Professor Nicol McGruer is a Professor in the Department of Electrical and Computer Engineering at Northeastern University, with an affiliation to the Mechanical and Industrial Engineering department. His primary research focuses on MEMS, NEMS, micro/nanofabrication, and related technologies such as RF MEMS, microrelays, and nanoswitches. He directs the Microfabrication Laboratory and Scanning Electron Microscopy Facility. McGruer earned his B.S. in Physics and M.S./Ph.D. in Electrical Engineering from Michigan State University. Notable awards include the Søren Buus Outstanding Research Award and the Joel and Spira Excellence in Teaching Award. His work spans projects like the PLASMID (Plasmonic Microelectromechanical Infrared Digitizer) and Zero-Power Sensor initiatives, funded by DARPA. He has authored numerous high-impact publications in journals like Nature Nanotechnology and IEEE Sensors Journal. Education: Ph.D. in Electrical Engineering, Michigan State University (1983). Research highlights include advancements in microfabrication processes, MEMS device design, and nanoscale material testing. Key collaborations include work with Prof. Matteo Rinaldi on zero-power sensor technologies.
Sangyoung Park is an Assistant Professor of Smart Mobility Systems at the Faculty of Mechanical Engineering and Transport Systems, Technical University of Berlin, and is co-affiliated with the Einstein Center for Digital Future. His research focuses on two main areas: enhancing vehicle safety through digitalization and connectivity, and advancing the electrification of the transport sector with emphasis on electric vehicle battery systems design and management. He leads the Chair of Smart Mobility Systems at TU Berlin, where his team investigates how vehicle connectivity can improve energy efficiency, traffic flow, and safety in autonomous vehicle systems. Dr. Park completed his PhD in Electrical Engineering and Computer Science at Seoul National University in Korea, where he focused on energy management techniques for hybrid energy storage systems in electric vehicles. Before joining TU Berlin in 2018, he conducted postdoctoral research at the Technical University of Munich, working on energy management for smartphones in collaboration with Google and studying battery aging processes. His research interests span smart mobility systems, electric vehicle battery management, energy consumption optimization, vehicle connectivity, and autonomous driving systems. Park's work bridges the gap between design engineers and software engineers, investigating how different energy storage components (fuel cells, supercapacitors, lithium-ion batteries) should be interconnected and managed together for maximum efficiency. His research also addresses the design of charging infrastructure for electric vehicles. Analysis of Dr. Park's recent publications reveals a strong focus on digital twin technology for teleoperated driving, battery management systems for electric vehicles, and vehicle connectivity for improved safety and efficiency. His research increasingly integrates cybersecurity aspects of connected vehicles and explores novel approaches to extend battery lifespan through advanced cell balancing techniques. The interdisciplinary nature of his work connects electrical engineering, computer science, transportation systems, and urban infrastructure planning. Dr. Park supervises multiple doctoral students, including Philipp Kremer, Ongun Türkçüoglu, Kil Young Lee, Maria Claudia Miguel de Priego, Muzaffer Citir, Andrea Reindl, Subhendu Bhadra, and Hueseyin Türkyilmaz. His research is supported by various funding sources including the ECDF grant, DAAD projects (ide3a), and government scholarships. He collaborates with institutions including OTH Regensburg and Siemens Mobility. His laboratory, the Smart Mobility Systems group, focuses on developing system-level approaches for measuring, analyzing, and balancing energy consumption in battery-powered mobile systems. The team investigates how direct communication among autonomous vehicles can enable control scenarios that improve energy efficiency, traffic flow, and safety beyond what human drivers or isolated autonomous vehicles can achieve.
Professor Chike F. Oduoza is a distinguished academic in Process and Manufacturing Engineering at the University of Wolverhampton, Faculty of Science and Engineering, Department of Chemical Engineering. He holds the rank of Professor and serves as the academic lead for chemical engineering, with extensive leadership in research, teaching, and professional service. His educational background includes a PhD in Instrumentation and Control from UMIST (University of Manchester), an MBA from the University of Exeter, and multiple postgraduate qualifications in management, teaching, and chemical engineering. He is a Chartered Engineer, Fellow of the Institution of Chemical Engineers, and Senior Fellow of the Higher Education Academy. His research interests span chemical and manufacturing engineering, with a focus on electroplating, corrosion protection, reactor design, sustainability, life cycle engineering, oil and gas processing, and risk management in industrial and construction sectors. He has developed innovative models for SMEs, particularly in risk assessment and lean-excellence business management. The recent publications reflect a strong trend in sustainable energy systems, risk and safety management, digital transformation in manufacturing and oil & gas, and advanced materials. His work integrates computational modelling, experimental validation, and practical application across industries. Chartered Engineer (CEng), 1996 Fellow, Institution of Chemical Engineers, 2006 Senior Fellow, Higher Education Academy, 2020 Winner, West Midlands Construction Excellence Award (Innovation, 2017) Professor Oduoza has supervised over 30 PhD students and secured significant research funding from EPSRC, EU (FP7, Horizon 2020), and industry. He is currently leading the FLAREMANAGER and PROCEDURE consortia, focusing on flare gas utilization and future process design. His editorial roles include guest editor for Robotics and Computer Integrated Manufacturing and International Journal of Advanced Manufacturing Technology . He has chaired major conferences such as FAIM 2015 and the Electrochemistry and Sustainability Conference (2010). He leads the RiMaCon project, a €1M EU FP7 initiative that developed a risk management software system for SMEs in construction, which won a regional innovation award. His professional memberships include the Engineering Professors Council, SCI Electrochemical and Energy Groups, and the UK Royal Academy of Engineering Ethics Committee.
Dr. Alexander R. Uhl is an Associate Professor at the Okanagan School of Engineering, University of British Columbia, holding the Principal's Research Chair in Solar Energy Conversion. His research focuses on solution-processed solar cells, including chalcogenide and perovskite absorbers, with an emphasis on scalable, low-cost fabrication methods. He has achieved world-record efficiencies in CuIn(S,Se) 2 solar cells. Education: PhD in Materials Science & Engineering from ETH Zurich; Diploma in Nanoscale Engineering from University of Würzburg Postdoctoral Experience: University of Washington (with Hugh Hillhouse) and EPFL (with Michael Grätzel) His research program addresses three key areas: Solution-processed thin film solar cells Tandem photovoltaic devices Photoelectrochemical CO 2 reduction for solar fuels Dr. Uhl has published in journals like Nature Energy , Science Advances , and Advanced Energy Materials , with recent work on 22%+ efficient perovskite cells and rear surface passivation techniques. He has filed two patents on solution-processed chalcogenide solar cells. Scientific Recognition: Principal's Research Chair in Solar Energy Conversion Three-time Swiss National Science Foundation Fellow Invited book chapter on perovskite solar cell counter electrodes He supervises graduate students and teaches courses in materials science and alternative energy systems. His lab (LSEF) develops technologies aiming to surpass coal-equivalent electricity prices through ink-jet printing and high-throughput manufacturing.
Dr. Chris Boyer is an Associate Professor of Practice in the Department of Electrical Engineering at The University of Texas at Arlington (UTA), where he contributes to the new Resource and Energy Engineering program established in 2023. He holds a Ph.D. in Chemical Engineering from Texas A&M University and has over two decades of industry experience, leading R&D teams to commercialize energy technologies. His work includes pioneering projects like the HyVelocity Green Hydrogen plant (2023), KIUC’s PMRF Naval Station Solar & BESS microgrid (2020), and the NASA Helios solar UAV fuel cell program (2002). Since 2011, he has also operated Amber Waves Energy as a principal consultant. His research focuses on the Energy Transition through the Energy 3D framework, addressing Social, Economic, and Technical (SET) factors for sustainable energy systems. Key areas include hydrogen systems, renewable energy scaling, and microgrid development. Teaching interests span hydrogen systems, battery technologies, and project analysis. Dr. Boyer’s articles emphasize thermal management in energy storage, fuel cell innovation, and material science advancements. His career highlights interdisciplinary collaboration across academia and industry, including roles at Lockheed Martin, Shell Global Solutions, and Lynntech, Inc. He is a licensed Professional Engineer in multiple states and an active member of the IEEE and American Institute of Chemical Engineers.
Ishwara Bhat is a Professor in the Department of Electrical, Computer, and Systems Engineering at Rensselaer Polytechnic Institute (RPI). He earned his B.S.E.E. from the Indian Institute of Technology and M.S./Ph.D. in Electrical Engineering from RPI. His research focuses on epitaxial growth and characterization of II-VI, III-V, and IV-IV semiconductors, including wide band gap materials like GaN, SiC, and ZnSe, as well as narrow band semiconductors like HgCdTe and InGaSb. Current projects emphasize silicon carbide epitaxial films for high-power, high-temperature, and high-voltage devices, supported by collaborations with Texas Instruments.
Prof. Dr. Aravind Purushothaman Vellayani is a Professor and Chair of Energy Conversion at the University of Groningen's Faculty of Science and Engineering. He specializes in energy systems, fuel cells, and hydrogen technologies. His research focuses on renewable energy integration, sustainable development, and negative emission technologies. He holds additional roles including Director of Hydrogen Economy at Wubbo Ockels School, Lead of Nature-Based Negative Emissions Program at TU Delft, and advisor to multiple institutions in India and the Netherlands. Education: MSc (University of Oldenburg, Germany) and PhD (TU Delft) in energy systems and fuel cell technologies. Research Interests: Solid oxide fuel cells, biochar production, hydrogen energy, and carbon capture. His work aligns with UN Sustainable Development Goals, particularly climate action and clean energy. Recent publications explore hybrid power systems for marine applications, hydrogen supply for steelmaking, and digital soil carbon mapping. He leads labs and initiatives like the KnowHy Foundation and collaborates internationally on renewable energy projects.
Jean-Daniel Penot is a Researcher at CESI's Research and Innovation Department , with expertise in additive manufacturing, materials science, and industrial integration. His work bridges advanced manufacturing technologies with environmental sustainability and educational innovation. Doctorate in Materials Physics (2010) Engineering Degree in Physics (2007) Research Master in Optoelectronics (2007) Penot's research spans Additive Manufacturing and its applications in automotive, nuclear, and construction sectors. He focuses on Laser-Material Interaction , Machine Learning for process optimization, and Sustainable Engineering through life cycle assessments and geopolymer applications. His recent publications emphasize BIM , AM Modular Plants , and Defect Analysis in 3D-printed metals. Penot leads France Additive initiatives and contributes to International Standards as a board member. Penot supervises PhD students including Maryam Houhou and Amal Khabouchi , with a focus on Industrial Security and Energy Transitions . His projects integrate Thermal Comfort , Ultrasonic Inspection , and Quality Assurance in additive manufacturing systems.
Professor Vassilios Angelidis is a distinguished academic in the field of Electrical Engineering, currently serving as a Professor at the Department of Electrical and Computer Engineering of Democritus University of Thrace. He joined the university in June 2024, bringing with him extensive international experience from prestigious institutions including the University of Glasgow, University of Sydney, University of New South Wales (UNSW), and the Technical University of Denmark. Professor Angelidis received his educational foundation with a degree in Electrical Engineering from Democritus University of Thrace, followed by a Master of Applied Science from Concordia University in Canada, and a PhD from Curtin University in Western Australia. He further enhanced his expertise with an MBA from Curtin Graduate School of Business. His research interests span Power Electronics, Renewable Energy Sources, Electrical Power Systems, and Autonomous Electricity Networks. Professor Angelidis has made significant contributions to the development of advanced power conversion techniques, grid integration of renewable energy sources, and the application of artificial intelligence in power system analysis and prediction. His work has been instrumental in advancing the field of smart grid technologies and sustainable energy systems. An analysis of his recent publications reveals a strong focus on power electronics applications in renewable energy integration, particularly in photovoltaic systems and electric vehicle charging infrastructure. His research demonstrates expertise in developing advanced algorithms for power system monitoring and control, with particular emphasis on frequency estimation, phase angle calculation, and power quality enhancement in modern grids with high penetration of distributed energy resources. Among his notable scientific achievements, Professor Angelidis has been recognized as an IEEE Fellow for his significant contributions to power electronics and the conversion and integration of renewable energy sources into power grids. He has also received the prestigious Advanced Research Fellowship for young researchers from the Engineering and Natural Sciences Council of the United Kingdom. Throughout his career, Professor Angelidis has secured research funding from various organizations across Australia, the United Kingdom, Denmark, China, India, and Malaysia, as well as industry partners with global reach. He has served on the International Councils of Beijing Jiaotong University and Universiti Tenaga Nasional (UNITEN), and currently holds the position of Vice President-elect of the IEEE Power Electronics Community. At Democritus University of Thrace, Professor Angelidis is affiliated with the Electrical Machines Laboratory within the Energy Systems Sector, where he leads research on Control and Diagnostic Methods of Electrical Machines. His current work focuses on advancing the integration of renewable energy sources into electrical power systems while maintaining grid stability and reliability.
Canek Fuentes-Hernandez is Associate Professor of Electrical and Computer Engineering at Northeastern University, leading the electronic Surfaces and Organic Interfaces Laboratory (eSOIL). His research pioneers flexible optoelectronics using earth-abundant materials. Research develops skin-like photodetectors, self-powered sensing surfaces, and recyclable solar cells. Innovations include elastomeric organic photodiodes with mechanical compliance matching human skin and computational photodetectors for activity recognition. Publications demonstrate breakthroughs in low-noise detection, with Science papers on large-area photodiodes capable of detecting faint light. Recent work explores depth-sensing surfaces and contact engineering for next-generation organic photovoltaics. Teaching includes courses on organic electronics and capstone design. Recognized through PEAK Experiences Awards for undergraduate researchers mentored in his laboratory.
Timothy J. Silverman is a Senior Scientist and Research Fellow at the National Renewable Energy Laboratory (NREL), specializing in photovoltaic technologies and solar panel reliability. His work focuses on degradation mechanisms, accelerated testing methods, and enhancing solar energy production. Education: Bachelor’s in Mechanical Engineering, Arizona State University PhD in Mechanical Engineering, University of Texas at Austin Research Interests: Photovoltaic module durability under mechanical, thermal, and chemical stress Accelerated testing for degradation (electroluminescence/photoluminescence imaging) Performance analysis of emerging PV technologies (perovskite, III-V, CIGS) Strategic analysis for DOE Solar Energy Technologies Office Scientific Awards: PECASE (Presidential Early Career Award for Scientists and Engineers) NREL Distinguished Member of Research Staff (2024) Collaborations: Active in cross-institutional research on photovoltaics, thin films, and metal halide perovskites.
Eric Pop is a Professor of Electrical Engineering and (by courtesy) Materials Science & Engineering at Stanford University's School of Engineering, where he leads the SystemX Heterogeneous Integration focus area. Previously, he served on the faculty at the University of Illinois at Urbana-Champaign (2007-2013) and worked at Intel Corporation (2005-2007). His academic background includes a PhD in Electrical Engineering from Stanford University (2005) and three degrees from MIT: MEng and BS in Electrical Engineering, and BS in Physics. His educational credentials: PhD in Electrical Engineering, Stanford University, 2005 MEng in Electrical Engineering, MIT BS in Electrical Engineering, MIT BS in Physics, MIT Professor Pop's research centers on the intersection of electronics, nanomaterials, and energy, with pioneering contributions to 2D materials (particularly transition metal dichalcogenides), semiconductor device physics, and thermal management. His work addresses critical challenges in contact engineering for atomically thin semiconductors, stability of oxide transistors, and energy-efficient neuromorphic systems. Current projects explore solvent doping techniques, strain engineering, and machine learning-assisted device characterization to enable next-generation electronics. Analysis of his 2023-2025 publications reveals dominant themes in 2D semiconductor transistors, oxide device reliability, and neuromorphic computing architectures. Key trends include the integration of hyperspectral microscopy for rapid material characterization, Monte Carlo simulations for thermal-electrical transport, and phase-change materials for artificial neurons. His research consistently bridges fundamental material science with practical device engineering, emphasizing industrial scalability and low-power operation. His scientific honors include: Presidential Early Career Award for Scientists and Engineers (PECASE) Young Investigator Awards from ONR, AFOSR, NSF, and DARPA Multiple best paper and best poster awards at international conferences with students Professor Pop actively mentors PhD and Master's students through directed research courses (EE 190/191/390/391), fostering award-winning projects in semiconductor device innovation. His research program is supported by substantial grants from federal agencies including NSF, DARPA, and the Department of Defense, with recent work focusing on heterogeneous integration and thermal management for 3D circuits. As Editor of 2D Materials and former General Chair of the Device Research Conference, he significantly influences the semiconductor research community. He directs the Pop Lab (poplab.stanford.edu), which maintains advanced nanofabrication and characterization facilities for semiconductor research. Current initiatives include developing flexible radio-frequency transistors exceeding 100 GHz, scalable production of transition metal dichalcogenide solar cells, and AI-accelerated thermal simulation pipelines for integrated circuit design. The lab's collaborative environment bridges electrical engineering, materials science, and computer science to address semiconductor industry challenges.
Vincenzo Maria Sglavo is a Full Professor of Materials Science and Technology at the Department of Industrial Engineering , University of Trento , Italy. He coordinates the Doctoral Program in Industrial Innovation (M.D. 45/2013) and has held academic appointments at The Pennsylvania State University (Postdoctoral Fellow, 1993-1994) and as Adjunct Professor there (2001). His career spans over three decades, including roles as Assistant Professor (1989-1999) and Associate Professor (1999-2018) at the University of Trento. Education: Master’s in Materials Engineering (cum laude), University of Trento (1988) Research Interests focus on glasses and ceramics , with expertise in fatigue and fracture mechanics , chemical strengthening , high-strength ceramics , flash and cold sintering , solid oxide fuel cells (SOFC/SOEC), and 3D printing of inorganics . His work bridges fundamental material behavior and industrial applications, particularly in energy, construction, and biomedical fields. Recent publications highlight innovations in ultrafast high-temperature sintering for ceramics, 3D-printed alumina , alkali-activated limestone for construction, and plasma-assisted ammonia synthesis . He explores entropy-stabilized composites, glass joining techniques, and iron speciation effects in aluminosilicates. Scientific Awards include the AIMAT Prize (1996) AIAS Prize (2000) Outstanding Reviewer Award, Scripta Materialia (2019) Pfeil Award (2022) Nanomaterials 2023 Best Paper (Second Award) Fellow, European Ceramic Society (2023) Advising and Grants: He has advised 34 PhD students and over 100 Master’s theses , managing 50+ research projects funded by NATO, the EU, MUR, and private companies. His editorial roles include Associate Editor for the Journal of the American Ceramic Society and Frontiers in Ceramics . Labs and Teams: He collaborates with institutions like the Joint Research Centre (EC) , Universidade de San Carlos , and Instituto de Cerámica y Vidrio . His work integrates academic research with industrial consultancy, addressing technical challenges in ceramics, glass, and sustainable materials.
Professor Mike Jennings is a faculty member in the Department of Electronic and Electrical Engineering at Swansea University, part of the Faculty of Science and Engineering. His research focuses on wide bandgap semiconductor materials such as silicon carbide (SiC), gallium oxide (Ga2O3), and gallium nitride (GaN), with an emphasis on energy-efficient power electronics applications. He has extensive experience in silicon carbide power electronics since 2003 and has explored the commercial viability of ultra-wide bandgap gallium oxide for power devices. His work involves collaborations with industrial partners to bridge material science and practical device manufacturing. Research Interests His expertise encompasses power semiconductor device physics, wide bandgap materials, electrical characterization, and reliability analysis. Key areas include the manufacturability of SiC technologies, interface engineering in MOS devices, and novel trench processing techniques for automotive applications. Recent projects highlight advancements in Ga2O3 materials for high-efficiency power electronics and the development of reliable SiC MOSFETs. Articles Trends Recent publications span from 2017 to 2023, focusing on SiC and Ga2O3 device reliability, trench processing innovations, and material interface studies. Notable themes include optimizing breakdown voltage in vertical JFETs, enhancing MOS capacitor stability, and exploring Ga2O3's potential for photovoltaics and transparent electronics. Scientific Contributions Professor Jennings has supervised numerous postgraduate research projects, including studies on non-contact film characterization of semiconductors and advanced silicon carbide plasma etch processes. His work integrates academic and industrial insights to address challenges in power electronics efficiency and scalability. Labs & Teams He contributes to research teams at Swansea University's facilities, leveraging partnerships with industry to advance semiconductor technologies. His involvement in the Morgan Advanced Studies Institute (MASI) and collaborations highlight his role in interdisciplinary innovation.
Richard Arès is a professor at the University of Montreal specializing in semiconductor epitaxy, photovoltaics, and photonics. His research spans electrical engineering, mechanical engineering, and condensed matter physics. Doctorate in Physics from Simon Fraser University (1998) Master's in Physics from Université de Montréal (1993) Bachelor's in Physics from Université de Montréal (1990) His work focuses on: Advanced semiconductor growth techniques High-efficiency multi-junction solar cells Photonics device fabrication Nanomaterials engineering Surface and interface analysis Process control in ultra-high vacuum environments Recent publications highlight expertise in: Through-cell via contacts for photovoltaics Quantum dot enhanced solar cells Mesoporous semiconductor structures Nonlinear optical waveguides Temperature-sensitive epitaxy processes
