News: Research

David Awschalom, Liew Family Professor of Molecular Engineering and Professor in the Department of Physics, states that the new Chicago Quantum Exchange partnerships with Boeing, Applied Materials Inc., ColdQuanta Inc., HRL Laboratories LLC, and Quantum Opus LLC "will help both academia and industry leverage each other's knowledge at the leading edge of quantum computing. " 

By shaking electrons with lasers, researchers led by Assoc. Prof. Jonathan Simon were able to create electrons with 'doppelganger' features. Simon's published work could one day help create more powerful computers or virtually "unhackable" quantum communications.

The Chicago Tribune features Asst. Prof. Maureen Coleman's research, which seeks to better understand  what microbes are present in the Great Lakes and what role they play in the environment.

Cosmos Magazine features postdoctoral researcher, Stephanie Olson, who elaborates on what it takes for an exoplanet to be habitable and the possibility of finding a planet more habitable than Earth itself.  

University of Chicago astrophysicist, Irina Zhuravleva, led a study that provides a brand-new glimpse of the small-scale physics of intergalactic plasma. Using NASA’s Chandra X-ray Observatory, scientists took a detailed look at the plasma in a distant galaxy cluster and discovered the flow of plasma is much less viscous than expected and, therefore, turbulence occurs on relatively small scales—an important finding for our numerical models of the largest objects in the universe. 

 

A group of scientists from the University of Chicago has announced a breakthrough method to alter RNA—and instead of using a protein from bacteria, like CRISPR, the new system is built out of parts from the human genome. Announced June 20 in Cell, the discovery could open new pathways for treating diseases or injuries by temporarily altering how the genetic template is carried out in the cell. 

A team of physicists at the University of Chicago has built a quantum system to simulate the physics of Unruh radiation. The breakthrough advances our understanding of these complex physics—and could ultimately help us explain how the largest and smallest phenomena in the universe fit together. 

 In a recent study, Prof. Slater from Geophysical Sciences, along with Samantha Presslee (University of York) and Ross MacPhee (American Museum of Natural History), utilized Paleoproteomics to point out differences between two and three-toed sloths—effectively rewriting sloth classification. 

William Irvine, professor of physics, appears on Physics Girl to explain the process of creating knotted vortices, a phenomenon that occurs with airplanes during takeoff, by accelerating 3D-printed models in water. 

Margaret Gardel, professor of physics at the University of Chicago, led an innovative new study, which for the first time recreates the mechanism of cell division—outside a cell. The experiment published May 21 in the Proceedings of the National Academy of Sciences, helps scientists understand the physics by which cells carry out their everyday activities, and could one day lead to medical breakthroughs, ideas for new kinds of materials or even artificial cells. 

Dam T. Son, University Professor in the Department of Physics, and Michael Levin, Associate Professor in the Department of Physics, have been awarded a Simons Foundation grant as part of the newly established Simons Collaboration on Ultra-Quantum Matter.

Assistant professor in the Department of Geophysical Sciences, Clara Blättler, led a study that recently announced the discovery of the first-ever pockets of seawater dating to the last Ice Age, about 20,000 years ago, tucked inside rock formations in the middle of the Indian Ocean.

Northwestern University became the newest member of the Chicago Quantum Exchange, a growing intellectual hub for the research and development of quantum technology.

Assistant Professor in the Department of the Geophysical Sciences, Maureen Coleman, and microbiologist Sean Crosson use water samples from Lake Michigan to study the genes of model microbes in their natural habitats.

A study by University of Chicago chemists offers a new approach that could significantly cut the time and effort needed to make molecules that are important for pharmaceuticals in half.