Cressler, Romberg Honored with Prestigious IEEE Medals




John Cressler (left) and Justin Romberg

John D. Cressler and Justin K. Romberg, both faculty members from the Georgia Tech School of Electrical and Computer Engineering (ECE), have been awarded with two of the most prestigious honors presented by the IEEE, the world’s largest technical professional organization dedicated to advancing technology for the benefit of humanity.

Cressler and Romberg were both honored with IEEE medals at the IEEE Vision, Innovation, and Challenges Summit (IEEE VIC Summit) and Honors Ceremony, held virtually May 11-13, 2021. Cressler was honored with the 2021 IEEE James H. Mulligan, Jr. Education Medal for a career of outstanding contributions to education in the fields of interest to IEEE. Romberg was honored as a co-recipient of the 2021 IEEE Jack S. Kilby Signal Processing Medal for outstanding contributions in signal processing.

John D. Cressler

As the recipient of the 2021 IEEE James H. Mulligan, Jr. Education Medal, Cressler was honored “for inspirational teaching and mentoring of undergraduate and graduate students.” He was recognized with this award on May 11 by IEEE President-Elect Ray Liu.

Cressler is the third faculty member from ECE to receive this honor. Previous recipients include Ronald W. Schafer (1992) and James D. Meindl (1990, while with Rensselaer Polytechnic Institute). The James H. Mulligan, Jr. Education Medal was established in 1956 and is sponsored by Lockheed Martin, MathWorks, Pearson, and the IEEE Life Members Fund.

“This is a tremendous honor for John, and his commitment to teaching and mentoring — and to the success and well-being of our students – is a tremendous model for all of us to follow,” said Magnus Egerstedt, Steve W. Chaddick School Chair and Professor in ECE.

Cressler is the Schlumberger Chair Professor in Electronics and the Ken Byers Teaching Fellow in Science and Religion at Georgia Tech. He has been the associate director of the Georgia Electronic Design Center since 2015. Cressler joined the Georgia Tech ECE faculty in 2002 after spending a decade as a faculty member in the Department of ECE at Auburn University. He received his M.S. and Ph.D. degrees in applied physics at Columbia University and his B.S. degree in physics from Georgia Tech in 1984.

Cressler couples his passions for teaching and mentoring with being the leader of one of the largest, most visible, and most productive silicon-germanium (SiGe) research groups in the world. He and his colleagues have written over 700 refereed journal and conference papers, and he has graduated over 100 Ph.D. and master’s students who are now leaders in the electronics industry, academia, and government and research labs or who have started their own successful companies.

Cressler is a mainstay in the microelectronics instructional program in ECE and has introduced first-of-a-kind courses – CoE 3002 Introduction to the Microelectronics and Nanotechnology Revolution and ECE 6444 Silicon-based Heterostructure Devices and Circuits – that use textbooks that he has written and that have been adopted by other universities around the world. He also teaches IAC 2002 Science, Engineering, and Religion: An Interfaith Dialogue in the Ivan Allen College of Liberal Arts. This course is open to undergraduate students of all years and majors and has always been positively received by the students.

Cressler has received many top teaching and mentoring awards from Georgia Tech and from IEEE and Eta Kappa Nu. His goal for his Ph.D. students is to fall in love with research, while maintaining a good work-life balance, and to provide a safe place to fail and to be creative and innovative. In the classroom, Cressler believes that the keys to success are passion for what you teach, being real, being and sharing who you are and what you believe with your students, and being approachable and showing that you care.

Cressler said that teaching is his life and vocation, and he counts teaching and mentoring as his great passion in the classroom, lab, and life. “My accomplishments are best measured by the success of my students,” Cressler said. “Receiving an award for teaching and mentoring, which is something very close to my heart, means a great deal to me.”

To view Cressler’s award presentation from the IEEE VIC Summit and Honors Ceremony, please visit His presentation starts at the 6:40 mark.

Justin K. Romberg

As a co-recipient of the 2021 IEEE Jack S. Kilby Signal Processing Medal, Romberg was honored “for groundbreaking contributions to compressed sensing.” He received this medal with his colleagues, Emmanuel Candes, who holds The Barnum-Simons Chair in Mathematics and Statistics at Stanford University, and Terence Tao, a professor of mathematics at the University of California at Los Angeles.

Romberg and his colleagues were recognized with this award on May 12 by IEEE President-Elect Liu. He is the fourth faculty member from ECE to receive this honor. Previous recipients include Thomas P. Barnwell (2014), Ronald W. Schafer (2010), and James H. McClellan (2004). The IEEE Jack S. Kilby Signal Processing Medal was established in 1995 and is sponsored by the Kilby Medal Fund.

“This is a tremendous honor for Justin, and our amazing faculty track record in receiving this award speaks of the high regard in which our digital signal processing program is held around the world,” said Egerstedt.

Romberg holds the Schlumberger Professorship and is the associate chair for Research in ECE. He is also the senior director for the Center for Machine Learning at Georgia Tech. Romberg joined the ECE faculty in 2006 after working as a postdoctoral scholar in Applied and Computational Mathematics at Caltech for three years. He received his B.S.E.E., M.S., and Ph.D. degrees from Rice University in 1997, 1999, and 2004, respectively.

Romberg, Candes, and Tao were recognized for their 2006 paper, “Robust Uncertainty Principles: Exact Reconstruction from Highly Incomplete Frequency Information,” which demonstrated that structured signal samples could be reconstructed perfectly from very few samples. The paper established the field of compressed sensing, which is considered one of the most important developments in signal processing in the last 50 years.

This paper spurred a flurry of research activities, with engineers and scientists exploring ways to use compressed sensing in a variety of applications. Compressed sensing has been used in wireless sensor networks, more efficient data aggregation, and improved data recovery, and has resulted in energy-efficient network routing protocols, reduced data transmission requirements, and improved network security.

Compressed sensing has even been used in astrological imaging and medical imaging. The first images of black holes from the Event Horizon Telescope were based on compressed sensing reconstruction methods. However, the greatest success of compressed sensing can be found in MRI imaging, where the technology is used to shorten the imaging process drastically without losing image quality.

Romberg said that one of the best things about the work in compressed sensing is how it has introduced him to ideas and people in many different areas of applied mathematics, such as harmonic analysis, optimization, and applied probability and statistical learning.

“It has been extremely rewarding to be exposed to new ideas from these fields by interacting with researchers on a common problem set,” Romberg said. “It has also been a pleasure to see how this early work was translated into different problem domains and built a strong foundation for me across disciplinary research, which is something that I have valued throughout my career.”

To view Romberg’s award presentation from the IEEE VIC Summit and Honors Ceremony, please visit His presentation starts at the 4:55 mark.

Cressler Honored with 2020 Outstanding Educator Award by IEEE Atlanta Section


John Cressler will receive the 2020 Outstanding Educator Award from the IEEE Atlanta Section at a virtual banquet hosted by the group on November 10. This award is presented to a member of the Atlanta IEEE community who has exhibited continued and dedicated contributions to education through teaching in industry, government, or an institution of higher education.

Cressler has been a faculty member in the Georgia Tech School of Electrical and Computer Engineering (ECE) faculty since 2002. He is currently the Schlumberger Chair Professor in Electronics and the Ken Byers Teaching Fellow in Science and Religion. 

A mainstay in the ECE microelectronics instructional program, Cressler has also introduced three new courses into three different areas of the Georgia Tech curriculum, ECE 6444: “Silicon-based Heterostructure Devices and Circuits;” CoE 3002: “Introduction to the Microelectronics and Nanotechnology Revolution;” and IAC 2002: “Science, Engineering, and Religion: An Interfaith Dialogue,” which is taught through the Ivan Allen College of Liberal Arts.  

Cressler has written books for each of these three courses. Silicon Earth (2016), now in its second edition and also translated into Chinese. Meant for a general audience, the book serves CoE 3002, which is intended for all majors, including both business and liberal arts students. Silicon-Germanium Heterojunction Bipolar Transistors (2003, with G. Niu) is the most widely cited textbook in this field and serves his graduate course, ECE 6444. In all of his courses during his 28+ year career, Cressler ends each of his classes, including IAC 2002, with a handed-out quotation and a sharing of a personal reflection relevant to his students’ lives. For this purpose, he compiled over 600 quotations and reflections in the book, Reinventing Teenagers (2004).

Cressler's career-long teaching effectiveness average is a 4.9, and he is a fully dedicated mentor to the students in his classes. On the research side, Cressler has mentored and graduated 60 Ph.D. students during his academic career (50 at Georgia Tech), and he and his team have published over 750 archival papers. The graduates of his research group have continued onto successful and meaningful careers in industry, academia, and government labs and agencies.

Cressler has received several high-level IEEE teaching and mentoring awards and has been presented with Georgia Tech’s top honors in undergraduate teaching and graduate student mentoring. In 2013, he was recognized with Georgia Tech's highest award for faculty, the Class of 1934 Distinguished Professor Award.

Georgia Tech’s Center for Co-design of Chip, Package System (C3PS) partners with Notre Dame in $26 million multi-university research center developing next-generation computing technologies



John Pippin Chair in Microsystems Packaging & Electromagnetics in the School of Electrical and Computer Engineering (ECE) and Director of the Center for Co-Design of Chip, Package, System (C3PS), Georgia Tech.
Associate Professor in the School of Electrical and Computer Engineering at the Georgia Institute of Technology

In today’s era of big data, cloud computing, and Internet of Things devices, information is produced and shared on a scale that challenges the current processing speeds and energy load demands placed on electronics devices. These challenges are only set to expand, as the ability to create and store data increases in magnitude over the next decade.

With these computing challenges in mind, the Semiconductor Research Corporation's (SRC) Joint University Microelectronics Program (JUMP), which represents a consortium of industrial participants and the Defense Advanced Research Projects Agency (DARPA), has established a new $26 million center called the Applications and Systems-driven Center for Energy-Efficient integrated Nano Technologies (ASCENT).

Georgia Tech’s Center for Co-design of Chip, Package System (C3PS) led by Profs. A. Raychowdhury and M. Swaminathan, deputy director and director, respectively, both from the School of Electrical and Computer Engineering, and with support from the Institute of Electronics and Nanotechnology, headed-up Georgia Tech’s winning proposal that resulted in a 5 year, $3.5M award that will fund up to 10 GRA positions.

The multidisciplinary, multi-university center will focus on conducting research that aims to increase the performance, efficiency and capabilities of future computing systems for both commercial and defense applications. By going beyond current industry approaches, such as two dimensional scaling and the addition of performance boosters to complementary metal oxide semiconductors, or CMOS technology, the GT team seeks to provide enhanced performance and energy consumption at lower costs.

Profs. Raychowdhury (PI) and Swaminathan (co-PI) will work in the area of heterogeneous integration, with a focus on the design of high speed die-to-die networks, the incorporation of power, logic, memory and RF components on a common substrate that enables 2.5D and 3D integration.

“Our involvement in the ASCENT center provides us with unique opportunities to partner with the academic and industrial leaders to explore foundational technologies in computing. We will leverage our expertise on high-speed circuit design, device-circuit interactions and advanced packaging to address logic and memory challenges for next-generation computing and communication systems,” said Prof. Raychowdhury, the ON Semiconductor Jr. Associate Professor of VLSI Systems.

“Georgia Tech has always had a long history of working with SRC and we are therefore excited and honored to continue that effort through JUMP,” said Prof. M. Swaminathan, John Pippin Chair in Microsystems Packaging & Electromagnetics and C3PS director. “Through JUMP we plan on expanding our current center capabilities on power delivery, machine learning, multi-physics simulation and system design to include new circuit architectures, power converters, magnetic materials, high frequency components, vertically integrated tools and other platform technologies on a common interconnect fabric.”

This is one of the largest JUMP centers funded by SRC and will work synergistically over the next five years to provide breakthrough technologies.  Other universities involved in the 13-member team include; Notre Dame (lead), Arizona State University, Cornell University, Purdue University, Stanford University, University of Minnesota, University of California-Berkeley, University of California-Los Angeles, University of California-San Diego, University of California-Santa Barbara, University of Colorado, and the University of Texas-Dallas.

- Christa M. Ernst

EDA’s CAEML Grows More Humps: Al Expands Role in Design



John Pippin Chair in Microsystems Packaging & Electromagnetics in the School of Electrical and Computer Engineering (ECE) and Director of the Center for Co-Design of Chip, Package, System (C3PS), Georgia Tech.

The use of AI in EDA is a hot topic due to significant progress with applying machine learning to the issues of chip design.

Over the past year, the Center for Advanced Electronics through Machine Learning (CAEML) has gained four new partners. The team of 13 industry members and three universities has expanded both the breadth and depth of its work. CAEML is funded in part by a National Science Foundation program. In the past, CAEML focused on signal integrity and power integrity, but this year, the team has diversified its portfolio with system analysis, chip layout and trusted platform design.

“One of the challenges we face is getting access to data from companies,” said Professor Madhavan Swaminathan, the John Pippin Chair in Microsystems Packaging & Electromagnetics and Director of Center for Co-Design of Chip, Package, System (C3PS) at the Georgia Institute of Technology, a CAEML host. “Most of their data is proprietary, so we’ve come up with several mechanisms to handle it. The processes are working fairly well, but they are more lengthy than we’d like.”

Previously, the group had a sort of coming-out party. It started with backing from nine vendors including Analog Devices, Cadence, Cisco, IBM, Nvidia, Qualcomm, Samsung, and Xilinx. Its initial interest areas included high-speed interconnects, power delivery, system-level electrostatic discharge, IP core reuse, and design rule checking.

After this year, it is clear that the EDA industry is entering its second phase in its use of AI (moving past high-speed interconnects, power delivery etc. and into the realm of machine learning), which the next phase of product development in optimizations that speed turnaround time. Often hindered by current algorithmic limitations.

Researchers are exploring opportunities to replace today’s simulators with AI models (faster) after a reported 40 MHz increase in speed last year. "Relatively slow simulators can lead to timing errors, mistuned analog circuits, and insufficient modeling that results in chip re-spins, said Swaminathan. In addition, machine learning can replace IBIS for behavioral modeling in high-speed interconnects."

Chip researchers are currently combatting the issue with research in data mining, surrogate models, statistical learning, and neural networking models (used by Amazon, Google etc).

“The amount of training data required is high,” said Christopher Cheng of Hewlett-Packard Enterprise, another member of the CAEML team. “Classifiers are static, but we want to add the dimension of time using recurrent neural networks to enable time-to-failure labels. We want to extend this work to more parameters and general system failures in the future.”

Spring 2018 IEN Seed Grant Winners Announced



Fall 2017 Seed Grant Winner at the IEN User Poster Session on May 21, 2018 - Arith Rajapaks

The Institute for Electronics and Nanotechnology at Georgia Tech has announced the winners for the 2018 Spring Seed Grant Awards. The primary purpose of the IEN Seed Grant is to give first or second year graduate students in various disciplines working on original and un-funded research in micro- and nano-scale projects the opportunity to access the most advanced academic cleanroom space in the Southeast. In addition to accessing the high-level fabrication, lithography, and characterization tools in the labs, the students will have the opportunity to gain proficiency in cleanroom and tool methodology and to use the consultation services provided by research staff members of the IEN Advanced Technology Team.  In addition, the Seed Grant program gives faculty with novel research topics the ability to develop preliminary data in order to pursue follow-up funding sources.

Over the course of five years, this grant program has seeded forty-five projects with forty-nine students working in ten different schools in COE and COS, as well as the Georgia Tech Research Institute and 2 external projects.

The 4 winning projects, from a diverse group of engineering disciplines, were awarded a six-month block of IEN cleanroom and lab access time. In keeping with the interdisciplinary mission of IEN, the projects that will be enabled by the grants include research in materials, biomedicine, energy production, and microelectronics packaging applications.

The Spring 2018 IEN Seed Grant Award winners are:

  • Jiang Chen (PI Ben Wang - MSE): Validation and Characterization of Living Cell Grafting on Polycaprolactone Fibers for Textile Tissue Engineering
  • Fatima Chrit (PI Alexander Alexeev - ME): Microfluidic Adhesion-based Sorting of Biological Cells
  • Zifei Sun (PI Gleb Yushin - MSE): FeOx Coated FeF3-C Nanofibers as Free-standing Cathodes for Sodium- Ion Batteries
  • Ting Wang (PI Xing Xie - Civil and Environmental Engineering): Development of Lab-on-a-Chip Devices for the Mechanisms Study of Cell Transportation and Bacteria Inactivation in a Non-Uniform Electric Field

Awardees will present the results of their research efforts at the annual IEN User Day in 2019.

Neuroscientists Team with Engineers to Explore How the Brain Controls Movement



Muhannad Bakir (far left) and Emory's Samuel Sober (far right) combined forces for the project. The work will be led by post-doctoral fellows in their labs, Georgia Tech's Muneeb Zia (center left) and Emory's Bryce Chung (center right).
Recording device for muscles

This article was written by Carol Clark, senior science communicator at Emory University and editor of eScience Commons

Scientists have made remarkable advances into recording the electrical activity that the nervous system uses to control complex skills, leading to insights into how the nervous system directs an animal’s behavior. 

“We can record the electrical activity of a single neuron, and large groups of neurons, as animals learn and perform skilled behaviors,” says Sam Sober, an associate professor of biology at Emory University who studies the brain and nervous system. “What’s missing,” he adds, “is the technology to precisely record the electrical signals of the muscles that ultimately control that movement.”

The Sober lab is now developing that technology through a collaboration with the lab of Muhannad Bakir, a professor in Georgia Tech’s School of Electrical and Computer Engineering. The researchers recently received a $200,000 Technological Innovations in Neuroscience Award from the McKnight Foundation to create a device that can record electrical action potentials, or “spikes” within muscles of songbirds and rodents. The technology will be used to help understand the neural control of many different skilled behaviors to potentially gain insights into neurological disorders that affect motor control.

“Our device will be the first that lets you record populations of spikes from all of the muscles involved in controlling a complex behavior,” Sober says. “This technique will offer unprecedented access to the neural signals that control muscles, allowing previously impossible investigations into how the brain controls the body.”

“By combining expertise in the life sciences at Emory with the engineering expertise of Georgia Tech, we are able to enter new scientific territory,” Bakir says. “The ultimate goal is to make discoveries that improve the quality of life of people.” 

The Sober lab previously developed a prototype device — electrodes attached to flexible wires — to measure electrical activity in a breathing muscle used by Bengalese finches to sing. The way birds control their song has a lot in common with human speech, both in how it is learned early in life and how it is produced in adulthood. The neural pathways for birdsong are also well known, and restricted to that one activity, making birds a good model system for studying nervous system function.

“In experiments using our prototype, we discovered that, just like in brain cells, precise spike timing patterns in muscle cells are critical for controlling behavior — in this case breathing,” Sober says.

The prototype device, however, is basic. Its 16 electrodes can only record activity from a single muscle — not the entire ensemble of muscles involved in birdsong. In order to gain a fuller picture of how neural signals control movement, neuroscientists need a much more sophisticated device.

The McKnight funding allowed Sober to team up with Bakir. Their goal is to create a micro-scale electromyography (EMG) sensor array, containing more than 1,000 electrodes, to record single-cellular data across many muscles. 

The engineering challenges are formidable. The arrays need to be flexible enough to fit the shape of small muscles used in fine motor skills, and to change shape as the muscles contract. The entire device must also be tiny enough not to impede the movement of a small animal.

“Our first step is to build a flexible substrate on the micro-scale that can support high-density electrodes,” Bakir says. “And we will need to use microchips that work in parallel with 1,000 electrodes, and then attach them to that substrate.”

To meet that challenge, the Bakir lab will create a 3D integrated circuit. “Essentially, it’s building a miniature skyscraper of electrical circuits stacked vertically atop one another,” Bakir says. This vertical design will allow the researchers to minimize the size of the flexible substrate.

“To our knowledge, no one has done what we are trying to do in this project,” Bakir says. “That makes it more difficult, but also exciting because we are entering new space.”  

The Sober lab will use the new device to expand its songbird vocalization studies. And it will explore how the nervous system controls the muscles involved when a mouse performs skilled movements with its forelimbs. 

An early version of the technology will also be shared with collaborators of the Sober lab at three different universities. These collaborators will further test the arrays, while also gathering data across more species.

“We know so little about how the brain organizes skilled behaviors,” Sober says. “Once we perfect this technology, we will make it available to researchers in this field around the world, to advance knowledge as rapidly as possible.”

The mission of the McKnight Foundation’s Technological Innovations in Neuroscience Award, as described on its website, is “to bring science closer to the day when diseases of the brain and behavior can be accurately diagnosed, prevented and treated.”

Full cutline information for photos

Top photo: The labs of Georgia Tech's Muhannad Bakir (far left) and Emory's Samuel Sober (far right) combined forces for the project. The work will be led by post-doctoral fellows in their labs, Georgia Tech's Muneeb Zia (center left) and Emory's Bryce Chung (center right). Photos by Ann Watson, Emory Photo/Video.

Second photo: A prototype of the proposed device has 16 electrodes that can record data from a single muscle. The McKnight Award will allow the researchers to scale up to a device with more than 1,000 electrodes that can record from 10 or more muscles.

Shen Elected as OSA Fellow



Shyh-Chiang Shen

Shyh-Chiang Shen has been elected to the class of 2019 OSA Fellows. Shen is a professor in the Georgia Tech School of Electrical and Computer Engineering (ECE).

Shen is among the 98 OSA members elected to its 2019 class of Fellows.He is being recognized “for the development and advancement of compound semiconductor optoelectronic devices and integrated circuits.” 

A member of the ECE faculty since 2005, Shen leads the Semiconductor Research Lab, where he and his team work on wide-bandgap semiconductors and their applications in optoelectronics and power electronics. Their research is heavily sided on novel device design, validation, and manufacturable fabrication technology development for compound semiconductors. 

Prior to joining Georgia Tech, Shen developed a proprietary commercial-grade InP transistor technology that led to the first demonstration of monolithically integrated 40Gb/s PIN+TIA differential-output optical receivers. Since 2005, he has made significant technological impacts in advanced III-Nitride (III-N) wide-bandgap semiconductor device research. Many of his works at Tech stand as state-of-the-art III-N device demonstrations.

Shen’s research has yielded eight awarded U.S. patents, five book chapters, 170-plus publications in refereed journals and conferences, and many invited seminar talks to date. He is also an editor of a book entitled Nitride Semiconductor LEDs (2nd Ed., October 2017).

Shen has also been honored for his contributions in research and education at Georgia Tech. He received the Georgia Tech Outstanding Undergraduate Research Mentor Award in 2012; the ECE Outstanding Junior Faculty Member Award in 2011; and the ECE Richard M. Bass/Eta Kappa Nu Outstanding Teacher Award in 2010. 


Atlanta, GA



Jackie Nemeth

School of Electrical and Computer Engineering


Tentzeris Receives Humboldt Research Award



Manos Tentzeris has received the Humboldt Research Award. Tentzeris is the Ken Byers Professor in Flexible Electronics in the Georgia Tech School of Electrical and Computer Engineering (ECE), where he has been on the faculty since 1998.

This award recognizes a researcher's entire record of achievements in academics and whose fundamental discoveries, new theories, or insights have had a very significant impact on their own discipline and who are expected to continue producing cutting-edge achievements in the future.

Tentzeris will use this award to conduct research on combining additive manufacturing, RF, nanotechnology, and origami principles for the development of ambiently-cognitive, shape-reconfigurable “zero-power” RF modules for Internet of Things, Smart Agriculture, Quality of Life, and Smart Cities applications. He will conduct part of this research in collaboration with Robert Weigel, a professor in the School of ECE at Friedrich-Alexander-Universität Erlangen-Nürnberg, and his team. The university is located in Erlangen, Germany.

The Humboldt Research Award is presented by the Alexander von Humboldt Stiftung/Foundation, which promotes academic cooperation between excellent scientists and scholars from abroad and from Germany. For more information about its award programs, visit

Ansari Selected for Inaugural Sutterfield Family Early Career Professorship



Azadeh Ansari

Azadeh Ansari has been appointed to the Sutterfield Family Early Career Professorship in the Georgia Tech School of Electrical and Computer Engineering (ECE), effective September 1, 2019. 

Ansari joined the ECE faculty in August 2017 after working as a postdoctoral scholar in the Department of Physics at Caltech. She is a member of the nanotechnology and the electronic design and applications technical interest groups. Ansari currently advises six graduate students who work in the fields of nano/microelectromechanical systems (N/MEMS), nonlinear mechanical frequency combs, radio frequency acoustic devices, and micro-robotics.

Ansari received the B.S. degree in Electrical Engineering from the Sharif University of Technology (Tehran, Iran) in 2010 and the M.S. and Ph.D. degrees in Electrical Engineering and Computer Science from the University of Michigan, Ann Arbor in 2013 and 2016, respectively. She was the recipient of the 2016 Rackham Distinguished Dissertation Award at the University of Michigan for her Ph.D. work on "Gallium Nitride Integrated Micro-systems for RF Applications.”

Ansari has published over 30 refereed journal and conference papers and has one published patent and three patent applications. She was a Center for Teaching and Learning Class of 1969 teaching fellow in Spring 2019. Ansari is the director of the Center for Muscle-Inspired Actuators for Multi-scale Robotics, an Institute for Electronics and Nanotechnology-funded center for multi-disciplinary research. 

Her team’s development of micro-bristle-bots and their potential uses for treating medical conditions, manipulating materials, or sensing environmental changes have recently received much attention in the technical and popular press, including NBC News. The story can be read on Georgia Tech’s research news page.

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