Researchers in the Theoretical Condensed Matter Physics group of Professor Boldizsár Jankó and collaborators have solved a decades-old mystery of fluorescence intermittency – blinking – that indicates classical physics behavior in a quantum mechanical system.
Last summer (2016), two high school student interns in the lab of Matthew Leevy were tasked with finding a “cool” specimen on which to practice and learn CT scanning. Their idea: gather flowers near Touchdown Jesus and Notre Dame Stadium and scan them back at the lab.
A collaboration between Jon Camden, an associate professor in the Department of Chemistry and Biochemistry, David Masiello of the University of Washington, and Philip Rack of the University of Tennessee has directly observed hybridized magnetic resonances in plasmonic nanostructures for the first time. The achievement is a critical step toward developing materials that interact with light in unexpected ways and that may someday cloak military equipment throughout the visible spectrum or underlie future PV technology optimized to capture energy from the sun’s infrared rays.
Collaborative research at the University of Notre Dame has demonstrated that electronic interactions play a significant role in the dimensional crossover of semiconductor nanomaterials. The laboratory of Masaru Kuno, professor of chemistry and biochemistry, and the condensed matter theory group of Boldizsár Jankó, professor of physics, have now shown that a critical length scale marks the transition between a zero-dimensional, quantum dot and a one-dimensional nanowire.
Paul W. Bohn, the Arthur J. Schmitt Professor of Chemical and Biomolecular Engineering and concurrent professor of chemistry and biochemistry, has been appointed to the editorship of Annual Reviews of Analytical Chemistry, the most highly cited publication in the field.