Cell design showing both cell walls and windows made of non-conducting glass. A thin layer of polysilicon deposited on the glass is used for bonding the cell closed.

Atomic Vapor Cell And Making An Atomic Vapor Cell

NIST Inventors
Christopher L. Holloway , Alexandra (Aly) Artusio-Glimpse , Vladimir Aksyuk and Matt Simons
A new method for fabricating cells at the wafer level that minimizes the amount of silicon. Instead of fabricating the frame onto which glass is bonded out of silicon, we start with a glass wafer, in which holes have been etched or abrasively machined. A thin layer of polysilicon is deposited onto
A disk-shaped device is smaller than the half-dollar coin underneath it.

Smart Mirror

NIST Inventors
Alexandra (Aly) Artusio-Glimpse , John H. Lehman , Michelle Stephens , Nathan A Tomlin and Paul A. Williams
The Smart Mirror is a device that accurately measures the power of laser sources without disturbing the laser beam. This is a promising technology for accurate monitoring of output power in industrial lasers that allows power measurement during the laser’s performance of its routine operations. Such
Created October 23, 2018, Updated September 15, 2026
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