To request a media interview, please reach out to School of Physics experts using our faculty directory, or contact Jess Hunt-Ralston, College of Sciences communications director. A list of faculty experts and research areas across the College of Sciences at Georgia Tech is also available to journalists upon request.
Expensive military hardware, like a new tank undergoes rigorous testing before heading to the battlefield. A startup called Istari, backed by Eric Schmidt, the former CEO of Google and chair of Alphabet, reckons some of that work can be done more effectively in the metaverse. Ishtari uses machine learning to virtually assemble and test war machines from computer models of individual components, such as the chassis and engines, that are usually marooned on separate digital drawing boards. Will Roper, B.S. and M.S. PHYS, and a former assistant secretary of the Air Force, is founder and CEO of Ishtari.
Wired 2023-02-13T00:00:00-05:00Just like fashioning decorative shapes and figures using the Japanese art of folding paper, tracing when and where origami originated is complicated. But what cannot be disputed is its incredible influence in modern engineering. While styles of origami can be incredibly diverse, the art is rooted in mathematical principles that make it applicable to science and industry. This story in E&T mentions scientists at Georgia Tech exploring origami, kirigami (where paper is cut as well as folded) and specific folding techniques for building everything from furniture to bridges. One of those scientists is D. Zeb Rocklin, assistant professor in the School of Physics.
How origami inspires world-changing technology 2023-02-13T00:00:00-05:00Astrobites, a daily astrophysical literature journal written by graduate students in astronomy since 2010, features a guest column written by two Ph.D. students extolling the virtues of community college. One of the authors is School of Physics alumna Kiersten Boley, B.S PHYS 2019, now seeking a Ph.D. in astronomy from Ohio State University. Boley writes that she didn't want to become a physicist until she attended community college, where her professor in introductory physics "sparked my love of science." Boley credits that with helping her thrive at Georgia Tech.
Breaking the Stigma around Community College 2023-02-12T00:00:00-05:00A pressing quest in the field of nanoelectronics is the search for a material that could replace silicon. Graphene has seemed promising for decades. But, its potential faltered along the way, due to damaging processing methods and the lack of a new electronics paradigm to embrace it. With silicon nearly maxed out in its ability to accommodate faster computing, the next big nanoelectronics platform is needed now more than ever. Walter de Heer, Regents’ Professor in the School of Physics at the Georgia Institute of Technology, has taken a critical step forward in making the case for a successor to silicon. De Heer and his collaborators, including Claire Berger, fellow School of Physics professor, developed a new nanoelectronics platform based on graphene — a single sheet of carbon atoms.
Making the case for a successor to silicon 2023-02-02T00:00:00-05:00Comet Lulin, a rare green comet discovered in 2007, is set to make its closest approach to the Earth around Feb. 24. The comet's green color comes from the gases that make up its atmosphere. Its closest approach to Earth will be 38 million miles. James Sowell, principal academic professional in the School of Physics and director of the Georgia Tech Observatory, joins Atlanta News First to talk about the best times to view the comet, where it may have originated, and how rare green comets are in the universe.
Green comet will pass by Earth this month 2023-02-01T00:00:00-05:00Elisabetta Matsumoto, an associate professor in the School of Physics, will present “Knotty Knits: A Chat about Math and Crafts” beginning at 3 p.m. March 3, at Southern Illinois University's Guyon Auditorium. Matsumoto, whose research interests include soft condensed matter physics and the geometry of materials, uses knitting to illustrate the math and mechanics within the craft, and how studying the physics of knitting could lead to applications such as wearable electronics.
SIU’s Tenney lecture to focus on interdisciplinary teaching of math, art and science 2023-01-27T00:00:00-05:00Pushing a shovel through snow, planting an umbrella on the beach, wading through a ball pit, and driving over gravel all have one thing in common: They all are exercises in intrusion, with an intruding object exerting some force to move through a soft and granular material. Predicting what it takes to push through sand, gravel, or other soft media can help engineers drive a rover over Martian soil, anchor a ship in rough seas, and walk a robot through sand and mud. But modeling the forces involved in such processes is a huge computational challenge that often takes days to weeks to solve. Now, engineers at the Massachusette Institute of Technology and Georgia Tech have found a faster and simpler way to model intrusion through any soft, flowable material. Daniel Goldman, Dunn Family Professor in the School of Physics, joined MIT researchers for this project.
How to push, wiggle, or drill an object through granular material 2023-01-19T00:00:00-05:00This roundup of news items includes a report updating research on graphene, a possible successor to silicon as the foundation for all electronics, from Walter de Heer, Regent's Professor in the School of Physics. De Heer's latest advance involves developing a new nanoelectronics platform based on graphene. The technology is compatible with conventional microelectronics manufacturing, a necessity for any viable alternative to silicon. In the course of its research, de Heer's team may have also discovered a new quasiparticle. Their discovery could lead to manufacturing smaller, faster, more efficient, and more sustainable computer chips, and has potential implications for quantum and high-performance computing.
Around the Web: Marketing Muster. Creating Crayons. Joe’s Journalism. Going Graphene. Feather Photography. Car Colors. Checking Chuckling. Fish Fiasco. 2023-01-06T00:00:00-05:00Skipping a stone across water requires skill and patience and, of course, a great stone. Personal preference may send you to a flat, light one, which seems to skip easier. But scientists have found that is not the only way to get impressive leaps. A recent University of Bristol study researched how shape and mass affect the way objects interact with water. And it found that a heavier rock with a good curve — imagine the shape of a mango but smaller — can get an impressive bounce. David Hu, a professor with the School of Biological Sciences and the George W. Woodruff School of Mechanical Engineering, and an adjunct professor in the School of Physics, did not take part in the study but comments on how surprised he was that the Bristol scientists studied curved objects.
Heavier, curvy stones can give surprising results in skipping, physicists say 2023-01-05T00:00:00-05:00Is science better when it disrupts or when there are just incremental improvements to previous knowledge? The topic was analyzed in a recent study, and it seems that researchers have spent these past years improving things rather than trying to revolutionize everything. The study suggests that the level of "disruptiveness" in scientific research has gone way down in the 2000s compared to the last half-century. Yian Yin, a computational social scientist at Northwestern University in Evanston, Illinois, highlights how disruptiveness is not inherently good, and incremental science is not necessarily bad. Yin cites the first direct observation of gravitational waves, a landmark discovery that was both revolutionary and the product of incremental science. Georgia Tech researchers, many from the School of Physics, worked with researchers at the Laser Interferomoter Gravitational Wave Observatory (LIGO) on the gravitational wave observations. (This coverage also appeared in Nature and Inside Higher Education.)
Science isn't as disruptive as it used to be. Now we need to understand why 2023-01-05T00:00:00-05:00Henry Segerman, a British American mathematician and mathematical artist at Oklahoma State University, has invented a puzzle to help explain the Earth's annual trip around the sun: Continental Drift, a 3-D sliding puzzle that made its debut earlier this year. The underlying geometric concept is holonomy: When you travel a loop on a curved surface and return to the starting point, you arrive somewhat turned around, rotated, perhaps by 180 degrees. It's just one of Segerman's inventions that help visualize mathematics. A few years ago, Dr. Segerman demonstrated Extensors: a construction kit for making extending mechanisms from scissor-like hinged parts. Sabetta Matsumoto, an associate professor in the School of Physics, applied mathematician, and Dr. Segerman’s partner, gave input into the contraption’s development and came up with the name Extensor. Between them, math is “a pretty common conversation,” said Matsumoto, who was featured in a 2019 New York Times story about her project to investigate the mathematics and mechanics of knitting. (This story also appears in Yahoo! News.)
A New Puzzle Turns Earth Into a Rubik’s Cube, but More Complex 2023-01-01T00:00:00-05:00In this episode of the Talk Nerdy podcast, host Cara Santa Maria is joined by Feryal Özel, professor and chair of the School of Physics. They talk about her incredible career as a theoretical astrophysicist, her important work on the recent imaging of a black hole with the Event Horizon Telescope (EHT) Collaboration, and the critical need for representation in science.
Black Hole Astrophysics w/ Feryal Özel 2022-12-19T00:00:00-05:00- ‹ previous
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Events
School of Physics Fall Colloquium Series- Dr. Nikta Fakhri
Nikta Fakhri(MIT) Broken Symmetries in Living Matter
Special CRA Seminar | Prof. Paola Arias Reyes | San Sebastián | Host: Prof. John Wise
Special CRA Seminar | Prof. Paola Arias Reyes | San Sebastián | Host: Prof. John Wise
Fossil Friday
Join the Spatial Ecology and Paleontology Lab for Fossil Fridays! Become a fossil hunter and help discover how vertebrate communities have changed through time.
2025 College of Sciences Homecoming Tailgate
Celebrate Georgia Tech Homecoming 2025 and cheer on the Yellow Jackets with the College of Sciences.
School of Physics Fall Colloquium Series-Dr. Qimiao Si
Qimiao Si (Rice University) Quantum phases driven by strong correlations and topology
Observatory Public Night
On the grounds between the Howey and Mason Buildings, several telescopes are typically set up for viewing, and visitors are also invited to bring their own telescope.
Experts in the News
In an article published in Physics Magazine, School of Physics Ph.D. student Jingcheng Zhou and Assistant Professor Chunhui (Rita) Du review efforts to optimize diamond-based quantum sensing. According to Zhou and Du, the approach used in two recent studies broadens the potential applications of nitrogen-vacancy center sensors for probing quantum phenomena, enabling measurements of nonlocal properties (such as spatial and temporal correlations) that are relevant to condensed-matter physics and materials science.
Physics Magazine 2025-07-14T00:00:00-04:00Researchers at the Georgia Institute of Technology and India's National Center for Biological Sciences have found that yeast clusters, when grown beyond a certain size, spontaneously generate fluid flows powerful enough to ferry nutrients deep into their interior.
In the study, "Metabolically driven flows enable exponential growth in macroscopic multicellular yeast," published in Science Advances, the research team — which included Georgia Tech Ph.D. scholar Emma Bingham, Research Scientist G. Ozan Bozdag, Associate Professor William C. Ratcliff, and Associate Professor Peter Yunker — used experimental evolution to determine whether non-genetic physical processes can enable nutrient transport in multicellular yeast lacking evolved transport adaptations.
A similar story also appeared at The Hindu.
Phys.org 2025-06-24T00:00:00-04:00Other planets, dwarf planets and moons in our solar system have seasonal cycles — and they can look wildly different from the ones we experience on Earth, experts told Live Science.
To understand how other planets have seasons, we can look at what drives seasonal changes on our planet. "The Earth has its four seasons because of the spin axis tilt," Gongjie Li, associate professor in the School of Physics, told Live Science. This means that our planet rotates at a slight angle of around 23.5 degrees.
"On Earth, we're very lucky, this spin axis is quite stable," Li said. Due to this, we've had relatively stable seasonal cycles that have persisted for millennia, although the broader climate sometimes shifts as the entire orbit of Earth drifts further or closer from the sun.
Such stability has likely helped life as we know it develop here, Li said. Scientists like her are now studying planetary conditions and seasonal changes on exoplanets to see whether life could exist in faroff worlds. For now, it seems as though the mild seasonal changes and stable spin tilts on Earth are unique.
Live Science 2025-05-05T00:00:00-04:00Biofilms have emergent properties: traits that appear only when a system of individual items interacts. It was this emergence that attracted School of Physics Associate Professor Peter Yunker to the microbial structures. Trained in soft matter physics — the study of materials that can be structurally altered — he is interested in understanding how the interactions between individual bacteria result in the higher-order structure of a biofilm
Recently, in his lab at the Georgia Institute of Technology, Yunker and his team created detailed topographical maps of the three-dimensional surface of a growing biofilm. These measurements allowed them to study how a biofilm’s shape emerges from millions of infinitesimal interactions among component bacteria and their environment. In 2024 in Nature Physics, they described the biophysical laws that control the complex aggregation of bacterial cells.
The work is important, Yunker said, not only because it can help explain the staggering diversity of one of the planet’s most common life forms, but also because it may evoke life’s first, hesitant steps toward multicellularity.
Quanta Magazine 2025-04-21T00:00:00-04:00Postdoctoral researcher Aniruddha Bhattacharya and School of Physics Professor Chandra Raman have introduced a novel way to generate entanglement between photons – an essential step in building scalable quantum computers that use photons as quantum bits (qubits). Their research, published in Physical Review Letters, leverages a mathematical concept called non-Abelian quantum holonomy to entangle photons in a deterministic way without relying on strong nonlinear interactions or irrevocably probabilistic quantum measurements.
Physics World 2025-04-09T00:00:00-04:00Peter Yunker, associate professor in the School of Physics, reflects on the results of new experiments which show that cells pack in increasingly well-ordered patterns as the relative sizes of their nuclei grow.
“This research is a beautiful example of how the physics of packing is so important in biological systems,” states Yunker. He says the researchers introduce the idea that cell packing can be controlled by the relative size of the nucleus, which “is an accessible control parameter that may play important roles during development and could be used in bioengineering.”
Physics Magazine 2025-03-21T00:00:00-04:00
