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Scott Kerlin is a Senior Lecturer in the Department of Electrical Engineering and Computer Science at Oregon State University's College of Engineering. He holds an M.S. and B.S. in Computer Science from the University of North Dakota. Prior to academia, he worked at the Mayo Clinic on medical software systems and IBM as a build master for enterprise products. His career spans roles including network administrator, lab manager, and Undergraduate Director at UND. Dr. Kerlin's research focuses on bridging industry experience with academic curriculum, particularly in computer science education, project-based learning, and cybersecurity. He emphasizes practical applications of theoretical concepts, such as integrating 3D printing and scanning technologies with security systems for small satellites. His work also explores student efficacy in AI courses and scalable software project management methodologies. He has taught at multiple institutions, including the University of Minnesota and Augsburg University, and held roles at Michigan Tech as Senior Security Engineer. His 2024 Engineering+ Outstanding Teaching Award highlights his commitment to pedagogical innovation. Current projects include in-space 3D printing, solar energy systems, and cryptographic solutions for satellite communications. Key areas of contribution include: 3D printing/Scanning: Material characterization, key replication, and aerospace applications Cybersecurity: Intrusion detection, satellite communications security, and chaotic cryptosystems Educational Innovation: Active learning frameworks, PBL implementation, and student performance modeling His interdisciplinary approach connects computer science fundamentals with real-world engineering challenges, emphasizing sustainability and industry relevance in curricula.

• Computer Science Education
• 3D Printing and Scanning
• Cybersecurity
• +3 more

Stephen Y. Chou is the Joseph C. Elgin Professor of Engineering and Professor of Electrical and Computer Engineering at Princeton University. He is affiliated with the Princeton Materials Institute (PMI) and leads the Nano, Meta, and Bio-Health Laboratory (NMBH Lab), previously known as the Nanostructures Lab. His work spans nanotechnology, bioengineering, and photonics, integrating interdisciplinary approaches to address challenges in health, electronics, and manufacturing. Ph.D., Massachusetts Institute of Technology, 1986 M.A., Physics, State University of New York at Stony Brook, 1982 B.S., Physics, University of Science and Technology of China, 1978 Chou's research focuses on nano-bioengineering for diagnostics and health, nanophotonics (meta-optics and subwavelength elements), and nanofabrication techniques. His work has revolutionized nanoimprint lithography, enabling breakthroughs in semiconductor devices, optical sensors, and biomedical tools. The NMBH Lab's innovations include ultra-sensitive biosensors (D2PA), the iMOST™ diagnostic platform, and foundational contributions to gate-all-around (GAA) transistors for sub-3 nm CMOS technology. His publications reflect advancements in plasmonic biosensors, organic solar cells, nanofluidics, and scalable nanoimprint methods. Key themes include nanoscale light manipulation, low-cost diagnostic systems, and quantum electronic devices. Member, National Academy of Engineering (2007) IEEE Cledo Brunetti Award (2004) IEEE Nanotechnology Pioneer Award (2014) Nanoimprint Pioneer Award (2015) Packard Fellow (1991) Fellow, IEEE (2000) Inductee, New Jersey High Tech Hall of Fame (2004) MIT Technology Review Emerging Technologies (2003, 2007) Chou has founded three companies (Nanonex, NanoOpto, Essenlix) and co-founded BioNano Genomics (NASDAQ: BNGO). His work bridges academic research and industrial impact, with over 700 publications (H-index 97) and 400 patents, influencing global nanotechnology and diagnostics. The NMBH Lab develops transformative technologies in nano-bioengineering, nanophotonics, and nanofabrication, emphasizing practical applications for healthcare and electronics.

• Nanotechnology
• Bioengineering
• Nanophotonics
• +7 more

Kareem Ahmed is a Professor in the Department of Mechanical and Aerospace Engineering at the University of Central Florida (UCF) and a faculty member of the Center for Advanced Turbomachinery and Energy Research. He leads research in advanced propulsion and energy systems, focusing on high-speed turbulent combustion, detonations, and hypersonic technologies. His work includes groundbreaking projects in detonation-based propulsion for hypersonic flight and power generation, supported by over $17 million in grants from NASA, AFOSR, and DOE. Education: Ph.D. and M.S. in Mechanical Engineering, University at Buffalo (SUNY) B.S. in Mechanical Engineering, New York State College of Ceramics at Alfred University Research Interests: Ahmed’s expertise spans detonation dynamics, supersonic reacting flows, flow-flame control, and advanced laser diagnostics . His team explores innovations like rotating detonation engines (RDEs) and scramjet combustion systems, with applications in aerospace defense and space exploration. Awards and Recognition: AIAA Associate Fellow American Chemical Society Doctoral New Investigator Award AFOSR Summer Faculty Fellowship UCF Trustee Chair (2025–2030) Grants & Advising: PI of over $17M in research funding; mentors 145+ doctoral, master’s, and undergraduate students. Collaborates with industry leaders like GE, Aerojet Rocketdyne, and Pratt & Whitney. Labs & Teams: Director of UCF’s Center of Excellence in Hypersonic and Space Propulsion, advancing technologies for 15-minute transcontinental flight and clean rocket fuels.

• Advanced Propulsion Systems
• Hypersonic and Supersonic Combustion
• Detonation Dynamics
• +4 more

Oliver Schmitz is a Professor in the Department of Nuclear Engineering & Engineering Physics at the University of Wisconsin-Madison, where he leads research in plasma edge physics for magnetic confinement fusion and next-generation particle accelerators. His work bridges experimental plasma science, computational modeling, and diagnostic development with applications in both tokamaks and stellarators. Education: PhD (2006), Heinrich-Heine-Universität Diploma (2003), Rheinische Friedrich-Wilhelms-Universität Professor Schmitz's research focuses on 3D plasma edge transport phenomena, plasma-wall interactions, and helicon plasma generation for wakefield accelerators. His group employs advanced computational tools like EMC3-EIRENE for 3D plasma edge modeling and develops active spectroscopic diagnostics to measure plasma parameters through atomic emission analysis. Key themes include resonant magnetic perturbation effects in tokamaks, inherent 3D physics in stellarators, and high-density plasma sustainment for accelerator applications. He actively develops atomic models to interpret spectroscopic data and operates helicon plasma test stands for fundamental process studies. Recent publications reveal strong emphasis on experimental-computational integration for fusion boundary physics, with significant contributions to ITER divertor solutions, stellarator exhaust optimization, and plasma-facing materials. The work shows growing focus on wakefield accelerator diagnostics through helicon plasma sources and advanced spectroscopy, alongside persistent innovation in 3D modeling of plasma-material interfaces. Scientific Awards: 2020 Thomas and Suzanne Werner Chair Professorship 2018 UW Madison Teaching Academy Fellow 2017 ITER Science Fellowship & Vilas Mid-Career Award 2015 DOE Early Career Award & NSF CAREER Award 2011 Torkil Jensen Award (General Atomics) 2007 Günther-Leibfried-Preis (Jülich) Professor Schmitz directs multiple DOE/NSF-funded research programs including his UW Madison laboratory and AWAKE project contributions at CERN. He mentors graduate students through NE 890/990 thesis research courses and has developed nationally recognized K-12 outreach including the "Plasma Show" for elementary schools and "Plasma Academy" for high-school educators developing AP Physics curriculum modules. His leadership extends to university governance through the Kaufman seminar on academic leadership. His research group operates helicon plasma test stands and computational facilities for EMC3-EIRENE simulations, with current efforts focused on high-density plasma sources for accelerators and resilient divertor solutions for stellarators. The group maintains strong international collaborations with ITER, CERN, and major fusion facilities worldwide.

• Plasma Edge Physics
• Plasma Wall Interaction
• Three-Dimensional Plasma Edge Transport
• +6 more

Wan Shou is an Assistant Professor in the Department of Mechanical Engineering at the University of Arkansas. His research focuses on multiscale manufacturing, advanced materials, and functional devices, with applications in wearables, robotics, and sustainable technologies. Ph.D., Mechanical Engineering, Missouri University of Science and Technology M.S., Mechanical Engineering, University of Louisiana at Lafayette B.E., Textile Engineering, Tianjin Polytechnic University, China Dr. Shou’s research spans laser-based manufacturing , nanomanufacturing , machine learning-assisted processes , and bioresorbable electronics . He explores 3D printing of polymer and metal composites, energy materials , and functional textiles for wearable sensors and environmental applications. Recent publications highlight his work in additive manufacturing , computational design of composites, and self-powered sensing systems . His team integrates machine learning with materials discovery to optimize performance. Editor’s pick of Science Magazine US Patent 11,752,700: Data-driven material formulation US Patent 11,993,850: Laser-assisted nanoparticle printing Dr. Shou’s patents and publications reflect a commitment to innovative manufacturing and environmentally conscious design . His work bridges materials science , robotics , and smart systems , advancing energy and water technologies.

• Multiscale manufacturing
• Laser-based manufacturing and materials processing
• Novel manufacturing processes
• +12 more

Kaka Ma is an Associate Professor in the Department of Materials Science & Engineering at Texas A&M University, specializing in advanced materials processing for energy systems and extreme environments through powder-based synthesis, additive manufacturing, and sintering technologies. Educational Background: Ph.D. in Materials Science and Engineering, University of California, Davis (2010) B.S. in Materials Science and Engineering, University of Science and Technology of China (2006) His research focuses on powder-based synthesis of metals/ceramics, laser directed energy deposition, field-assisted sintering technology (FAST), thermionic/thermoelectric energy conversion materials, and ultrahigh-temperature/hypersonic environment applications, with strong emphasis on sustainability in materials engineering. Recent publications demonstrate expertise in creating functionally graded materials via controlled thermal gradients and powder morphology optimization. Analysis of 2021-2025 publications reveals dominant trends in spark plasma sintering parameter optimization, additive manufacturing of titanium alloys, high-entropy carbide development, and nanoparticle synthesis for energy applications, consistently linking processing parameters to microstructure-property relationships in extreme-condition materials. Scientific Awards: TMS Light Metals/Extraction & Processing Subject Award – Recycling (2020) Professional memberships include The Minerals, Metals and Materials Society (TMS) and America Makes. While specific advising details and grant information are not documented in the provided materials, his extensive collaborative publication record indicates active mentorship of graduate researchers and successful acquisition of research funding. No dedicated laboratory facilities or research team structures are specified in the source documentation.

• Powder based synthesis and processing of metals and ceramics
• Additive manufacturing
• Field assisted sintering technology
• +3 more

Jung Han is the William A. Norton Professor of Electrical & Computer Engineering at Yale University, affiliated with the School of Engineering & Applied Science. He holds a Ph.D. from Purdue University and leads the Optoelectronics Materials and Devices Group, focusing on interdisciplinary research in III-nitride semiconductors, optoelectronics, and power electronics. His work bridges fundamental materials science with practical applications in solid-state lighting, energy harvesting, and next-generation electronics. Research interests include wide-bandgap semiconductor materials (e.g., GaN), nanoscale device fabrication, and epitaxial growth techniques. He pioneered nanoporous GaN distributed Bragg reflectors (DBRs) for high-efficiency LEDs and lasers, as well as selective-area growth methods for power electronics. His lab explores green energy technologies, flexible electronics, and hybrid organic-inorganic semiconductors. Publications emphasize advancements in GaN-based vertical-cavity surface-emitting lasers (VCSELs), SWIR detectors, and micro-LED displays. Recent work addresses challenges in defect control, scalability of III-nitride devices, and integration with emerging materials. His group collaborates across engineering, applied physics, and chemistry to advance sustainable energy and high-performance optoelectronics. Notable contributions include wafer-level integrated white-LEDs with quantum dots, damage-free in-situ GaN etching via TBCl, and stacking-fault-free GaN growth on foreign substrates. His research has been recognized in high-impact journals like Advanced Materials and Applied Physics Letters .

• Wide bandgap semiconductor materials
• Optoelectronic devices
• Nanoscale materials and devices
• +4 more

Steven F. Son is the Alfred J. McAllister Professor of Mechanical Engineering at Purdue University, affiliated with the College of Engineering. He holds joint appointments in Aeronautics and Astronautics, Materials Engineering, and Mechanical Engineering. His research focuses on energetic materials, combustion science, and propulsion systems, with emphasis on detonation physics, additive manufacturing of explosives, and novel propellant designs. Key projects include developing throttleable solid propellants, studying material-filled void effects on detonation waves, and optimizing nanomaterials for enhanced reactivity. Dr. Son’s work integrates experimental and computational methods, such as laser absorption spectroscopy and machine learning, to advance understanding of high-energy materials. His contributions span from fundamental material characterization to applied systems like Martian perchlorate-based propellants. He leads research at the Maurice J. Zucrow Laboratories, Purdue’s premier facility for propulsion and energetic materials research. His recent studies explore flexoelectricity in fluoropolymer/aluminum composites, laser ignition systems for solid propellants, and thermal decomposition mechanisms of novel energetic formulations. While no awards are explicitly listed, his prolific publication record and interdisciplinary approach highlight his influence in the field.

• Energetic Materials
• Propulsion Systems
• Combustion Science
• +6 more

Paras N. Prasad is a SUNY Distinguished Professor with joint appointments in Physics, Chemistry, Medicine, and Electrical Engineering at the University at Buffalo. He serves as Executive Director of the Institute for Lasers, Photonics and Biophotonics (ILPB), which he founded in 1999. Dr. Prasad holds the Samuel P. Capen Chair of Chemistry and has pioneered interdisciplinary research at the interface of photonics, nanotechnology, and biomedicine. Education: BSc, Bihar University, India (1964) MSc, Bihar University, India (1966) PhD, University of Pennsylvania (1971) Postdoctoral Fellow, University of Michigan (1971-74) Research Focus: Dr. Prasad's multidisciplinary research spans photonics, nanophotonics, and biophotonics, with emphasis on nonlinear optical processes in nanostructured materials. His work develops photonic technologies for information processing, medical imaging, and cancer therapy through nanoparticle-based drug delivery systems and diagnostic platforms. The ILPB laboratory features state-of-the-art instrumentation for advanced optical research. Publication Trends: Recent articles demonstrate strong focus on nanomedicine applications, particularly cancer theranostics using functional nanoparticles. Key themes include drug delivery systems, chiral photonic materials, bioimaging technologies, and nanoparticle synthesis techniques. The research consistently bridges fundamental materials science with translational medical applications. Honors and Awards: SPIE Gold Medal (2016) IEEE Photonics Society William Streifer Award (2021) American Chemical Society Peter Debye Award (2018) OSA Michael Feld Biophotonics Award (2017) IEEE Pioneer Award in Nanotechnology (2017) Fellow of National Academy of Inventors (2016) Guggenheim Fellowship (1997) Leadership: As ILPB Executive Director, Dr. Prasad leads multidisciplinary teams developing photonic technologies with applications in healthcare, energy, and communications. His research has generated nine spin-off companies, including Nanobiotix currently in advanced cancer therapy trials.

• Photonics
• Nanophotonics
• Biophotonics
• +4 more

Suresh K. Sitaraman is a Regents' Professor and Morris M. Bryan, Jr. Professor in Mechanical Engineering at the Georgia Institute of Technology's George W. Woodruff School of Mechanical Engineering. His primary research focuses on Computer-Aided Engineering (CAE) and Design, manufacturing processes, micro/nano engineering, and mechanics of materials. He leads the Computer-Aided Simulation of Packaging Reliability (CASPaR) Lab and is involved in flexible hybrid electronics research through the Flexible Electronics Center . Dr. Sitaraman holds a Ph.D. from The Ohio State University (1989), M.A.Sc. from the University of Ottawa (1985), and B.E. from the University of Madras (1982). His research includes developing novel techniques like fixtureless magnetic actuation for interfacial fracture testing, compliant micro-scale interconnects for stress mitigation, and synchrotron X-ray diffraction analysis for through-silicon vias (TSVs). He has pioneered studies on carbon nanotube forests' mechanical properties and reliability challenges in 3D microsystems. His awards include the NSF CAREER Award (1997-2002), ASME Fellow designation (2004), and Sigma Xi Sustained Research Award (2008). He has authored over 150 publications and holds multiple patents on compliant interconnect technologies and packaging reliability solutions. Key Research Themes: Micro/nano-scale material characterization, physics-based predictive modeling, flexible electronics, 3D integration, and thermal management. Labs/Initiatives: CASPaR Lab ( caspar.gatech.edu ), Flexible Hybrid Electronics Center. Industry Impact: Contributions to semiconductor packaging, wearable electronics, and advanced manufacturing techniques.

• Computer-Aided Engineering
• Manufacturing
• Micro & Nano Engineering
• +7 more

Sebastian Kube is an Assistant Professor in the Department of Materials Science & Engineering at the University of Wisconsin-Madison's College of Engineering, with additional affiliation in Mechanical Engineering. His research accelerates alloy development through autonomous discovery methods combining robotics, data science, and advanced characterization. Dr. Kube's educational background includes: Postdoctoral Researcher (2023), University of California Santa Barbara (Tresa Pollock Lab) PhD (2021), Yale University (Jan Schroers Lab) BS (2016), Giessen University His work focuses on refractory multi-principal element alloys for extreme environments (>1300°C) and metallic liquid structure-property relationships. He develops autonomous platforms to navigate complex parameter spaces, targeting improved glass forming ability and rapid solidification processing through B2 precipitation strategies and novel characterization techniques. Recent publications emphasize refractory high-entropy alloys, BCC-B2 systems, and metallic glasses, integrating experimental and computational approaches to decode phase stability, deformation mechanisms, and glass formation for accelerated materials design. Major recognitions include: 2025 DARPA Young Faculty Award 2024 ARPA-E IGNIITE Early Career Award RCSA Scialog Fellowship for Automating Chemical Laboratories He mentors graduate students through thesis courses (M S & E 790/890/990) and leads the Autonomous Alloy Discovery Lab, which develops robotic systems for high-throughput experimentation. Current projects target next-generation turbine alloys and environmentally sustainable materials for aerospace, energy, and defense applications.

• Autonomous materials discovery
• Refractory alloys for extreme environments
• Glass forming ability and structure of metallic liquids
• +2 more

Fred A. Kish is the MC Dean Distinguished Professor and Director of the NC State Nanofabrication Facility at North Carolina State University. He holds a Ph.D. in Electrical Engineering from the University of Illinois at Urbana-Champaign (1992). His research focuses on Photonics, Optoelectronic Devices, and Compound Semiconductor Materials , with emphasis on photonic integrated circuits (PICs), quantum information science, and semiconductor material engineering. He has co-invented foundational technologies for LEDs, VCSELs, and large-scale PICs, contributing over $7B in commercialized products. His leadership includes roles at Hewlett-Packard, Agilent Technologies, and Infinera Corporation, where he pioneered optical communication systems. Dr. Kish is a Fellow of the National Academy of Inventors, Optica, and IEEE, and a member of the National Academy of Engineering. His awards include the IEEE David Sarnoff Award and the John S. Risley Entrepreneur of the Year Award. He has authored 170+ peer-reviewed publications, 135+ patents, and 5 book chapters. His current work drives advancements in wide bandgap semiconductors and photonic integration for next-generation communications and sensors. Labs/Teams: Directs the NC State Nanofabrication Facility, a hub for semiconductor innovation. Collaborates on the CLAWS Hub, a $39.4M CHIPS Act-funded regional semiconductor innovation initiative.

• Photonics
• Optoelectronic Devices
• Compound Semiconductor Materials
• +3 more

Debbie Senesky is an Associate Professor at Stanford University in both the Aeronautics and Astronautics Department and the Electrical Engineering Department, as well as a Senior Fellow at the Precourt Institute for Energy. She serves as the Principal Investigator of the EXtreme Environment Microsystems Laboratory (XLab) and Site Director of nano@stanford. Dr. Senesky received her B.S. in mechanical engineering from the University of Southern California (2001), followed by M.S. (2004) and Ph.D. (2007) degrees in mechanical engineering from the University of California, Berkeley. Prior to joining Stanford, she held positions at GE Sensing (formerly NovaSensor), GE Global Research Center, and Hewlett Packard. Her research focuses on developing nanomaterials and electronic systems capable of operating in extreme environments, including high-temperature conditions for Venus exploration, microgravity synthesis of nanomaterials, and harsh environment electronics. Dr. Senesky's work bridges multiple disciplines, connecting aerospace engineering, electrical engineering, materials science, and space technology to solve challenges in extreme environment applications. Dr. Senesky has made significant contributions to the field of high-temperature electronics, GaN-based sensors, graphene aerogel synthesis in microgravity, and materials for space applications. Her recent publications demonstrate a strong focus on practical applications of these technologies, particularly for space exploration and extreme environment sensing. Presidential Early Career Award for Scientists and Engineers (PECASE), NASA (2025) Emerging Leader Abie Award from AnitaB.org (2018) Early Faculty Career Award from NASA (2012) Gabilan Faculty Fellowship Award (2012) Sloan Ph.D. Fellowship (2004-2006) Dr. Senesky actively advises students at all levels, from undergraduate to postdoctoral researchers, and has established herself as a leader in promoting diversity in STEM through her role as Faculty Advisor for the Stanford Chapter of the National Society of Women Engineers. Her collaborative approach is evident in her numerous interdisciplinary projects and partnerships with NASA, industry, and other research institutions. She directs the EXtreme Environment Microsystems Laboratory (XLab), which focuses on developing technologies for operation in extreme environments including high temperature, radiation, and microgravity conditions. The lab's work has applications for space exploration, particularly for Venus missions, as well as terrestrial applications requiring robust electronics.

• Nanomaterials for Extreme Environments
• High-Temperature Electronics
• Venus Exploration Technology
• +5 more

Jason Trelewicz is a Professor at Stony Brook University’s Department of Chemical & Molecular Engineering and holds joint faculty status at Oak Ridge National Laboratory. His research focuses on interface-engineered materials for extreme environments, leveraging advanced processing, characterization tools, and multiscale modeling. He received his Ph.D. in Materials Science from MIT (2008) and previously served as Research Director at MesoScribe Technologies. His work emphasizes fusion materials, nanocrystalline alloys, additive manufacturing, and radiation effects. Awards include the DOE Early Career Award (2017), NSF CAREER Award (2016), and multiple best paper awards (2022). His lab, the Engineered Microstructures and Radiation Effects Laboratory, explores topics like ceramic composite moderators and plasma-facing materials. Education: Ph.D., Materials Science & Engineering, MIT (2008) Affiliations: Oak Ridge National Laboratory (Joint Faculty) Key research areas include thermal-mechanical evaluation of fusion reactor components, alloy design for additive manufacturing, and radiation tolerance of nanocrystalline materials. He has pioneered studies on helium bubble dynamics in tungsten and stability of doped nanocrystalline alloys. Awards: DOE Early Career Award, NSF CAREER Award, 2022 Best Paper Awards in Nuclear Materials and Asian Ceramics. Grants/Projects: Supported by DOE, NSF, and collaborative initiatives with Japan (FRONTIER). His group investigates corrosion behavior in 3D-printed steels and develops novel composite moderators for high-temperature reactors. Ongoing work includes multiscale modeling for fusion materials and in-situ TEM studies of irradiation effects.

• Materials Science
• Nuclear Engineering
• Advanced Materials for Extreme Environments
• +4 more

Mitra Taheri is a Professor in the Department of Materials Science and Engineering at Johns Hopkins University, serving as Director of the Materials Characterization and Processing (MCP) facility and a member of the Hopkins Extreme Materials Institute. She holds affiliations with the Pacific Northwest National Laboratory and the Ralph O’Connor Sustainable Energy Institute. Her research focuses on electron microscopy, particularly in-situ and operando techniques, combined with artificial intelligence to study materials under extreme conditions (e.g., high temperatures, radiation, and oxidation). She aims to accelerate materials discovery by integrating AI with microscopy for real-time analysis. Dr. Taheri earned her BS, MSE, and PhD in Materials Science and Engineering from Carnegie Mellon University. Her work spans corrosion-resistant alloys, additive manufacturing, quantum materials, and biomaterials. Research sponsors include PNNL, JHU, NSF, ARPA-E, and ONR. She leads the Dynamic Characterization Group (DCG), which develops autonomous platforms for materials analysis and explores applications in energy, aerospace, and medical systems. Key research areas include: Design of corrosion-resistant multi-principal element alloys AI-driven microscopy for real-time material behavior insights Additive manufacturing of soft magnetic composites for electric vehicles Biomedical hydrogels for tissue engineering Her team develops novel materials and tools to probe structural, functional, and biological systems across scales, with an emphasis on sustainability and extreme environment applications.

• Materials Science
• Electron Microscopy
• Additive Manufacturing
• +6 more