Professor Herbert Zirath is affiliated with the Department of Microtechnology and Nanoscience (MC2) at Chalmers University, Sweden , where he has held the Chair in High Speed Electronics since 1996. His research focuses on MMIC design for millimeterwave/sub-THz applications using III-V and silicon technologies, with current involvement in EU projects like 6GTandem , CoreNext , and TeraGreen targeting SiGe BiCMOS-based RFIC solutions for high data rate communication. Author/co-author of 530+ refereed papers Holder of 5 patents in high-frequency electronics Expert in semiconductor technologies: InP DHBT, GaN HEMT, SiGe BiCMOS Recent work includes polymer microwave fiber communication systems (e.g., 48 Gbps D-band links), sub-THz packaging solutions (EBG structures, glide-symmetric waveguides), and graphene FET applications in microwave detection. His team develops energy-efficient transceivers and low-loss chip-to-waveguide transitions for next-generation wireless infrastructure.
Lisandra Flach serves as Head of the ifo Center for International Economics and Professor of Economics, especially Economics of Globalization, at the Faculty of Economics, Ludwig Maximilian University of Munich since July 2020. Previously, she held positions as Temporary Academic Councillor (2014-2020) and Postdoctoral Researcher (2011-2012) at LMU. Her educational background includes a PhD in Economics (summa cum laude) from the University of Mannheim (2007-2012), an Affiliate Graduate Student position at UC San Diego (2010), and dual undergraduate degrees in Economics and Business Administration from Brazilian universities (UFSC and UDESC/ESAG, 2001-2006). Flach's research focuses on empirical foreign trade economics, with particular expertise in trade policy, global value chains, supply chain resilience, and the economic effects of trade agreements. Her work bridges theoretical trade models with empirical analysis of real-world trade dynamics, examining how firms respond to trade policy changes and global disruptions. Analysis of her publication record reveals consistent contributions to top international economics journals, with recent work increasingly addressing contemporary challenges including supply chain disruptions, geopolitical trade tensions, and the economic implications of US-China trade relations. Her research demonstrates methodological sophistication in analyzing multi-product firm behavior and trade price formation. Capital Top 40 under 40 (2021, 2022) Handelsblatt 100 Frauen die Deutschland bewegen (2021) Wirtschaftswoche 10 Deutschlands spannende Nachwuchs-Ökonomen (2021) Modigliani Research Grant (2018) DFG Research Grant (2016-2018) Brazilian Prize in Economics (2007) Flach leads numerous research projects funded by entities including the European Commission, German Federal Ministry for Economic Affairs and Climate Action, and industry associations. Her current projects examine semiconductor industry economics, resource substitution trade, German industry global value chains, and EU internal market integration. She serves as Associate Editor for the Journal of Comparative Economics and Review of International Economics, and participates in multiple scientific advisory boards including the Research in International Economics and Finance network. Her leadership extends to directing the ifo Center for International Economics, where her team produces influential policy analysis on trade policy, supply chain resilience, and Germany's position in global trade networks. Recent work includes high-impact studies on German dependency on Chinese imports, maritime chokepoint vulnerabilities, and the economic consequences of potential Trump administration trade policies.
Fatemeh Babaeian is a Research Fellow in the Department of Electrical and Computer Systems Engineering at Monash University. She holds a PhD from Monash University (2016–2020), focusing on advanced electromagnetic systems. Her expertise spans applied electromagnetics, high-power microwave systems, RF sensing, antenna design, and signal processing, with notable contributions to chipless RFID technologies and cascaded oscillator modeling. Research interests include high-power RF systems, antenna-oscillator interaction modeling, and innovative RFID applications for sensor networks and secure communications. Her work addresses challenges in microwave engineering, terahertz systems, and inverse scattering problems, leveraging hybrid optimization algorithms and metamaterial principles. Fatemeh has published over 29 peer-reviewed articles, including seminal works on switched oscillator performance evaluation and phase shifter designs. She received the Postgraduate Publications Award (2020) for her impactful contributions. Current research emphasizes antenna-circuit co-design methodologies and high-data-capacity RFID systems for emerging IoT and industrial applications. Collaborations span global institutions, with active projects in high-power microwave systems, THz antenna arrays, and orientation-insensitive RFID tag innovations. She actively supervises PhD students and contributes to interdisciplinary research bridging electromagnetic theory and practical engineering solutions.
Prof. Dr. Siegfried Blechert is a Professor at the Institute of Chemistry, Technische Universität Berlin, specializing in homogeneous catalysis, organic synthesis, and natural product synthesis. He is affiliated with the Organic Chemistry Research Group within Faculty II (Mathematics and Natural Sciences). His research focuses include catalyst development, alternating copolymerizations, and substrate synthesis, with contributions to UniCat (Cluster of Excellence for Unifying Systems in Catalysis). His work emphasizes sustainable chemistry and photocatalytic processes, as evidenced by publications in journals like Energy Technology and Angewandte Chemie International Edition. Blechert’s lab has developed novel catalysts for reactions such as hydroamination and ring-closing metathesis. He collaborates with institutions like the Fritz Haber Institute and leads projects on energy-efficient chemical processes. Research interests span the design of microporous polymer networks, light-driven reactions, and transition metal complexes. His team investigates catalysts for hydrogen evolution and C-C bond formation, with applications in green chemistry and renewable energy. Blechert’s work bridges fundamental catalytic mechanisms with industrial applications, including collaborations with companies like ORAFOL Europe and B. Braun Melsungen AG. He has contributed to initiatives like the Green Chemistry East network, promoting sustainable chemistry in Eastern Germany. His publications highlight advancements in organocatalysts, carbon nitride semiconductors, and metal-organic frameworks, reflecting a commitment to both academic and applied research. Blechert’s group is involved in training programs, such as the ChemClub and ChemKids, fostering interest in chemistry among students. Despite no explicitly listed awards, his contributions to catalysis research have been recognized through institutional collaborations and funding in sustainable chemistry.
Professor Mona Hella was a Full Professor in the Department of Electrical, Computer, and Systems Engineering (ECSE) at Rensselaer Polytechnic Institute (RPI), part of the School of Engineering. Her roles included leading RPI’s Chips Initiative and collaborations with industries such as Qorvo Inc. and GlobalFoundries. She held a PhD in Electrical Engineering from Ohio State University (2001) and joined RPI in 2004 after industry work in RF design. Notable recognitions include a Fulbright Scholarship (2015) and IEEE Senior Member status (2016). Her research focused on integrated circuits (IC) design, high-frequency systems (RF/mm-Wave/THz), power management, and biomedical applications. Collaborations spanned departments like Mechanical Engineering and Biomedical Engineering, leveraging clean rooms at RPI, Cornell, and MIT Lincoln Labs. She pioneered IC design education, establishing ECSE’s analog and RF curricula and leading the ECSE Maker Space and Mercer Lab. Research outputs included over 150 peer-reviewed publications, 5 patents, and industry partnerships with Analog Devices and Efabless. Her work emphasized THz gas sensing, silicon photonics, and energy-efficient circuits. A commemorative event highlighted her legacy as a mentor to 14 PhD, 8 master’s students, and many undergraduates, many of whom now lead roles in semiconductor and tech industries. Awards : Fulbright Scholar (2015), IEEE Senior Member (2016) Labs/Teams : ECSE Maker Space, Mercer Lab, Collaborations with MIT, Cornell, and international foundries Grants/Contracts : Supported by GlobalFoundries, TSMC, Fraunhofer Institute, and others
Dr. Jibran Khaliq is an Associate Professor in the Department of Mechanical and Construction Engineering at Northumbria University. He specializes in smart materials, including ceramics, polymers, and composites, with a focus on functional properties and advanced material design. His work spans energy materials, biomedical applications, and nanocomposites. Education: Ph.D. in Advanced Energy Materials, Queen Mary University of London (2014) MSc in Materials and Surface Engineering, National University of Science and Technology, Islamabad (Pakistan) BEng in Metallurgical and Materials Engineering, University of Engineering and Technology Lahore (Pakistan) Research Interests: Development of advanced dielectric ceramics for microwave and electronic applications Smart materials for sensing and actuation Thermoelectric and piezoelectric composites Nanostructured materials for biomedical and energy storage systems Grants and Funding: Total research income exceeding £1M Notable projects include Royal Society (£12,000, PI), Innovate UK (£291,919 and £228,223), and British Council Institutional Link (£297,286) Labs/Teams: While specific lab names are not mentioned, his work involves collaborations in advanced materials synthesis and characterization, likely through Northumbria's research facilities.
Katharine Hunter is Assistant Professor of Teaching in Mechanical and Aerospace Engineering at University at Buffalo School of Engineering and Applied Sciences, specializing in plasma-based nanomaterial synthesis. Research develops nonthermal plasma techniques for quantum dot fabrication, core-shell nanostructures, and doped semiconductor nanocrystals. Recent advances include silicon-germanium heterostructures with tailored optoelectronic properties and plasmonic behavior in doped silicon nanocrystals. Experimental approaches combine plasma reactor design with advanced characterization methods including STEM-EDX mapping, high-energy XRD, and electron energy loss spectroscopy. Focuses on scalable green synthesis of functional nanomaterials. Teaching emphasizes hands-on laboratory instruction in vacuum technology, plasma processing, and nanofabrication methods. Education includes PhD in Mechanical Engineering (University of Minnesota), MS in Physics (Caltech), and BS in Physics (US Air Force Academy).
Kristofer Reyes is an Associate Professor in the Department of Materials Design and Innovation at the University at Buffalo (School of Engineering and Applied Sciences). His research focuses on computational and statistical methods applied to materials science, particularly in developing machine learning frameworks for small-data regimes. He leads the Computational and Statistical Material Science (CSMS) Lab, which emphasizes Bayesian models, reinforcement learning, and fusion of physics-based knowledge. Education: PhD in Applied and Interdisciplinary Mathematics, University of Michigan, 2013 BS in Computer Science and Mathematics, Purdue University, 2004 Research Interests: Reyes' work bridges computation, mathematics, and materials science. Key areas include: - Autonomous experimentation systems (e.g., self-driving fluidic labs) - Bayesian optimization and decision-making under uncertainty - Machine learning for nanomaterials synthesis (e.g., perovskite nanocrystals) - Integration of physics-informed models in AI workflows - High-cost experimental design optimization Recent Achievements: SMARTDOPE paper awarded 'Best in Advanced 2023' Developed AlphaFlow for autonomous chemical synthesis Pioneered 'self-driving labs' for materials discovery Labs & Teams: CSMS Lab (134 Bell Hall) focuses on problem-fluent models for materials research. Current projects include quantum circuit optimization, bio-chemical pathway modeling, and sustainable nanomanufacturing. Collaborates with industry and national labs on AI-driven materials development.
Dr. Ahmad Echresh is a Postdoctoral Researcher at the Helmholtz-Zentrum Dresden-Rossendorf (HZDR), affiliated with the Institute of Ion Beam Physics and Materials Research and the Nanofabrication & Analysis Department . His research focuses on advanced nanomaterials and their applications in optoelectronics, sensors, and semiconductor devices. Key areas include silicon and germanium nanowire-based sensors, photodetectors, and fabrication techniques like ion implantation and flash lamp annealing. His work spans material characterization, doping optimization, and device engineering. Notable contributions include high-performance photodetectors for telecom wavelengths and broadband UV sensors. He has published extensively in nanoelectronics and optoelectronics, with a focus on bridging nanomaterials and practical device applications. Dr. Echresh’s research also involves developing novel heterostructures (e.g., MoSe2/FePS3) and exploring piezoelectric properties of doped nanomaterials. His interdisciplinary approach integrates material synthesis, device fabrication, and advanced characterization methods, positioning him at the forefront of nanotechnology research.
Muhammad Bilal Khan is an Assistant Professor at the Department of Electronics and Power Engineering, College of Electrical and Mechanical Engineering, National University of Sciences and Technology (NUST), Pakistan. His research spans mathematical theory and practical applications in wireless communication sensing technology. His primary research interests include Fuzzy Set Theory , Fractional Calculus , Mathematical Inequalities , and RF Sensing Applications in healthcare. His theoretical work focuses on developing new mathematical frameworks for fuzzy-number valued functions, particularly exploring pre-invexity, harmonic convexity, and related integral inequalities. On the applied side, he has made significant contributions to non-contact health monitoring systems using software-defined radio technology for detecting conditions like text neck syndrome, spinal curvature disorders, and breathing abnormalities. Analysis of his 15 most recent publications reveals a dual research trajectory: approximately 60% focus on theoretical mathematical contributions in fuzzy analysis and integral inequalities, while 40% address practical applications of wireless sensing in healthcare. His mathematical work frequently appears in journals like Axioms and Symmetry , while his applied research is published in venues including IEEE Access and Sensors . His notable scientific contributions include developing novel frameworks for (q 1 , q 2 )-Linear Diophantine Fuzzy Sets and advancing the theory of Diamond Intuitionistic Fuzzy Sets. His healthcare applications research has pioneered non-invasive monitoring techniques using RF sensing for elderly fall detection, text neck syndrome diagnosis, and breathing pattern analysis. Dr. Khan maintains active collaborations with researchers across multiple institutions, particularly working with Mohamed S. Soliman (13 joint publications), Muhammad Aslam Noor (12 publications), and Savin Treanta (8 publications) on mathematical theory, while collaborating with Najah AbuAli, Mubashir Rehman, and Xiaodong Yang on healthcare sensing applications.
Matthias Feinaeugle is an Assistant Professor in Laser Processing at the University of Twente (Netherlands), specializing in laser-induced forward transfer (LIFT) and additive manufacturing of functional materials under Dr. G.R.B.E Römer. Previously, he was a research fellow at the Optoelectronics Research Centre, University of Southampton (UK), focusing on laser-assisted microfabrication. He holds a PhD in Photonics (2014) and dual Master's degrees in Electronics Engineering and Telecommunications. Education: PhD: Laser-induced forward transfer of intact, solid-phase inorganic materials (University of Southampton, 2014) MSc: Phosphorus-doped Amorphous Silicon Nitride Films (Universitat Politècnica de Catalunya, Spain, 2008) Dipl.-Ing.: Electronics Engineering (Universität Stuttgart, Germany, 2008) Research Interests: Thin film technology and laser-matter interaction 3D printing of functional materials (e.g., polymers, sapphire) Laser-induced periodic surface structures (LIPSS) for medical and industrial applications Laser-assisted microfabrication for optoelectronic devices Research Trends: Recent work emphasizes medical-grade polymer surface modification (e.g., cyclic olefin copolymer) and precise laser-based fabrication of microstructures in sapphire. Earlier studies explored LIFT for photonic devices and laser alloying for material enhancement. His contributions span photonics, materials science, and additive manufacturing. Activities: Active in international conferences (2024: presentations on LIPSS, biocompatible polymers, and microfluidic sealing). Collaborations include institutions in Germany, Spain, and the UK. Media features highlight innovations in 3D printing of gold microstructures (2018). Labs/Teams: Part of the University of Twente’s laser processing research group, focusing on industrial and biomedical applications of advanced laser techniques.
Dr. Scott Sayres is an Associate Professor at Arizona State University (ASU), affiliated with the School of Molecular Sciences and the Biodesign Center for Applied Structural Discovery. His research focuses on the interaction of light and matter, particularly using ultrashort laser pulses to study electron dynamics in chemical reactions. He earned a Ph.D. in Chemistry from Pennsylvania State University (2010) and a B.S. in Mathematics and Chemistry from Shippensburg University (2004). His work combines electron, ion, and photon detection methods to explore fundamental processes in clusters and molecules under strong-field excitation. Key research areas include ultrafast pump-probe spectroscopy, strong-field ionization, and the photodynamics of metal oxide clusters. His lab investigates phenomena like Coulomb explosion, Rydberg excitons, and proton transfer in formic acid clusters. The Sayres Lab hosts a research website at sayreslab.asu.edu . Teaching responsibilities include courses like Physical Chemistry I (CHM 345), Research Techniques (CHM 392/BCH 392), and Honors Thesis supervision. While no formal student advisees are listed, his research group actively explores experimental and theoretical aspects of cluster dynamics. Notable publications span 2010–2025, with recent work on copper oxide clusters, pseudocarbynes, and formic acid dynamics. His research bridges physics and chemistry, emphasizing ultrafast phenomena at the nanoscale.
Linda S Milor is a Professor in the School of Electrical and Computer Engineering at the Georgia Institute of Technology. She specializes in reliability modeling of semiconductor circuits, analog and mixed-signal testing, and yield optimization. Dr. Milor holds an IEEE Fellow distinction and has received multiple awards, including 8 best paper awards and the NSF Career Grant (1995). She has advised 18 Ph.D. students and contributed over 200 publications on semiconductor reliability and testing. Education: B.S. in Engineering Physics from UC Berkeley (undergraduate details unspecified) and a Ph.D. in Electrical Engineering from UC Berkeley (1992), focusing on analog/mixed-signal circuit testing. Research Interests Reliability modeling for semiconductor circuits Circuit performance prediction under manufacturing variations Analog and mixed-signal testing methodologies Statistical process modeling for yield enhancement Key Contributions Her work emphasizes aging analysis in SRAM, FinFET technology, and dielectric breakdown mechanisms. She pioneered techniques for on-line testing of memory systems and developed frameworks for accelerated life testing. Awards & Recognition IEEE Fellow (2014) 2004 Best Paper in IEEE Transactions on Semiconductor Manufacturing NSF Career Award (1995) Advising & Grants Advised 18 Ph.D. students and secured grants including the NSF Career Grant. Her research has been applied in industrial contexts through consulting roles for semiconductor manufacturers. Labs & Collaborations Her work integrates semiconductor reliability research with industry partnerships, focusing on practical applications of aging prediction and wearout mitigation.
Professor Siva Sivoththaman is a Full Professor in the Department of Electrical and Computer Engineering at the University of Waterloo, serving as Director of the Centre for Advanced Photovoltaic and Display Systems (CAPDS) and Associate Dean of Graduate Studies & Postdoctoral Affairs. He holds a PhD from the University of Paris XII (1993) and previously worked as a Research Scientist at IMEC (Belgium). His research focuses on photovoltaic technologies, nanotechnology, quantum dots, and energy systems. He has led prestigious chairs, including the NSERC Industrial Research Chair in RF-MEMS (2002-2006) and Ontario Research Chair in Renewable Energy (2010-2015). Education: Doctorate in Engineering Sciences, University of Paris XII (1993) Master's in Energy Technology, Asian Institute of Technology (1989) Bachelor's in Electrical & Electronics Engineering, Madurai Kamaraj University (1987) Research Interests: His work spans solar photovoltaics, semiconductor materials, nanostructure synthesis, and smart energy systems. Notable contributions include quantum dot-enabled devices, advanced photodetectors, and thin-film technologies. He also investigates safety aspects of nanomaterials processing. Publications & Awards: Over 100 peer-reviewed publications, including key works on quantum dot functionalization and photovoltaic device design. Recipient of the Ontario Premier's Research Excellence Award (2002). Teaching & Leadership: Teaches courses on semiconductor physics, microfabrication, and photovoltaic energy conversion. Leads CAPDS, advancing renewable energy and display technologies. Active in IEEE Electron Devices Society.
Eric R. Fossum is the John H. Krehbiel Sr. Professor for Emerging Technologies at the Thayer School of Engineering at Dartmouth College. He serves as Vice Provost for Entrepreneurship and Technology Transfer and Director of Dartmouth's PhD Innovation Program. As one of the world's leading experts in solid-state image sensors, he invented the CMOS active pixel sensor technology that revolutionized digital imaging in smartphones, medical devices, and automotive systems. His work has earned him numerous accolades, including the National Medal of Technology and Innovation (2025) and the Queen Elizabeth Prize (2017). His research interests focus on: Solid-state image sensors (CCDs, CMOS active pixel sensors, Quanta Image Sensors) Advanced imaging systems and on-chip processing New applications for image sensors in medicine, security, and space Dr. Fossum's recent publications demonstrate significant advancements in: Photon-counting sensors for low-light applications High-speed imaging for microscopy and radiography Backside-illuminated and sub-diffraction-limit pixel designs Quantum random number generation using sensor technology Infrared spectral extension of CMOS sensors His scientific awards include: National Medal of Technology and Innovation (2025) Queen Elizabeth Prize for Engineering (2017) IEEE Andrew S. Grove Award (2009) Induction into National Inventors Hall of Fame (2011) Emmy Award for Technology & Engineering (2021) Doctor of Science, Honoris Causa from Trinity College (2014) As an entrepreneurial leader, Dr. Fossum has: Co-founded Gigajot Technology with former PhD students Previously led Photobit and Siimpel Corporations Active participant in technology transfer initiatives at Dartmouth Founder and Past President of the International Image Sensor Society
