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Lain-Jong LIView profile

Professor

• Semiconductor Technology
• Materials Science
• Nanotechnology
• +3 more

Lain-Jong LI is currently serving as the Director of Corporate Research at Taiwan Semiconductor Manufacturing Company (TSMC) since December 2017 and holds the position of Chair Professor at the University of Hong Kong since March 2021. Previously, he has held academic roles including Full Professor at King Abdullah University of Science and Technology (KAUST) from August 2016 to December 2017, Associate Professor at Academia Sinica (Taiwan) from February 2010 to April 2014, and Assistant Professor at Nanyang Technological University (Singapore) from June 2006 to December 2009. His industrial experience includes roles at TSMC as a Process Engineer and Senior R&D Engineer from 1997 to 2002. He obtained his D.Phil. in Condensed Matter Physics from Oxford University (UK) in 2006. Lance Li’s research group focuses on the growth of large-area high-quality 2D semiconductors and the development of advanced device technologies, such as metal contacts, dielectrics scaling, and new architectures for advancing semiconductor nodes. The group also explores energy-efficient devices beyond silicon-based technologies, aiming to continue the scaling of transistors and enhance electronic performance. His research has been published in top-tier journals such as Nature , Nature Nano , and Science , with a focus on 2D materials, semiconductor device engineering, and nanotechnology applications. Recent works include studies on SRAM circuit performance, grain boundary engineering in monolayer materials, and high-κ perovskite insulators for transistors. No scientific awards were explicitly mentioned in the provided text. Information regarding advising and grants is not specified in the available text. Lance Li leads a research group at his current institutions but specific lab names or teams are not detailed in the provided information.

• Nanopore DNA Sequencing
• Computational Materials Science
• 2D Materials Engineering
• +5 more

Maria Fyta serves as a Professor of Biotechnology at RWTH Aachen University's Faculty of Biology, leading research in the Department of Biotechnology from her lab in the Biology Building (Worringerweg 3, Aachen). Her work bridges computational physics, nanotechnology, and molecular biology to develop next-generation biosensing platforms. Her research focuses on nanopore-based DNA/protein sequencing , utilizing 2D materials (graphene, MoS 2 , h-BN) and nanodiamond functionalization for single-molecule detection. Key projects include ionic liquid catalysis systems , computational alloy design , and molecular dynamics simulations of biomolecular translocation. Recent work emphasizes machine learning integration for signal analysis and materials discovery. Analysis of her 15 most recent publications reveals dominant trends in Nanopore engineering for biomolecular sensing Computational materials design of 2D systems and alloys Machine learning applications in nanofluidics While no specific scientific awards are documented in the provided materials, her extensive publication record demonstrates significant contributions to nanotechnology and biophysics. Professor Fyta's group develops advanced simulation frameworks for biomolecular translocation and collaborates on experimental validation of nanoscale devices. Current efforts focus on enhancing read-out capabilities in functionalized nanopores and designing bio-mimetic sequencing platforms.

• Nanotechnology
• Materials Science
• Semiconductor Devices
• +4 more

Berke Erbas is a researcher at the École polytechnique fédérale de Lausanne (EPFL) within the Department of Microengineering under the School of Engineering . His work focuses on advancing nanofabrication techniques through thermal scanning probe lithography (t-SPL) and complementary methods like reactive ion etching (RIE) and nanoimprint lithography (NIL). Education : Doctoral candidate at EPFL, specializing in semiconductor strain engineering and quantum device fabrication. Research interests center on grayscale nanopatterning, 2D material engineering, and quantum hardware development. His innovations in strain-controlled MoS 2 transistors have demonstrated significant electron mobility improvements ( 185 cm²/V.s ), while hybrid t-SPL/DSA approaches address sub-20 nm fabrication challenges. Publication trends reveal expertise in combining top-down lithography with bottom-up material assembly, enabling contamination-free interfaces and scalable CMOS-compatible processes. Applications span transparent electronics, photonic devices, and quantum computing. Labs & Collaborations : A core member of the LMIS1 laboratory , with collaborations across EPFL's Center of Micro/Nanotechnology (CMI), ETH Zürich, and international institutions. His work integrates interdisciplinary methodologies from materials science, quantum physics, and advanced manufacturing.

• Optical Engineering
• Photon Science
• Applied Condensed Matter Physics
• +4 more

Takayoshi Shimura is a Professor at Waseda University's Graduate School of Information, Production, and Systems . With a Ph.D. in Engineering from Nagoya University, he specializes in semiconductor materials and device physics, particularly focusing on Silicon Carbide (SiC) and Gallium Nitride (GaN) technologies. Current research emphasizes defect engineering in MOS structures Developing quantum photonics via color centers Optimizing epitaxial growth for optoelectronics His recent work reveals trends in nitrogen passivation , single-photon emitter fabrication , and high-temperature annealing for oxide reliability. Over 235 publications with 3,083 citations demonstrate his impact in applied physics and materials science. Scientific Awards : Multiple Japan Society of Applied Physics Poster Awards (2016, 2014) IWDTF Best Poster Award (2008) Research leadership includes: Collaborations with Osaka University and Waseda University Professional memberships in four major academic societies Patents and media coverage in 5 major publications (2018)

• Integrated Circuits Design
• Wireless Communication Systems
• MEMS Technology
• +4 more

Prof. Vlassis Spyridon holds a full professor position in the Electronics Laboratory at the University of Patras. He specializes in integrated circuit design, wireless communication systems, and low-power electronics. With a Ph.D. in Electronics from Aristotle University of Thessaloniki (2000), his career spans academic research and industry collaborations. His research interests include battery-less RF tags for IoT, clock/data recovery systems, and high-speed serial interfaces. He has led projects in MEMS-based clock generators, transceiver ASICs, and power management ICs for hearing aids. Education: B.Sc. Physics (1994), Aristotle University M.Sc. Electronics (1996), Aristotle University Ph.D. Electronics (2000), Aristotle University Research focuses on analog integrated circuits, including voltage-controlled oscillators (VCOs), phase interpolators, and time-mode signal processing. He has developed innovative circuits for multi-Gigabit serial links and holds five patents, with over 70 peer-reviewed publications. Recent work includes MPHY-compliant serial interfaces and temperature-compensated oscillators. Industry collaborations include projects with telecom providers and startups, designing ASICs for MEMS headphones, solid-state relays, and wireless transceivers. His articles highlight advancements in low-power CMOS circuits, jitter optimization, and digital-to-PWM conversion. Patents: Wireless transmitter DC offset recalibration (2006) Subthreshold MOS resistor (2014) Tunable subliminal transconductor (2016) Additional Czech-registered innovations Labs/Teams: Active in the Electronics Laboratory at University of Patras, contributing to multi-disciplinary projects in analog and digital circuit design.

Rohan AkolkarView profile

Professor

• Electrodeposition
• Electrochemical Engineering
• Energy Storage
• +5 more

Rohan Akolkar is the Milton and Tamar Maltz Professor of Energy Innovation in the Department of Chemical and Biomolecular Engineering at Case Western Reserve University’s Case School of Engineering. He holds a joint appointment as Chief Scientist at the Pacific Northwest National Laboratory. His research focuses on electrochemical processes for energy storage, nano-material fabrication, electrometallurgy, and sensors, with emphasis on electrodeposition mechanisms in novel electrolytes and semiconductor device applications. His work spans fundamental studies of charge transfer kinetics, dendritic growth suppression in batteries, and advanced metallization techniques for sub-10 nm electronics. Education & Teaching: Teaches undergraduate and graduate courses in chemical engineering, including Transport Phenomena, Electrochemical Engineering, and Mathematics for Engineers. Research Themes: Ethanol-based deep eutectic solvents for copper electrodeposition. Electrochemical atomic layer deposition (E-ALD) for nanoscale metallization. Plasmas-liquid interfaces for material synthesis. Lithium battery degradation mechanisms and SEI dynamics. Recent Work Trends: His 2020-2023 publications emphasize electrolyte additive design for dendrite suppression, substrate effects in electrodeposition, and innovative applications of electrochemical methods in semiconductor manufacturing. Over 50% of his recent articles address next-generation battery materials and electrochemical sensor development. Patents: Pending: Dimensionally Stable Anode for Electrolytic Chlorine Evolution (2023). Pending: Sustainable Metal Electrowinning System (2022). Labs & Teams: Leads interdisciplinary research groups focused on electrochemical engineering, collaborating with institutions like Pacific Northwest National Lab on applied energy innovations.

Evgeniia GilshteinView profile

Researcher

• Solar Cell
• Polymer Property
• Molybdenum Disulfide
• +3 more

Evgeniia Gilshtein is a Tenure Track Researcher at the Department of Electrical and Photonics Engineering, Technical University of Denmark (DTU), specializing in thin-film photovoltaics and materials science. Her work contributes to UN Sustainable Development Goals, particularly in renewable energy and sustainable materials. Active contributor to solar cell efficiency optimization Supervisor in DTU's photonic crystallization PhD project Expert in MoS₂ integration and polymer property analysis Her research focuses on thin-film solar cells , including charge transport optimization, material interface engineering, and polymer characterization frameworks. Recent work examines MoS₂ layers for voltage enhancement and polymer data interpretation methodologies. Publications demonstrate interdisciplinary expertise spanning Materials Science , Renewable Energy , and Chemical Analysis , with emphasis on improving solar cell efficiency through novel material integration and analytical frameworks. Scientific Awards 2025: Building emerging thin-film chalcogenide solar cells using compact deposition technology 2024: Photonic crystallization of antimony chalcogenide absorbers for flexible thin film solar cells As supervisor, she mentors PhD candidate A.M.P. Enevoldsen in photonic crystallization research while active in conference presentations and external teaching engagements. Current projects focus on antimony chalcogenide solar cell development.

Adrianus van DuinView profile

Professor

• Reactive Force Fields (ReaxFF)
• Catalysis
• Combustion Chemistry
• +5 more

Adrianus van Duin is a Distinguished University Professor at Pennsylvania State University, holding joint appointments in Mechanical Engineering, Chemical Engineering, Engineering Science and Mechanics, Chemistry, and Materials Science and Engineering. He leads the Materials Computation Center and specializes in developing and applying the ReaxFF reactive force field for simulating chemical and physical interactions in materials and molecules. His work spans catalysis, combustion, nanomaterials, and environmental chemistry. Van Duin has held prestigious fellowships, including the Marie Curie and Royal Society awards, and has contributed over 70 publications. His research integrates computational methods with experimental validation, focusing on applications like fuel cells, corrosion, and energy storage. Education: Ph.D. in Chemistry, Delft University of Technology, Netherlands (1996) M.Sc./B.Sc. in Chemistry, University of Amsterdam, Netherlands (1986-1991) Research Interests: ReaxFF development and integration into computational tools like ADF/BAND Water/metal oxide interactions and surface catalysis Combustion chemistry and reaction mechanism derivation Material degradation and corrosion mechanisms Environmental applications, including carbon mineralization Recent Trends in Articles: Recent work emphasizes ReaxFF applications in 2D materials (e.g., graphene, MoS₂), energy systems (hydrogen storage, batteries), and environmental remediation (PFAS removal). Simulations frequently address interfacial chemistry and phase transitions under extreme conditions. Awards: Marie Curie Research Fellowship (1997-1999) Royal Society Fellowship (1999-2002) Named Distinguished University Professor at Penn State Grants & Labs: Leads the van Duin Group, collaborating with over 80 academic institutions globally. Active in NSF-funded initiatives and industry partnerships (e.g., SCM, NASA/AMES). Current projects include ReaxFF workshops, code distribution, and experimental-computational synergy in material design. Labs/Teams: Directs the Materials Computation Center and oversees interdisciplinary collaborations across departments at Penn State.

Bin WangView profile

Professor

• Catalysis
• Materials Science
• Computational Simulation
• +3 more

Bin Wang is a Professor in the Department of Sustainable Chemical, Biological and Materials Engineering at the University of Oklahoma's Sarkeys Energy Center. His research focuses on computational simulations of materials chemistry, catalysis, and energy conversion, utilizing density functional theory (DFT) and molecular dynamics. Key areas include nanoscale materials, energy storage (e.g., lithium-sulfur batteries), and catalytic processes for biomass conversion. Education: Ph.D. in Chemistry, École Normale Supérieure (ENS) de Lyon, France (2011) B.A. in Chemical Engineering, East China University of Science & Technology (2004) Postdoctoral Research, Vanderbilt University (2010–2014) Awards: DOE Early Career Award (2019) ACSIN Young Scientist Prize (2009) Marie Curie Fellowship (2007–2009) His work bridges computational modeling and experimental catalysis, addressing challenges in renewable energy, material design, and sustainable chemistry. Notable contributions include studies on hydrogenation pathways in liquid water, MXene ion diffusion, and graphene functionalization. Collaborations span academia and industry, focusing on advancing UN Sustainable Development Goals through distributed biomass conversion.

Kenneth T. ParkView profile

Associate Professor

• Computational Solid State Physics
• Experimental Solid State Physics
• Materials Modeling
• +4 more

Kenneth T. Park is an Associate Professor at Baylor University and Co-Graduate Program Director in the Department of Physics and Astronomy. He holds a Ph.D. (1993), M.A. (1990), and B.A. (1988) in Physics from the University of Rochester and University of California, Berkeley respectively. Education: Ph.D. in Physics (University of Rochester, 1993) Academic Affiliation: Baylor University (since 1997), Oak Ridge National Laboratory collaborator Dr. Park's research spans computational and experimental solid-state physics , focusing on surface electronic/atomic structures and their chemical reactivity. His work on TiO 2 surfaces includes defect characterization, nanoparticle formation, and phase stability analysis using Scanning Tunneling Microscopy (STM) and Hubbard-corrected DFT methods. Recent studies explore high-pressure TiO 2 polymorphs, electron donor-acceptor complexes on MoS 2 , and metal-organic interfaces. His publication record demonstrates expertise in surface defects , density functional theory , and nanostructure modeling . Key collaborations include Oak Ridge National Laboratory and Louisiana State University, with access to advanced facilities like the Scanning Tunneling Microscopy and Angle-Resolved Ultraviolet Photoelectron Spectroscopy (ARUPS) beamline. Scientific achievements include: ACS-PRF Summer Research Fellowship Supplementary Grant PRF# 36245-G5 ORNL Center for Nanophase Materials Sciences access Dr. Park supervises graduate researchers and utilizes facilities at Brookhaven National Laboratory (NSLS), with a teaching portfolio covering Solid State Physics , Statistical Mechanics , and Density Functional Theory . His research group continues to investigate fundamental surface phenomena with applications in catalysis and materials science.

Judith Chun-Hsu YangView profile

Professor

• Materials Science
• Surface Science
• Nanotechnology
• +5 more

Judith Chun-Hsu Yang is the William Kepler Whiteford Professor at the Swanson School of Engineering, University of Pittsburgh, with a distinguished career in materials science and surface physics. Her research focuses on the atomic-scale understanding of oxidation processes, catalysis, and nanomaterials using advanced electron microscopy techniques. Education: PhD in Physics from Cornell University (1993) MS in Physics from Cornell University (1989) BA in Physics from University of California (1986) Professor Yang's research interests center on the fundamental understanding of oxidation kinetics at metal surfaces, particularly copper and its alloys, using in situ ultra-high vacuum transmission electron microscopy (UHV-TEM) . Her work bridges the gap between surface science and practical applications in catalysis, corrosion, and nanotechnology. She has made significant contributions to understanding oxide nucleation, growth mechanisms, and the structure-property relationships of nanoscale materials. Her research group employs a combination of experimental techniques including electron microscopy, spectroscopy, and theoretical modeling to investigate materials at the atomic scale. Professor Yang's recent publications (2018-2021) demonstrate a continued focus on metal oxidation processes, catalytic mechanisms, and nanoscale characterization. Her work spans multiple disciplines including materials science, surface chemistry, and catalysis, with particular emphasis on copper oxidation, bimetallic catalysts, and in situ observation techniques. The publications reveal a consistent research trajectory examining the atomic-scale dynamics of materials under reactive environments. Scientific Awards: Nickolas A. DeCecco Professorship (2011) Chancellor's Distinguished Research Award - Junior Faculty (2005) B.P. America Faculty Fellow (2004) NASA Faculty Fellowship (2003) NSF Career Award (2002) International Postdoctoral Fellows Program (1993) Professor Yang has led a well-funded research program supported by NSF, NASA, and Department of Energy, enabling her to establish state-of-the-art facilities for in situ materials characterization. She has mentored numerous graduate students and postdoctoral researchers who have gone on to successful careers in academia and industry. Her collaborative research spans multiple institutions and disciplines, reflecting the interdisciplinary nature of modern materials science. Professor Yang leads a dynamic research group at the University of Pittsburgh that operates advanced electron microscopy facilities, focusing on real-time observation of materials transformations at the nanoscale. Her work has significant implications for energy conversion technologies, corrosion prevention, and the development of advanced catalytic materials for environmental applications.

• Gallium Nitride (GaN)
• β-Ga2O3 Semiconductors
• Power Electronics
• +3 more

Dr. Matthew D Smith is a Senior Lecturer at the School of Physics, University of Bristol , specializing in wide bandgap semiconductor devices. His research focuses on gallium nitride (GaN) and gallium oxide (β-Ga₂O₃) technologies for power electronics and radiofrequency applications. Academic Rank: Senior Lecturer Key Research Areas: GaN/β-Ga₂O₃ devices, semiconductor defects, power transistor reliability Email: matt.smith@bristol.ac.uk His recent work explores breakdown mechanisms in β-Ga₂O₃ trench Schottky diodes, multichannel device architectures, and thermal management solutions for GaN electronics. Articles span topics from carrier transport to radiation-hardened HEMTs , emphasizing device stability and performance optimization. Current projects include the VertiGaN initiative (funded by EP/X014924/1), aiming to develop vertical GaN-on-Si membrane power transistors for mass-market applications. The project has attracted significant industry attention and media coverage.

Nicolò ZagniView profile

Researcher

• Power Electronics
• Semiconductor Device Reliability
• Gallium Nitride (GaN) Technology
• +4 more

Nicolò Zagni is a Postdoc Researcher at the University of Modena and Reggio Emilia (UNIMORE) , focusing on Gallium Nitride (GaN) and Ferroelectric device reliability. He earned a PhD in Information and Communication Technologies (ICT) in 2021 with a thesis on Simulation and Modeling of GaN Electronics . His research spans power electronics , dynamic on-resistance (RON) instabilities , phase-transition logic switches , and negative capacitance transistors . He has explored GaN device degradation under OFF-state stress , hole emission from carbon traps , and ferroelectric endurance . Key article trends include device simulation (TCAD) , trap dynamics in GaN , and novel materials for RF/millimeter-wave amplifiers . Collaborations include institutions like Purdue University and studies on SiC and MoS₂ applications.

Douglas A. BuchananView profile

Professor

• Micro- and nano-electronic materials
• High-κ gate dielectrics for CMOS
• Defect physics of ultra-thin films
• +5 more

Douglas A. Buchanan, Ph.D., P.Eng., FCAE, is Professor of Electrical and Computer Engineering at the University of Manitoba and a founding member of the Microelectronics and Nanotechnology Research Group. A Canada Research Chair (Tier II) in Microelectronic Materials from 2003-2013, he also served as Acting Dean of the Faculty of Engineering (2010-11) and Vice-President Commercialization at Innovate Manitoba (2012-14). His career combines 16 years at IBM Watson Research Center with two decades of academic leadership in Winnipeg. Education Ph.D. in Applied Physics & Electronics, University of Durham, U.K., 1986 M.Sc. in Electrical Engineering, University of Manitoba, 1982 B.Sc. in Electrical Engineering, University of Manitoba, 1981 Research Interests Prof. Buchanan’s work spans nano-scale CMOS gate dielectrics, high-κ metal oxides (HfO₂, ZrO₂, Al₂O₃), defect chemistry, quantum tunnelling, and dielectric reliability. Since 2010 his group has pioneered MEMS capacitive micromachined ultrasonic transducers (CMUTs) with multiple moving membranes for low-frequency, air-coupled imaging and NDT, as well as floating-gate MOS chemosensors functionalized with conducting polymers for olfactory applications. His publications reveal two dominant waves: the 1990s-2000s focus on ultra-thin SiO₂/high-κ stacks and the ITRS gate-stack roadmap, followed by a 2010s-2020s surge in CMUT design, anemometry, and polymer-based sensor arrays, demonstrating continuous adaptation from fundamental materials physics to applied micro-systems. Honours & Awards University of Manitoba Students’ Teacher Recognition Award – 2007 IBM Research Division Award – 1988 IBM Outstanding Technical Achievement Award – 1992 IBM Microelectronics Division General Manager’s Teamwork Award – 1997 Fellow, Canadian Academy of Engineering Senior Member, IEEE Professional Service & Grants He co-founded SEMATECH’s Gate Stack Engineering Working Group (1992-2000) that authored the ITRS gate-stack roadmap, co-chaired multiple MRS and IEEE Semiconductor Interface Specialists Conferences, and edited special issues of IBM J. Res. Dev. and MRS Proceedings on ultra-thin dielectrics. Grant support has included NSERC Canada Research Chair, CFI, and industrial partnerships with IBM, SEMATECH, and Manitoba HVDC Research Centre. Labs & Teams He leads the Microelectronics & Nanotechnology Research Laboratory within the University of Manitoba’s Faculty of Engineering, supervising graduate researchers in clean-room micro-fabrication, electrical characterization, and MEMS prototyping for ultrasound and chemical sensing systems.

• Silicon Carbide Power Electronics
• Wide Band-gap Semiconductor Devices
• Semiconductor Physics
• +7 more

Dr. Daniel Haasmann is a Lecturer in the School of Engineering and Built Environment, specifically within the Electrical and Electronic Engineering department at Griffith University, Australia. He is also a member of the Queensland Quantum and Advanced Technologies Research Institute (QUATRI) since 2025 and was previously affiliated with the Queensland Micro and Nanotechnology Centre from 2017 to 2023. Dr. Haasmann's educational background includes: PhD in Microelectronic Engineering from Griffith University (2015) B.Eng (1st Class Hons) in Microelectronic Engineering from Griffith University (2008) With over 12 years of specialized experience in semiconductor physics, Dr. Haasmann focuses on silicon carbide power electronic devices. His research centers on wide band-gap semiconductor devices, particularly silicon carbide MOSFETs and Schottky barrier diodes. He possesses extensive expertise in gate oxides, electrical characterization of SiC MOS devices, and cleanroom fabrication techniques. His work bridges fundamental semiconductor physics with practical power electronics applications, contributing to more efficient energy conversion systems. Analysis of Dr. Haasmann's publication record reveals a consistent research trajectory focused on silicon carbide semiconductor technology. His work spans from fundamental material science investigations of SiC interfaces to practical power conversion applications. A significant portion of his research addresses the characterization and mitigation of near-interface traps in SiC MOS devices, which is critical for improving device performance and reliability in high-power applications. His recent publications demonstrate growing collaboration networks and increasing impact in the semiconductor device community. Dr. Haasmann has secured competitive research funding, including the 'Advanced Silicon Carbide Transistor Prototype for Highly Efficient and Reduced Cost Power Conversion Systems' grant from the Department of Education (July 2024-July 2025), part of Australia's Economic Accelerator program with a total project value of $449,204. As an academic supervisor, Dr. Haasmann currently serves as Principal Supervisor for research on 'Surge Current Comparison of Homogeneous and Merged PiN SiC Schottky Diodes' and Associate Supervisor for 'Development of SiC MOSFET with enhanced mobility for high power and high frequency switching applications.' He previously supervised Mayank Chaturvedi's doctoral research on 'Characterization of Active Near Interface Traps in 4H-SiC MOS Devices.' Dr. Haasmann is actively involved with QUATRI and contributes to Griffith University's research initiatives aligned with Sustainable Development Goal 3 (Good Health and Well Being), particularly through applications in biomedical therapy using silicon carbide electronics.