Rice scientists along with collaborators at Durham University prolonged quantum behavior in an experimental system nearly 30-fold by using ultracold temperatures and special laser wavelengths to generate a “magic trap” that delays the onset of quantum decoherence.
An international audience of more than three dozen quantum researchers, including Rice’s Pengcheng Dai, Randall Hulet, Douglas Natelson, Han Pu, Ming Yi and Boris Yakobson, attended the Vannevar Bush Faculty Fellowship Symposium on Extreme Quantum Materials at Rice Nov. 9.
Rice experiments have provided the first direct evidence that electricity seems to flow through “strange metals” in an unusual liquid-like form. The first “shot noise” experiments on a strange metal from the Vienna University of Technology (TU Wien) are detailed this week in Science by physicists from both universities.
Naomi Halas, a pioneering researcher in the fields of nanophotonics and plasmonics at Rice University, has been awarded the 2024 Mildred Dresselhaus Prize for Nanoscience/Nanomaterials from the American Physical Society.
An interdisciplinary team of Rice University scientists has won a $1.9 million National Science Foundation grant for research on materials that could serve as the basis for next-generation energy-efficient computing devices.
Rice alumnus Louis Brus (’65) has been awarded the Nobel Prize in Chemistry alongside Moungi Bawendi and Alexei Ekimov for the “discovery and development of quantum dots.”
Rice graduate students Aindrila Pal and Gregory Szypko have won NASA FINESST Awards, merit-based future investigator awards that include three-year grants to conduct research in Earth and space sciences.
A team of Rice University researchers have won a 4-year, $1.2 million grant from the Department of Energy to evaluate the strengths and limitations of different physical systems used to build quantum computers and inform strategies for achieving near-term advances in quantum computing.
In a potential boon for quantum computing, Rice physicists have shown that topologically protected quantum states can be entangled with other, highly manipulable quantum states in some electronic materials.