In a groundbreaking study, a team of Georgia Tech researchers has unveiled a remarkable discovery: the identification of novel bacterial proteins that play a vital role in the formation and stability of methane clathrates, which trap methane gas beneath the seafloor. These newfound proteins not only suppress methane clathrate growth as effectively as toxic chemicals used in drilling but also prove to be eco-friendly and scalable. This innovative breakthrough not only promises to enhance environmental safety in natural gas transportation but also sheds light on the potential for similar biomolecules to support life beyond Earth.
Physicist Claire Berger has been awarded the Chevalier dans L'ordre des Palmes Académiques for her groundbreaking graphene research — and her work on strengthening ties between U.S. and French scientists.
Physicists have developed a new model and clearer picture of molecular movements within active matter — bringing science a step closer to designing specific functions into new materials, and understanding emergent behaviors.
Laura Cadonati, Associate Dean for Research in the College of Sciences and a professor in the School of Physics, will serve as a General Councilor for the American Physical Society, following recent APS elections. Her term will begin January 1, 2024. Cadonati, who is also a member of Georgia Tech's Center for Relativistic Astrophysics, will join other elected members to advise the Society on all matters regarding science and membership, including science policy. "Throughout my research journey in nuclear physics, astrophysics, and gravity, along with my active participation in large scientific collaborations, I have developed an understanding of the interconnectedness and the different traditions in various branches of physics," Cadonati says. "These insights will enable me to represent the wide constituency of APS."
American Physical Society 2023-09-28T00:00:00-04:00
Researchers are exploring how active matter can be harnessed for tasks like designing new materials with tailored properties, understanding the behavior of biological organisms, and even developing new approaches to robotics and autonomous systems. But that’s only possible if scientists learn how the microscopic units making up active matter interact, and whether they can affect these interactions and thereby the collective properties of active matter on the macroscopic scale. School of Physics Professor Roman Grigorievand his research colleagues have found a potential first step by developing a new model of active matter that generated new insight into the physics of the problem. They detail their methods and results in a new study published in Science Advances, “Physically informed data-driven modeling of active nematics.” Lead author of the study is graduate researcher Matthew Golden. Co-authors are graduate researcher Jyothishraj Nambisan and Alberto Fernandez-Nieves, professor in the Department of Condensed Matter Physics at the University of Barcelona and a former associate professor of Physics at Georgia Tech. (This research was also covered in WorldTimeTodays andCityLife.)
There’s no artist more vibrant, spiritual, or creative than Mother Earth. Then, we have mortals like Georgia Tech School of Physics alumni Dylan Diamond, who execute Mother Earth’s designs into functional tools or, in this case, a timepiece: “Moss Clock.” The clock has its own gear train and servo, or motors. The bottom line: this technology is a clock composed of living moss. Diamond had the idea to make a “digitally inspired” clock where moving panels of different colored moss resemble a classic digital clock display. "My physics degree helped, but I firmly believe that in the age of information, with public access to so many free tutorials and teachers online, anyone can do something like this," Diamond said.