Large data sets require software specifically written to increase precision. Christian Bauer develops that software for new physics discoveries.
Producing lead selenide quantum dot films by atomic layer deposition is paving the way to new applications in nanoscale materials.
Virginia Tech’s Patrick Huber is modeling reactor neutrino fluxes, improving our understanding of neutrino properties and their role in the cosmos.
“Electric bacteria” pass electrons through cell walls to solid minerals outside the cell. El-Naggar studies how and why this amazing process happens.
Perumalla’s work on reversible computing is overcoming challenges in exascale computing.
At the Center for Nanophase Materials Sciences, Director Karren More leads her team in pushing the known edge of nanomaterials research.
When nuclear scientists use different techniques to measure the neutron lifetime, they get different results. Could this be pointing to new physics?
University of Nebraska-Lincoln’s Martin Centurion is capturing images of molecules in real time, on a timescale of less than a trillionth of a second.
Studying microorganisms from extreme environments is leading to new, multi-disciplinary approaches towards understanding microbial symbiosis.
Over the course of two decades, Chris Polly has been investigating the difference between measurement and theory in muons, a fundamental particle.