activity
20082021
most citedMagnetic trapping of atomic nitrogen (14^N) and cotrapping of NH (X-triplet-Sigma-)

44 citations · 44 across the 1 of their papers we have counts for

collaborators

5 papers

physics.atom-ph2021

High-performance, compact optical standard

Zachary L. Newman, Vincent Maurice, Connor Fredrick +6

We describe a high-performance, compact optical frequency standard based on a microfabricated Rb vapor cell and a low-noise, external cavity diode laser operating on the Rb two-pho…

physics.atom-ph2019

Universal methods for suppressing the light shift in atomic clocks using power modulation

V. I. Yudin, M. Yu. Basalaev, A. V. Taichenachev +8

We show that the light shift in atomic clocks can be suppressed using time variation of the interrogation field intensity. By measuring the clock output at two intensity levels, er…

physics.optics2018

Photonic integration of an optical atomic clock

Z. L. Newman, V. Maurice, T. E. Drake +19

Laboratory optical atomic clocks achieve remarkable accuracy (now counted to 18 digits or more), opening possibilities to explore fundamental physics and enable new measurements. H…

physics.optics2016

Microresonator Brillouin Laser Stabilization Using a Microfabricated Rubidium Cell

William Loh, Matthew T. Hummon, Holly F. Leopardi +5

We frequency stabilize the output of a miniature stimulated Brillouin scattering (SBS) laser to rubidium atoms in a microfabricated cell to realize a laser system with frequency st…

physics.atom-ph200844 cited

Magnetic trapping of atomic nitrogen (14^N) and cotrapping of NH (X-triplet-Sigma-)

Matthew T. Hummon, Wesley C. Campbell, Hsin-I Lu +3

We observe magnetic trapping of atomic nitrogen (14^N) and cotrapping of ground state imidogen (14^NH, X-triplet-Sigma-). Both are loaded directly from a room temperature beam via…