Hanagud joined the faculty of the Daniel Guggenheim School of Aerospace Engineering at the Georgia Institute of Technology in 1970. Prior to his Georgia Tech appointment, he worked at the Stanford Research Institute (now SRI International) as a research scientist from 1963 to 1970. In 1967, he, along with other Stanford professors and a colleague, founded the company Failure Analysis Associates now located in Menlo Park, California. The company helped form two acoustic emission technology firms. His research fields include structures, materials, structural dynamics, aeroelasticity and areas of design associated with these fields. Currently he is working in the areas of smart structures based vibration control, biomechanics, induced strain actuators, health monitoring of structures, active aeroelastic control and beneficial modifications of the musical instruments to improve their structural dynamic and acoustic response. Hanagud has published more than 170 technical papers, has advised and directed Ph.D. thesis of 25 graduate students and has advised 38 M.S. degree students. He has given numerous seminars/lectures at various universities, industries and different professional conferences around the world. Recently, his research work on the 'development of a smart acoustic guitar' was cited in many newspapers and news magazines around the world including a feature article in the Wall Street Journal and in a publication of the New York Academy of Sciences.

A 2019 inductee to the National Academy of Engineering, Ahuja has more than 35 years of research and development experience in aircraft noise research, acoustics facilities design, flow control, state-of-the-art instrumentation, and advanced signal processing. During his employment of 13 years at Lockheed Georgia Company in various capacities, including the head of the Aeroacoustics Research and acting manager of the Advanced Flight Sciences Department, he was the principal investigator and/or the program manager on several successfully completed projects funded by Lockheed, the U. S. Air Force and NASA. He joined the faculty of Georgia Institute of Technology as a Senior Faculty Research Leader in March 1989. He recently served in the capacity of the director of Georgia Tech Ireland. Ahuja is a former associate editor of the AIAA Journal and also a former Chairman of the AIAA Aeroacoustics Technical Committee. Ahuja has authored or co-authored over 180 technical articles or reports on a range of topics including acoustic shielding, fan noise, active flow control, flow/acoustic interactions, jet noise, cavity noise, automobile noise, sonic boom research, psychoacoustics, high-temperature fiber optics strain gauges, acoustic transducers, active noise control, tilt rotor noise, source separation, acoustic fatigue, duct acoustics, computational aeroacoustics, innovative flow visualization techniques, tornado signatures, rapid charging of batteries and others. The international media, including CNN and Beyond 2000, has covered his work.

My areas of interest include theoretical condensed matter and ultra-cold atomic and molecular physics. I strongly encourage my students to be broad, deep and creative. Breadth of knowledge is very important in today's physics job market, as is expert (deep) knowledge in a particular area. But most of all the development of new directions, never explored before is the dominant component of my research. Most of my interests are in many body aspects of condensed matter systems (superconductors, quantum magnets, and semiconductors) and atomic/molecular systems (ultra-cold atoms and molecules).

Uzi Landman is an Israeli/American computational physicist, the Fuller E. Callaway Professor of Computational Materials Science at the Georgia Institute of Technology. 

He earned a B.Sc. in chemistry at the Hebrew University, Jerusalem in 1965, an M.Sc. in chemistry from the Weizmann Institute in 1966 and a D.Sc. from the Israel Institute of Technology in 1969. His research interests included surface and materials science, solid state physics and nanoscience. 

He joined the faculty of Georgia Tech in 1977 as an associate professor of physics and made professor in 1979, In 1988 he was promoted to regents professor of physics, a title he still holds. In 1992 he became director of the Center for Computational Materials science, at Georgia and in 1995 appointed Fuller E. Callaway endowed Chair in Computational Materials Science.  

In 1989, he was elected a Fellow of the American Physical Society "for applications of numerical simulation modeling of both the status structure and nonequilibrium dynamics of solid surfaces, interfaces, and small clusters."  In 2000, he was awarded the Feynman Prize in Nanotechnology by the Foresight Institute. 

He received the 2005 Aneesur Rahman Prize for Computational Physics, which is the highest honor given by the American Physical Society for work in computational physics. He was also awarded the 2008 Humboldt Research Award for Senior U.S. Scientists.

Professor Zangwill earned a B.S. in Physics at Carnegie-Mellon University in 1976. His 1981 Ph.D. in Physics at the University of Pennsylvania introduced the time-dependent density functional method. 

He worked at Brookhaven National Laboratory and the Polytechnic Institute of Brooklyn from 1981-1985 before taking up his present position at the Georgia Institute of Technology. 

He was named a Fellow of the American Physical Society in 1997 for theoretical studies of epitaxial crystal growth. 

He is the author of the monograph Physics at Surfaces (1988) and the graduate textbook Modern Electrodynamics (2013). In 2013, he began publishing scholarly work on the history of condensed matter physics.

A primary goal of Professor First's research is to develop an understanding of solid-state systems at atomic length scales. The main experimental tools in this pursuit are scanning tunneling microscopy (STM) and related techniques such as ballistic electron emission microscopy (BEEM). These methods rely on the quantum-mechanical tunnel effect to obtain atomically-resolved maps of the electronic structure of surfaces, clusters, and buried layers.

Professor Goldsztein is originally from Buenos Aires, Argentina. In 1992 he received his undergraduate degree in mathematics from the University of Buenos Aires and in 1997 a Ph.D. in mathematics from MIT. During the three following years (1997-2000), he was a postdoctoral scholar and lecturer in applied mathematics at CalTech. Since 2000, he has been a faculty member of the School of Mathematics of Georgia Tech, where he is now a full professor. Professor Goldsztein enjoys applying mathematics that can be used in other other fields of science such as computational biology, machine learning, and the intersection between math and physics. Machine learning is among his areas of expertise.

Angus Wilkinson is a professor in the School of Chemistry and Biochemistry and holds a joint appointment with the School of Materials Science and Engineering. Wilkinson obtained his bachelors degree in chemistry from Oxford University in 1988. He was a graduate student with A. K. Cheetham in the Department of Chemical Crystallography /Inorganic Chemistry at Oxford from 1988 until December 1991. His graduate work focused on the application of synchrotron X-ray powder diffraction to problems in solid-state chemistry. 

For the last two years of his graduate studies he held a senior Scholarship from Christ Church, Oxford. From October 1991 until June 1993, Wilkinson was a Junior Research Fellow with Christ Church, Oxford. However, most of this period was spent on leave at the Materials Research Laboratory, University of California Santa Barbara. His work in Santa Barbara focused on the processing and structure of oxide ferroelectric materials. In October 1993 he joined the faculty at the Georgia Institute of Technology as an assistant professor. He received tenure in 1999 and was promoted to full professor in 2004. He is currently Associate Chair for operations in the School of Chemistry and Biochemistry. 

His work at Georgia Tech has been wide ranging. Current projects include the synthesis and characterization of negative thermal expansion ceramics, in-situ studies of cement hydration under oil well conditions (high pressure and temperature) using x-ray and ultrasonic techniques, and the development of reversible carbon dioxide adsorbents. Previous work at Georgia Tech has included an exploration of chiral templates for the synthesis of chiral microporous materials, the low temperature synthesis of ferroelectrics, an exploration of low oxidation state gallium and indium oxide chemistry with a view to finding new ferroelectric and nonlinear optical materials, the development of resonant x-ray scattering methods for use on thermoelectric energy conversion materials, and an examination of cement durability under sulfate attack conditions using high energy x-ray scattering combined with microtomography.