Isabelle Favre is a researcher at IMS Bordeaux - Integration: from Material to Systems laboratory , affiliated with Université de Bordeaux . Her work focuses on Microelectronics , Semiconductor Devices , and Reliability Engineering , particularly in automotive power electronics and thermal management. Key Research Themes : Microelectronics, Semiconductor Reliability, Thermal Analysis, Power Packaging Collaborative Projects : Involvement in hybrid circuits and sensor fabrication initiatives Her recent publications highlight advancements in printed electronics , silver sintering , and thermo-mechanical modeling for automotive applications. She has co-authored multiple conference proceedings and journal articles since 2007. No scientific awards or student advisement details were explicitly mentioned in the available data.
Dr. Shubhra Bansal is an Associate Professor at Purdue University with a joint appointment in the School of Mechanical Engineering and School of Materials Engineering. Her research focuses on renewable energy materials, electro-thermo-mechanical reliability, and heterogeneous integration in semiconductor packaging. She holds a B.S. in Metallurgical & Materials Engineering from IIT Roorkee, India, and M.S./Ph.D. in Materials Science from Georgia Tech. Before joining Purdue, she worked at UNLV and GE Global Research, and advised the Obama administration’s SunShot Initiative. Her awards include NSF CAREER, NASA and DOE fellowships, and multiple patents. Research interests include sustainable PV materials, Pb-free solders, and advanced packaging reliability. She leads the EMRSL Research Group, exploring topics like perovskite stability, thermal interface materials, and recycling methods. Her work is funded by NSF, DOE, DARPA, and DoD. She serves as Associate Editor for Solar Energy and IEEE Journal of Photovoltaics . Current projects emphasize in-situ testing, materials sustainability, and workforce training in semiconductor packaging. Over 15 patents and 100+ publications reflect her impact in energy and electronics fields.
Eric Dalton is a Lecturer in the School of Engineering at the University of Limerick. His research spans materials development, system reliability, thermal management of electronics, and biomedical microfluidics. He has collaborated with organizations like NASA, ESA, and MIT on advanced cooling systems and nanomaterials. Dr. Dalton holds a Doctor of Philosophy (2005) and a Bachelor of Science (1999). He teaches modules including Energy Storage, Semiconductor I, and Semiconductor II. His work focuses on nanomaterial characterization (e.g., thermoelectric nanowires), electronic reliability (solder joint analysis), and thermal interface materials for microelectronics. Key research areas include: Ultra-long nanowire production using diamond synchrotron analysis. Phase-changing thermal interface materials for fiber optic lasers. Microfluidic bio-reactors for genetic diagnostics. His recent publications highlight advancements in thermoelectric device measurement, magnetic micropump performance, and carbon nanotube composites. He has contributed to industry standards like the IPC creep corrosion guideline and engaged in innovation partnerships with global companies. Dr. Dalton’s work aligns with UN Sustainable Development Goals, particularly through sustainable materials innovation and advanced thermal management solutions for electronics.
Nicole Okamoto is the Associate Dean for Undergraduate Programs and Student Success at San José State University's College of Engineering. She holds a PhD in Mechanical Engineering from the University of Illinois Urbana-Champaign, where her research focused on heat transfer in louvered-fin arrays. Prior to her administrative role, she served as a professor of Mechanical Engineering and department chair. Her teaching spans thermodynamics, heat transfer, and electronics cooling courses like ME 146 and ME 115. Education: Bachelor of Science in Engineering, Calvin College (1993) Master of Science in Mechanical Engineering, University of Illinois Urbana-Champaign (1990s) Doctor of Philosophy in Mechanical Engineering, University of Illinois Urbana-Champaign (1999) Research Interests: Nicole specializes in thermal management of electronics, heat transfer, data center cooling, and high-altitude thermal systems. Her work includes experimental and computational studies on heat sinks, thermal interface materials, and airflow optimization. She directs the Center for Thermal Management Research, which collaborates with industry partners like Lockheed Martin and Hewlett Packard. Grants & Projects: NSF-funded development of thermal management laboratory curricula California State Research Funds: Microchannel heat transfer analysis NASA-related projects on satellite thermal control systems Labs & Teams: As director of the Center for Thermal Management Research, Nicole oversees facilities including a high-altitude thermal testing chamber, airflow measurement systems, and advanced computational tools (ANSYS, EES). The lab focuses on cooling solutions for electronics, data centers, and aerospace applications.
Dr. John Christy is the Assistant Director of Learning & Teaching (Curriculum Delivery) at the University of Edinburgh's School of Engineering. He holds a PhD from the University of Edinburgh, focusing on fluid mechanics and thrombosis research. His academic roles include teaching courses such as Process Synthesis, Plant Engineering, Polymer Science, and Separation Processes. Christy's research interests span unsteady state fluid mechanics, pre-clinical thrombosis testing, and flow instabilities in boiling heat transfer, with applications in microelectronics cooling. He has led or contributed to significant projects, including the EPSRC-funded EMBOSS initiative on boiling surfaces and the EU-supported ThermaSMART project for microprocessor thermal management. His recent work integrates artificial intelligence for medical diagnostics and explores evaporation dynamics in biomedical contexts. Christy serves as the Undergraduate Selector and Convenor of the Chemical Engineering Board of Examiners, reflecting his commitment to academic governance and student development.
Feng Xiong is an Associate Professor at the Swanson School of Engineering, University of Pittsburgh. His research focuses on materials science, nanotechnology, and neuromorphic computing, with contributions to thermoelectrics, biomedical sensors, and semiconductor devices. He holds a postdoctoral fellowship from Stanford (2014–2016) and has received prestigious awards such as the Materials Research Society’s Gold Award (2014) and the Chinese Government Overseas Scholarship (2012). Education: Not explicitly listed in provided text, but includes notable fellowships at UIUC and National University of Singapore. Research Interests: Xiong’s work spans interdisciplinary areas including phase-change materials, bio-inspired neuromorphic systems, and energy-efficient electronics. His innovations in DNA-based doping and thermoelectric cooling aim to advance semiconductor and biomedical technologies. Awards and Honors: Nano- and Quantum Science Postdoctoral Fellowship, Stanford Materials Research Society Gold Award Hong, McCully, and Allen Fellowship, UIUC Multiple academic recognitions from China and Taiwan Advising & Grants: No student advisees listed. Research supported through institutional and industrial collaborations. Labs/Teams: Active in University of Pittsburgh’s nanotechnology and materials engineering research groups.
François Blanchard is a Professor in the Department of Electrical Engineering at École de technologie supérieure (ÉTS) in Montreal, Quebec. He leads the Canada Research Chair in Spatiotemporal Encryption of Terahertz Light Assisted by Computational Method and is affiliated with multiple research laboratories including LACIME (Communications and Microelectronic Integration Laboratory) and TeraÉTS Laboratory. His research focuses on advancing terahertz technology through innovative detection, imaging, and signal processing techniques. Dr. Blanchard's research interests span across terahertz science and technology, with emphasis on optoelectronics, THz spectroscopy and imaging, metamaterials, material characterization, laser technology, optical metrology, and quantum engineering. His work integrates theoretical modeling with experimental development to push the boundaries of terahertz applications in various fields including security, materials science, and communications. He has developed novel approaches combining active microelectronics with terahertz wave generation and detection through nonlinear effects, along with advanced signal processing techniques. His research program aims to achieve detection sensitivity down to the single THz photon level at room temperature, develop real-time THz detection systems with integrated spatiotemporal coding, advance multispectral THz imaging using frequency selective surfaces, explore nonlinear modeling of THz systems using chaos theory, and integrate artificial intelligence for enhanced system performance. A cornerstone of his approach involves lithium niobate photonic platforms enabling scalable, efficient, and room-temperature operation. Scientific Awards: Canada Research Chair in Spatiotemporal Encryption of Terahertz Light Assisted by Computational Method Dr. Blanchard actively supervises numerous graduate students across various research projects. His students work on topics including quality control of printed electronics using terahertz radiation, development of novel metrology methods for time domain THz spectroscopy systems, photonics solutions for THz systems based on ytterbium laser technologies, terahertz imaging systems, active terahertz metasurfaces, and deep learning enabled computer vision for terahertz radiation detection. He has secured significant research funding to advance quantum detection of terahertz light and develop applied research in quantum sciences. He leads several research teams operating within specialized laboratories including LACIME, which focuses on six areas of expertise from functional materials to communication protocols. His TeraÉTS Laboratory specializes in terahertz technology development, and his Canada Research Chair team combines innovative ideas in active microelectronics with terahertz wave generation and detection.
Dr. Luc Fréchette is a Full Professor and Scientific Director at the Université de Sherbrooke's School of Engineering, Department of Mechanical Engineering. His career spans roles as Associate Professor (2007-2009), Director (2015-2019), and Founding Director (2012-2017). He holds a PhD in Mechanical Engineering (MIT, 2000), an MS (MIT, 1997), and a BEng (École Polytechnique de Montréal, 1994). Research Interests: Focused on micro/nanofabrication for energy systems, including MEMS turbines, microfluidic cooling, thermoelectrics, and solar-hydrogen conversion. His work bridges mechanical engineering, materials science, and applied physics. MEMS turbines for power generation Self-adaptive microfluidic cooling Nanomaterials for thermal management Low-Reynolds fluid dynamics Hybrid CPV-desalination systems Wafer bonding for MEMS reliability Article Trends: Recent publications emphasize microchannel cooling, thermoelectric generators, and MEMS for energy harvesting. Themes include fluid-structure interactions, nanofluid thermal properties, and adaptive cooling solutions for electronics. Scientific Awards: NSERC/Teledyne DALSA Chair (2024) ADRIQ Partnership Prize (2015) Multiple ASME/PowerMEMS Best Paper/Poster Awards (2014-2022) Canada Research Chair (2004-2014) FCAR Scholarships (1996, 2000) Grants: Led projects on solar microreactors, polymer heat pipes, thermoelectrics, and microfluidic cooling, funded by NSERC, MITACS, Aligo, and European Commission Horizon Europe.
Umesh Mogera is a Researcher at the Department of Physics and Astronomy within the University of Pennsylvania's School of Arts & Sciences. His work focuses on advanced materials science, nanotechnology, and energy storage systems. Key areas of interest include graphene-based devices, plasmonic sensors, supramolecular nanofibers, and wearable biomedical technologies. He has contributed to breakthroughs in twisted multilayer graphene properties, high-performance supercapacitors, and innovative microfluidic systems for health monitoring. Research highlights include developing defect-free graphene supercapacitors (2022), wearable plasmonic paper-based biosensors (2022), and studies on graphene-Ni interactions enhancing magnetic properties (2018). His work bridges fundamental physics with applied engineering, addressing challenges in energy storage, thermal management, and biomedical diagnostics. Recent contributions (2025) focus on continuous biofluid analysis via wearable plasmonic platforms. Publications span from 2009 to 2025, with a strong emphasis on nanomaterials synthesis, characterization, and applications in electronics, energy, and healthcare. Collaborative efforts include semiconductor interconnect innovations (2020) and self-assembled organic charge-transfer complexes (2019). His research portfolio reflects a commitment to advancing both theoretical understanding and practical implementations of nanoscale systems.
Professor Christine Charles is Head of the Space Plasma, Power and Propulsion Laboratory at the Australian National University (ANU). She holds a French Engineering degree in applied physics, a PhD in plasma physics, a French Habilitation in materials science, and an ANU Bachelor of Music in Jazz. Her research focuses on experimental expanding plasmas and their applications in space propulsion, materials science, and bioengineering. Key projects include the Helicon Double Layer Thruster and the QB50 CubeSat mission. She has published over 200 articles and been recognized with prestigious awards, including Fellowships from the American Physical Society and the Australian Academy of Science. Her work spans plasma thrusters, hydrogen fuel cells, and plasma-based biomedical innovations. Education: French Engineering degree, PhD in Plasma Physics, Habilitation in Materials Science, ANU Music degree. Research interests include plasma-ion acceleration mechanisms, CubeSat propulsion systems, plasma jets for wound healing, and nanomaterials for fuel cells. She actively collaborates with international teams, such as the University of Orléans for hydrogen fuel cell research. Her lab develops advanced plasma models for microelectronics and photonics applications. Scientific awards include the 2015 Women in Industry Excellence Award and TEDx Canberra speaking engagement. Her grants and projects involve space debris removal, plasma thruster optimization, and plasma-catalyzed ammonia synthesis. She leads the Space Plasma group and contributes to public science outreach through media and lectures. Labs/Teams: Head of ANU’s Space Plasma Lab, collaborations with Neumann Space, and international academic partnerships. Future work includes advancing electrode-less thrusters and plasma applications in healthcare and energy sectors.
Chandrakant P. Ganatra is a Professor at Delaware State University, holding an MBA in General Management and an MSc in Chemical Engineering from Syracuse University. He is a licensed Professional Engineer in New Jersey with over 30 years of global industrial experience across sectors like cement, filtration, and electronics. His research spans International Business, Strategic Management, and Environmental Engineering, with a focus on bridging academic theory with industry applications. Education includes a B.Tech. in Chemical Engineering from IIT Mumbai (1976), an MS in Chemical Engineering from Syracuse University (1978), and an MBA from Delaware State University (2009). His dissertation explored market segmentation strategies and environmental engineering applications in aerosol therapy. Research interests integrate business strategy with technical innovation, emphasizing sustainability and industry readiness for students. His 30+ publications span international conferences on filtration systems, materials science, and optoelectronics. Notable works include optimizing flange joints, LCP film applications, and reducing industrial emissions. Teaching focuses on experiential learning, such as student-led interviews with Fortune 500 executives to enhance employability. He actively promotes design thinking, leadership, and industry collaboration in courses like Strategic Management and International Business.
Prof. Michael Niedermayer holds a dual Ph.D. in Electrical Engineering and Economics from TU Berlin. He is a Professor at the Berlin School of Economics and Law (BHT) within the Department of Electrical Engineering and Mechatronics, specializing in sensor technology, wireless networks, and cost-driven microsystem design. His research focuses on self-sufficient sensor systems, energy-efficient networks, and industrial automation. He leads the Technology-Oriented Design Methods group at the Fraunhofer Institute for Reliability and Microintegration. He chairs the IARIA/IEEE ALLSENSORS conference series (since 2017) and serves on technical committees for sensor technology conferences globally. His work includes over 20 patents, including innovations in electronic circuit manufacturing, sensor networks, and cooling systems for microelectronics. Publications highlight his contributions to cloud-based sensor networks, failure prediction systems, and cost optimization methodologies. His book Cost-Driven Design of Smart Microsystems (2011) is a seminal work in the field. Awards include the 2013 Best Paper Award at SENSORCOMM for his work on self-sufficient sensor systems. Teaching spans courses like 'Fundamentals of Measurement Technology,' 'Sensor Networks,' and 'Intelligent Sensors,' reflecting his expertise in both theoretical and applied aspects of electrical engineering.
Ahmed Busnaina is a University Distinguished Professor and WL Smith Chair in the Department of Mechanical and Industrial Engineering at Northeastern University, Boston, MA. He serves as Director of the Center for High-Rate Nanomanufacturing (CHN) and is affiliated with the Electrical and Computer Engineering Department. His research focuses on nanomanufacturing, semiconductor defects, flexible electronics, and energy systems. PhD in Mechanical Engineering (1983), Oklahoma State University Busnaina's work spans nanoscale printing, power electronics, RF devices, and environmental safety of nanotechnology. He has pioneered high-rate nanomanufacturing techniques, including directed assembly of nanomaterials for sensors and batteries. His patents address semiconductor manufacturing, gas detection, and 3D nanostructures. Recent projects include scalable fabrication of flexible electronics and lithium-ion battery innovations. Selected research trends from publications include advancements in nanoprinting with silver nanoparticles (2025) metamaterial-based gas sensors (2025) humidity-controlled assembly for sub-microscale electronics (2024) interfacial convective assembly for high-aspect-ratio structures (2023) . Scientific honors include: William T. Ennor Manufacturing Technology Award (2020) Fellow, National Academy of Inventors (2018) Willis J. Whitfield Award (2013) ASME Fellow (1996) Fulbright Senior Scholar (1993-1994) . Busnaina leads the Center for High-Rate Nanomanufacturing (CHN) , which develops scalable methods for assembling nanoelements into functional systems, addressing environmental and regulatory challenges in nanotechnology commercialization.
Amir Sajjad Bahman is an Associate Professor at the Center of Reliable Power Electronics (CORPE), Aalborg University, Denmark. His research focuses on reliability, electro-thermo-mechanical modeling, and thermal management of power electronic systems. He holds a B.Sc. from Iran University of Science and Technology (2008), an M.Sc. from Chalmers University of Technology (2011), and a Ph.D. from Aalborg University (2015). He has held roles including Visiting Scholar at the University of Arkansas (2014) and Thermal Engineer at Danfoss Silicon Power (2014). Bahman is a Senior Member of IEEE and serves as an Associate Editor for IEEE Transactions on Transportation Electrification and Elsevier Microelectronics Reliability. He leads the Reliability of Power Electronic Components (REPEC) research group and coordinates the Danish Power Electronics Reliability Test Facilities (X-Power). His work addresses WBG devices, physics-of-failure analysis, and multiphysics modeling, contributing to UN Sustainable Development Goals related to sustainable energy and industry innovation. Research interests include reliability testing, thermal design, and failure mode analysis of power electronics components. Key projects include TEAMING (predictive maintenance for e-powertrains) and ALL2GaN (affordable GaN IC solutions). Over 75 publications span topics like thermal network models, mission profile analysis, and semiconductor aging. His contributions advance energy-efficient power systems and sustainable technologies.
Chuan-Hua Chen is an Associate Professor in the Department of Mechanical Engineering and Materials Science at Duke University, where he directs the Microscale Physicochemical Hydrodynamics Laboratory (µPHYL). He holds the Thomas Lord Departmental title and is a Hunt Faculty Scholar. His research focuses on experimental and theoretical investigations of small-scale physicochemical hydrodynamics, with applications in bioanalytical assays and microelectronics cooling. He received his B.S. from Peking University and Ph.D. from Stanford University, followed by postdoctoral work at Princeton University and a role at Rockwell Scientific Company. Key research interests include manipulating surface tension through electric fields and surface structures, with contributions to droplet actuation, thermal management, and biomimetic systems. Chen has been awarded the NSF CAREER Award and DARPA Young Faculty Award. His teaching includes courses on fluid mechanics, heat transfer, and independent research supervision. Notable publications explore droplet dynamics, condensation mechanisms, and thermal diodes. Lab members include graduate students Alex Guo and Kris Wiedenheft, and undergraduates Maya Patel and Curran Shah. The lab’s work has been covered in media such as The New York Times and Science .
