Benjamin Klein received his B.S. and M.S. in Electrical Engineering from the University of Wisconsin-Madison in 1994 and 1995, respectively. He received his Ph.D. in Electrical Engineering from the University of Illinois – Urbana-Champaign in 2000. The subject of his doctoral dissertation was the theory and modeling of vertical-cavity surface-emitting lasers (VCSELs), which are a class of semiconductor laser used for telecommunications applications.

From 2000-2003, Klein worked as a postdoctoral researcher at the National Institute of Standards and Technology in Boulder, Colorado, working on the modeling and design of semiconductor quantum-dot based devices, including single photon emitters and single electron transistors. From 2003-2020 he was a faculty member at the Georgia Institute of Technology, first on the Savannah campus, and later in Atlanta. At the time of his departure from Georgia Tech, he was an Associate Professor and the Associate Chair for Graduate Affairs in the School of Electrical and Computer Engineering.

Prior to joining the Georgia Tech faculty in 2001 as a Professor, Yogendra Joshi held academic positions at the University of Maryland, College Park, and the Naval Postgraduate School, Monterey, California. He also worked in the semiconductor assembly industry on process thermal model development. He was named to the McKenney/Shiver Chair in 2004.

We strive to innovate in ways that both advance the imaging science and also impact biological and translational research. We are particularly interested in new imaging physics, bottom-up opto-electronic system design, as well as new principles for light propagation, light-matter interaction and image formation in complex biological materials, especially at the single-molecule level. Toward the application end, we have expertise in a wide range of imaging instrumentation and techniques, such as super-resolution, adaptive optics, light-field, miniaturized, light-sheet, computational microscopy and endoscopy.

Josiah Hester works broadly in computer engineering, with a special focus on wearable devices, edge computing, and cyber-physical systems. His Ph.D. work focused on energy harvesting and battery-free devices that failed intermittentently. He now focuses on sustainable approaches to computing, via designing health wearables, interactive devices, and large-scale sensing for conservation. 
   
His work in health is focused on increasing accessibility and lowering the burden of getting preventive and acute healthcare. In both situations, he designs low-burden, high-fidelity wearable devices that monitor aspects of physiology and behavior, and use machine learning techniques to suggest or deliver adaptive and in-situ interventions ranging from pharmacological to behavioral. 
   
His work is supported by multiple grants from the NSF, NIH, and DARPA. He was named a Sloan Fellow in Computer Science and won his NSF CAREER in 2022. He was named one of Popular Science's Brilliant Ten, won the American Indian Science and Engineering Society Most Promising Scientist/Engineer Award, and the 3M Non-tenured Faculty Award in 2021. His work has been featured in the Wall Street Journal, Scientific American, BBC, Popular Science, Communications of the ACM, and the Guinness Book of World Records, among many others.

Peter Hesketh came to Georgia Tech in spring 2000 as a professor in the George W. Woodruff School of Mechanical Engineering. Prior, he was associate professor at the University of Illinois at Chicago. Hesketh's research interests involve sensors and micro/nano-electro-mechanical Systems (MEMS/NEMS). Many sensors are built by micro/nanofabrication techniques and this provides a host of advantages including lower power consumption, small size and light weight. The issue of manipulation of the sample in addition to introduce it to the chemical sensor array is often achieved with microfluidics technology. Combining photolithographic processes to define three-dimensional structures can accomplish the necessary fluid handling, mixing, and separation through chromatography. Hesketh is also interested in nanosensors, impedance based sensors, miniature magnetic actuators and the use of stereolithography for sensor packaging. He has published over sixty papers and edited fifteen books on microsensor systems.

Jennifer Hasler received her B.S.E. and M.S. degrees in electrical engineering from Arizona State University in August 1991. She received her Ph.D. in computation and neural systems from California Institute of Technology in February 1997. Hasler is a professor at the Georgia Institute of Technology in the School of Electrical and Computer Engineering; Atlanta is the coldest climate in which Hasler has lived. Hasler founded the Integrated Computational Electronics (ICE) laboratory at Georgia Tech, a laboratory affiliated with the Laboratories for Neural Engineering. Hasler is a member of Tau Beta P, Eta Kappa Nu, and the IEEE.

Samuel Graham is the Rae S. and Frank H. Neely Professor in the School of Mechanical Engineering at the Georgia Institute of Technology. He also holds an appointment in the School of Materials Science and Engineering at Georgia Tech and a joint appointment with the Energy and Transportation Science Division at Oak Ridge National Laboratories. His research focuses on the packaging and reliability of electronic devices ranging from wide bandgap semiconductors to flexible organic electronics and wearable sensors. His is a member of the Center for Organic Photonics and Electronics at Georgia Tech and a co-founder of the Heat Lab which provides thermal solutions for electronics packaging.

During my research career I have observed “new” material systems develop and offer promise of wondrous device performance improvements over the current state of the art. Many of these promises have been kept, resulting in numerous new devices that could never have been dreamed of just a few short years ago. Other promises have not been fulfilled, due, in part, to a lack of understanding of the key limitations of these new material systems. Regardless of the material in question, one fact remains true: Without a detailed understanding of the electrical and optical interaction of electronic and photonic “particles” with the material and defect environment around them, novel device development is clearly impeded. It is not just a silicon world! Modern electronic/optoelectronic device designs (even silicon based devices) utilize many diverse materials, including mature dielectrics such as silicon dioxide/nitrides/oxynitrides, immature ferroelectric oxides, silicides, metal alloys, and new semiconductor compounds. Key to the continued progress of electronic devices is the continued development of a detailed understanding of the interaction of these materials and the defects and limitations inherent to each material system. It is my commitment to insure that new devices are continuously produced based on complex mixed family material systems.

Dr. F. Levent Degertekin received his B.S. degree in 1989 from M.E.T.U, Turkey; M.S. degree in 1991 from Bilkent University, Turkey; and his Ph.D. in 1997 from Stanford University, California, all in electrical engineering. His M.S. thesis was on acoustic microscopy, and his Ph.D. work was on ultrasonic sensors for semiconductor processing, and wave propagation in layered media. He worked as an engineering research associate at the Ginzton Laboratory at Stanford University from 1997 until joining the George W. Woodruff School of Mechanical Engineering at Georgia Tech in spring 2000. 

He has published over 150 papers in international journals and conference proceedings. He holds 20 U.S. patents, and received an NSF CAREER Award for his work on atomic force microscopy in 2004. Dr. Degertekin served on the editorial board of the IEEE Sensors Journal, and on the technical program committees of several international conferences on ultrasonics, sensors, and micro-opto-mechanical systems (MOEMS).