An environmental psychologist and professor of architecture, Craig Zimring directs the SimTigrate Design Lab. He and his colleagues and students focus on how innovative, research-informed design can improve health and healthcare, and how research can be incorporated into classroom teaching, both to improve design and help students develop skills for practice. He has conducted over $7M in research with and for Mayo Clinic, Emory Healthcare, Children’s Healthcare of Atlanta, Military Health System, HKS Architects, HDR Architects, and many others, including safety-net clinics and international providers of healthcare. He has published over 100 scholarly and professional publications and received 11 awards for his research. He has given numerous keynote and plenary addresses to organizations and meetings such as Australian Healthcare Week, Institute for Patient and Family-Centered Care, and Chinese Hospital Association. His Ph.D. and master's graduates serve in teaching and leadership positions in universities and practice.

He currently serves on the board of the Center for Health Design and has served on the boards of the Environmental Design Research Association, the National Academies’ Board on Infrastructure and the Constructed Environment, the Joint Commission’s Roundtable on the Hospital of the Future and other organizations. In addition to his work on healthcare, Dr. Zimring served as a senior scientist in developing the 2010 New York City Active Design Guidelines and was a founding member of the Center for Active Design.

Our interests lie in the adhesion and signaling molecules of the immune system as well as those involved in platelet adhesion and aggregation. We are primarily focused on early cell surface interaction kinetics and their primary signaling responses, as these are critical in determining how a cell will ultimately respond upon contact with another cell. The majority of our work ranges from single molecule interaction studies using atomic force microscopy, molecular dynamics simulations, or biomembrane force probe assays to single cell studies using micropipette adhesions assays, fluorescence imaging techniques, or real-time confocal microscopy. These assays focus on the mechanics and kinetics of receptor-ligand binding and their downstream signaling effects within cells. T cell receptors, selectins, integrins, and their respective ligands are some of the cell surface molecules currently under investigation in our lab. Understanding the initial interaction between molecules such as these and their subsequent early signaling processes is crucial to elucidating the response mechanisms of these physiological systems. Ultimately, our research strives to help better understand the mechanisms within these systems for possible medical applications in autoimmunity, allergy, transplant rejection, and thrombotic disorders. 

Dr. Zhu's research focuses on the modeling and simulation of mechanical behavior of materials at the nano- to macroscale. Some of the scientific questions he is working to answer include understanding how materials fail due to the combined mechanical and chemical effects, what are the atomistic mechanisms governing the brittle to ductile transition in crystals, why the introduction of nano-sized twins can significantly increase the rate sensitivity of nano-crystals, and how domain structures affect the reliability of ferroelectric ceramics and thin films. To address these problems, which involve multiple length and time scales, he has used a variety of modeling techniques, such as molecular dynamics simulation, reaction pathway sampling, and the inter-atomic potential finite-element method. The goal of his research is to make materials modeling predictive enough to help design new materials with improved performance and reliability.

Dr. Zhou's research interests concern material behavior over a wide range of length scales. His research emphasizes finite element and molecular dynamics simulations as well as experimental characterization with digital diagnostics. The objective is to provide guidance for the enhancement of performance through material design and synthesis. Dr. Zhou maintains a high-performance computer cluster with 384 parallel processors and an intermediate-to-high strain rate material research facility which includes a split Hopkinson pressure bar apparatus, a tension bar apparatus, and a combined torsion-tension/torsion-compression bar apparatus.

Recent research focuses on the characterization of the dynamic shear failure resistance of structural metals and the role of microscopic damage in influencing failure processes through shear banding and fracture. Micromechanical models are developed to outline microstructural adjustments that can improve the performance of materials such as metal matrix composites, ceramic composites, composite laminates and soft composites. These models explicitly account for random microstructures as well as random crack and microcrack development. At the nanoscale, ongoing research focuses on the novel shape memory and pseudoelasticity that were recently discovered in metal (e.g., Cu, Au and Ni) nanowires. The coupling between the thermal and mechanical responses of semiconducting oxide (e.g., ZnO and GaN) nanowires is another active research direction which uses molecular dynamics simulations and continuum modeling. Dr. Zhou's group is also actively engaged in research on the equivalent continuum (EC) representation of atomistic deformation at different length scales. Related research projects are sponsored by the National Science Foundation (NSF), NASA, the Air Force Office of Scientific Research (AFOSR), the Air Force Research Lab (AFRL), the Office of Naval Research (ONR), the Army Research Office (ARO), industry, and the Center for Computational Materials Design (CCMD).

The research interests of Dr. Zhang and his group focus on understanding the fundamental relationships between the chemical composition/crystal structure and the properties of novel materials. A multidisciplinary approach including inorganic/physical chemistry and solid-state physics is employed to pursue the synthesis and physical property studies of nanostructured materials. The applications of these materials in advanced technologies and in biomedical science are also actively explored.

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.

Gleb Yushin is a Professor at the School of Materials Science and Engineering at Georgia Institute of Technology and a Co-Founder of several companies, including Sila Nanotechnologies, Inc.. For his contributions to materials science, Prof. Yushin has received numerous awards and recognitions, including Kavli Fellow Award, R&D 100 Award (Y-Carbon's application), Honda Initiation Grant Award, National Science Foundation CAREER Award, Air Force Office of Scientific Research Young Investigator Award, and several distinctions from National Aeronautics and Space Administration (NASA), such as Nano 50 Award. Dr. Yushin has co-authored over 30 patents and patent applications, over 100 invited presentations and seminars and over 100 publications on nanostructured Electronic Materials related applications, including papers in Science, Nature Materials and other leading journals. His current research is focused on advancing energy storage materials and devices for electronics, transportation and grid applications.