Suresh Sitaraman is a Professor in the George W. Woodruff School of Mechanical Engineering, and leads the Flexible Hybrid Electronics Initiative at Georgia Tech and directs the Computer-Aided Simulation of Packaging Reliability (CASPaR) Lab at Georgia Tech. He is a Thrust Leader/Faculty Member, Reliability/Mechanical Design Research, 3D Systems Packaging Research Center; a Faculty Member, Georgia Tech Manufacturing Institute; a Faculty Member, Interconnect and Packaging Center, an SRC Center of Excellence, Institute for Electronics and Nanotechnology; a Faculty Member, Nanoscience and Nanotechnology, Nanotechnlogy Research Center, Institute for Electronics and Nanotechnology; a Faculty Member, Institute of Materials. Dr. Suresh Sitaraman's research is exploring new approaches to develop next-generation microsystems. In particular, his research focuses on the design, fabrication, characterization, modeling and reliability of micro-scale and nano-scale structures intended for microsystems used in applications such as aerospace, automotive, computing, telecommunicating, medical, etc. Sitaraman's research is developing physics-based computational models to design flexible as well as rigid microsystems and predict their warped geometry and reliability. His virtual manufacturing tools are able to simulate sequential fabrication and assembly process mechanics to be able to enhance the overall yield, even before prototypes are built. Sitaraman's work is developing free-standing, compliant interconnect technologies that can mechanically decouple the chip from the substrate without compromising the overall electrical functionality. This work is producing single-path and multi-path interconnect technologies as well as nanowire and carbon nanotube interconnects for electrical and thermal applications, and such interconnect technologies can be employed in flexible as well as 3D microelectronic systems. Sitaraman's research is also developing innovative material characterization techniques such as the stressed super layer technique as well as magnetic actuation test that can be used to study monotonic and fatigue crack propagation in nano- and micro-scale thin film interfaces. In addition, Sitaraman has developed fundamental modeling methodologies combined with leading-edge experimentation techniques to study delamination in the dielectric material and copper interface used in back-end-of-the-line (BEOL) stacks and through-silicon vias as well as epoxy/copper and epoxy/glass interfaces as in microelectronic packaging and photovoltaic module applications. Examining the long-term operational as well as accelerated thermal cycling reliability of solder interconnects, his work has direct implications in implantable medical devices, photovoltaic modules, computers and smart devices as well as rugged automobile and aerospace applications. Through the above-mentioned fundamental and applied research and development pursuits, Sitaraman's work aims to address some of the grand challenges associated with clean energy, health care, personal mobility, security, clean environment, food and water, and sustainable infrastructure

Prof. Singh has a joint appointment with the Wallace H. Coulter Department of Biomedical Engineering at Georgia Tech and Emory University.

Prof. Singh started at Cornell University as an Assistant Professor in 2013 and was promoted with tenure to Associate Professor with joint appointments in the Mechanical Engineering and Biomedical Engineering. At Cornell, he served as the Associate Director of the NIH T32 training grant on Immuno-engineering, executive council of the Center for Immunology, and the Cornell (Ithaca) – Weill Cornell Medicine (NYC) Academic Integration initiative. Prior to joining Cornell, he completed his postdoctoral training in cell mechanobiology, cell-matrix interactions, and stem cell engineering at Georgia Tech in Mechanical Engineering.

Prior to joining MSE in July 2003 Professor Singh was a faculty member in Corrosion and Materials Engineering Group at The Institute of Paper Science and Technology (IPST) since 1996.  While in IPST Singh worked on fundamental as well as applied research projects related to the corrosion problems in the pulp and paper industry. From 1990 to 1996, he was a Senior Research Associate at Case Western Reserve University, Cleveland, Ohio, working on various materials and corrosion related research projects, including damage accumulation in metal matrix composites (MMCs), Environmental sensitive fracture of Al-alloys MMCs, and High temperature oxidation of Nb/Nb5Si3 composites. He received the Alcan International's Fellowship in 1988-90 to work on "Effects of Low Melting Point Impurities on Slow Crack Growth in Al Alloys,"  He has published over 50 papers in reputed scientific journals and conference proceedings. He is active member of NACE, TMS, TAPPI and has co-organized a number of international symposiums.

Reliable performance of the materials is very important for any industrial process and especially for the chemical process industry for the manufacture of a high quality product. Material selection is generally based on the required material properties, low initial capital investment, and minimum maintenance. Changes in the process parameters to improve products can often lead to higher corrosion susceptibilities of the plant materials. Moreover, with increase in capital cost, there is pressure to extend the life of existing plant equipment beyond its original design life. Corrosion and Materials Engineers are also playing a key role in selecting, maintaining, and modifying materials for changing needs for every industry. Corrosion Science and Engineering research includes understanding the basic mechanisms involved in material degradation in given environments and using that knowledge to develop a mitigation strategy against environment-induced failures

Richard Simmons is currently a Principal Research Engineer and Fellow at Georgia Tech’s Strategic Energy Institute (SEI) where he directs cross-cutting energy projects with an emphasis on clean electric power, vehicle efficiency and alternative fuels. Simmons is also director of the Energy Policy and Innovation Center (EPICenter) whose objective is to perform research and outreach in energy policy and innovation with a distinctively regional perspective. He is also a part-time instructor in Georgia Tech’s Woodruff School of Mechanical Engineering, with a specialization in design, mechatronics and thermal systems. 

Simmons received his BS from Georgia Tech, and MS and Ph.D. from Purdue, all in Mechanical Engineering. He is a licensed professional engineer (PE) with more than 20 years of RD&D experience in automotive, advanced materials, and alternative energy and fuels. 

From 2009 to 2012, he served a prestigious American Association for the Advancement of Science S&T (Science and Technology) Policy Fellowship at the U.S. Department of State, providing technical analysis on international policy issues related to renewable energy. He has recently authored numerous publications including an open-access eBook entitled “Understanding the Global Energy Crisis” (Purdue Press, 2014), several book chapters and journal articles related to advanced energy technologies, transportation energy technology, and future energy policy strategies.

Physiological and biomechanical mechanisms underlying fine motor skills and their adjustments and adaptations to heightened sympathetic nerve activity, aging or inactivity, space flight or microgravity, neuromuscular fatigue, divided attention, and practice in humans. He uses state-of-the-art techniques in neuroscience, physiology, and biomechanics (e.g., TMS, EEG, fMRI, single motor unit recordings, microneurography, mechanomyography, ultrasound elastography, and exoskeleton robot) in identifying these mechanisms.

Dr. Justin Romberg is the Schlumberger Professor and the Associate Chair for Research in the School of Electrical and Computer Engineering and the Associate Director for the Center for Machine Learning at Georgia Tech.

Dr. Romberg received the B.S.E.E. (1997), M.S. (1999) and Ph.D. (2004) degrees from Rice University in Houston, Texas. From Fall 2003 until Fall 2006, he was a Postdoctoral Scholar in Applied and Computational Mathematics at the California Institute of Technology. He spent the Summer of 2000 as a researcher at Xerox PARC, the Fall of 2003 as a visitor at the Laboratoire Jacques-Louis Lions in Paris, and the Fall of 2004 as a Fellow at UCLA's Institute for Pure and Applied Mathematics. In the Fall of 2006, he joined the Georgia Tech ECE faculty. In 2008 he received an ONR Young Investigator Award, in 2009 he received a PECASE award and a Packard Fellowship, and in 2010 he was named a Rice University Outstanding Young Engineering Alumnus. He is currently on the editorial board for the SIAM Journal on the Mathematics of Data Science, and is a Fellow of the IEEE.

His research interests lie on the intersection of signal processing, machine learning, optimization, and applied probability.

Ajeet Rohatgi received the B.S. (E.E.) degree from Indian Institute of Technology in 1971, the M.S. (Materials Engineering) from Virginia Polytechnic Institute and State University in 1973, and the Ph.D. in Metallurgy and Materials Science from Lehigh University in 1977. He joined the Westinghouse Research and Development Center in Pittsburgh, Pennsylvania in 1977 and became a Westinghouse Fellow while working on the science and technology of photovoltaic and microelectronic devices. Rohatgi joined the ECE faculty at Georgia Tech in 1985 and started a program on photovoltaics, which has become one of the best in the country. He has become an internationally recognized leader in photovoltaics. He is the founding director of the first university-based DOE Center of Excellence in Photovoltaic Research and Education. He is the author of more than 300 publications and holds 10 U.S. patents. Rohatgi has received numerous awards and distinctions from professional societies and Georgia Tech. He is the founder and CTO for Suniva.

I have a broad range of interests in soft condensed matter physics and adjacent fields like statistical physics, physics of living systems and hard condensed matter. My particular focus is on the relationship between the geometric structure of a system and its mechanical response. Both biological and engineered systems often have some structure, such as networks of struts, particles jammed together or patterns of creases in thin sheets, that grant them flexibility and strength with a minimum of weight. These structures can lead to subtle and surprising mechanical response: