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Qin LiView profile

Professor

• Nanotechnology
• Environmental Engineering
• Carbon Nanomaterials
• +4 more

Professor Qin Li is a distinguished Professor of Environmental Engineering at Griffith University's School of Engineering and Built Environment, where she has been employed since 2011, achieving the rank of Professor in 2020. She holds appointments at the Queensland Quantum and Advanced Technologies Research Institute (QUATRI) and was previously a member of the Queensland Micro and Nanotechnology Centre (2011-2024). Her research bridges chemical engineering, nanotechnology, and environmental science to develop innovative solutions for global sustainability challenges. Education: PhD in Chemical Engineering from the University of Queensland (2002) MEng from Zhejiang University (1997) BEng from Zhejiang University, Hangzhou, China (1994) Professor Li's research program centers on functional materials and applied nanotechnology, with particular expertise in carbon nanomaterials including carbon dots. Her work addresses critical challenges in environmental monitoring, water purification, waste reformation, and renewable energy production. She has pioneered applications of nanotechnology in agricultural systems, developing carbon dot-based solutions for crop stress management and disease prevention. Her research aligns with multiple UN Sustainable Development Goals, particularly Clean Water and Sanitation (SDG 6), Affordable and Clean Energy (SDG 7), and Sustainable Cities and Communities (SDG 11). Professor Li's publication record demonstrates a consistent trajectory of high-impact research in materials science and environmental engineering. Her recent work shows increasing focus on practical applications of nanotechnology, particularly carbon dots for water treatment, hydrogen production, and agricultural applications. She has successfully translated fundamental research into industry partnerships, particularly with Sugar Research Australia, demonstrating the real-world impact of her work. Scientific Recognition: Curtin Innovation Award (2009) Women in Technology Research Award Finalist (2015, 2020) Marie Curie International Incoming Fellow (2006-2008) Named in Stanford analysis of top 2% of researchers worldwide Research.com Ranking No. 114 in Australia, No. 3428 globally in Materials Science (2023) Co-Founding Chair of the Green and Sustainable Chemistry National Interest Group at RACI Professor Li has supervised numerous doctoral and masters students, with current projects focusing on carbon nanodots for water splitting, PFAS removal, and agricultural applications. She has secured significant research funding from ARC, industry partners, and internal university sources. Her current major projects include "Biomass-derived Carbon Dots Enable Flexible, On-Demand Hydrogen Delivery" (ARC Discovery Project), "Developing a new generation of fungicides with carbon nanodots" (Sugar Research Australia), and participation in the "ARC Research Hub in zero-emission power generation for carbon neutrality." As a member of QUATRI and former member of the Queensland Micro and Nanotechnology Centre, Professor Li leads a dynamic research group focused on sustainable nanotechnology applications. She actively collaborates with researchers across Australia and internationally, particularly through her involvement in the Regional Collaborations Program workshop "Sustainable Productive Farming - What can nanotechnology offer?" Her leadership extends to organizing the "1st International Conference on Clean Technologies for a Blue Planet," demonstrating her commitment to advancing sustainable technologies through interdisciplinary collaboration.

Peter SimpsonView profile

Professor

• Positron Annihilation Spectroscopy
• Silicon Photonics
• Space Weathering
• +3 more

Prof. Peter Simpson is a Professor in the Department of Physics and Astronomy at the University of Western Ontario. He leads the Positron Beam Laboratory, which uses positron annihilation spectroscopy to study defects in electronic materials. His research focuses on silicon photonics, space weathering, and defect engineering in semiconductors. Collaborations with industry and universities explore novel materials and processing techniques, including ion implantation simulations of space weathering effects and positronium formation in polymers. Students gain expertise in advanced experimental methods through projects involving nanocrystal characterization and defect analysis. Research interests include quantum confinement in nanocrystals, vacancy dynamics, and the development of optical materials for silicon-based technologies. His work bridges fundamental physics and applied engineering, addressing challenges in semiconductor device miniaturization and optoelectronic systems. The laboratory employs cutting-edge techniques such as positron beam analysis and transmission electron microscopy to study material microstructure at atomic scales. Key projects: Space weathering simulations, silicon nanocrystal luminescence, and void formation in semiconductors Techniques: Positron annihilation, ion implantation, and advanced microscopy Collaborations: Interface Science Western and planetary science teams Publications highlight advancements in defect characterization, quantum dot properties, and the interplay between vacancy structures and material performance. Graduate and undergraduate opportunities are available in experimental condensed matter physics, emphasizing hands-on training in high-tech methodologies.

• Semiconductor Technology
• III-V Optoelectronics
• III-Nitride Wide Bandgap Semiconductors
• +4 more

Philip Shields is a Senior Lecturer in the Department of Electronic & Electrical Engineering at the University of Bath. He specializes in semiconductor technology, particularly III-V optoelectronics and III-nitride materials. His research encompasses MOVPE growth, nanofabrication techniques including nanoimprint and electron beam lithography, and the development of core-shell LED structures from visible to ultraviolet wavelengths. His publications demonstrate advanced work in GaN-based micro-LED displays, nanorod fabrication, and lithographic patterning innovations. Recent studies focus on optimizing quantum well structures, strain management in LEDs, and novel characterization methods using cathodoluminescence. Active research projects include monolithic integration of microscale laser diodes and displacement Talbot lithography development. He leads EPSRC-funded initiatives on nano-engineered III-N semiconductors and GaAs nanowire growth on silicon substrates.

Darja FeizpourView profile

Researcher

• Electron Microscopy
• Materials Science
• Ceramics
• +5 more

Dr. Darja Feizpour is a Researcher at the Institute of Metallic Materials and Technologies (IMT) in Slovenia, where she has ensured the smooth operation of the TEM Laboratory since September 2008. Her expertise spans electron microscopy techniques for characterizing metallic, polymeric, ceramic, and biological materials, with specialization in TEM, SEM, HRTEM, STEM, and analytical electron microscopy. Her educational background includes: 2006: Doctorate of Science in Materials from the University of Ljubljana, Faculty of Natural Sciences and Engineering (Dissertation: 'Synthesis of ceramics based on (K,Na)NbO3') 2000: University Graduate Engineer in Metallurgy and Materials from the same institution (Diploma thesis: 'Low-temperature sintering of PLZT thick layers') Dr. Feizpour's research encompasses electron microscopy applications across diverse materials including silicon, nanoparticles, steels, aluminum alloys, metal foams, polymers, and ceramics. Her work integrates synthesis of ferroelectric/piezoelectric materials (PLZT and KNN ceramics), phase equilibria studies using diffusion pairs, and comprehensive material characterization through thermal analysis, XRD, laser granulometry, and electron microscopy techniques. She has investigated properties such as sintering behavior, electrical characteristics, and microstructural evolution. Her publication record (2005-2009) demonstrates consistent focus on potassium sodium niobate (KNN) systems, covering crystal structure analysis, synthesis optimization via diffusion couples, doping effects, and advanced electron microscopy characterization. These works establish her as a specialist in lead-free piezoelectric ceramics research. Dr. Feizpour actively contributes to the microscopy community as a member of the Slovenian Society for Microscopy (since 2010) and serves as a reviewer for Materials and Technologies journal (since 2009). She maintains professional connections through TEM Laboratory operations, TEM Image Gallery curation, and platforms including LinkedIn and ResearchGate. No scientific awards or student advising information was documented in the source material.

Filip TuomistoView profile

Professor

• Materials Science
• Condensed Matter Physics
• Defect Characterization
• +3 more

Filip Tuomisto is a Professor at the University of Helsinki's Department of Physics, specializing in materials science with a focus on the interplay between macroscopic properties and atomic-level structure. His research employs positron annihilation spectroscopy to study defects in semiconductors and advanced materials. Leading a globally recognized team, he develops methodologies for defect characterization in materials like (Al,Ga)N and β-(Al,Ga)₂O₃ alloys. His work emphasizes applications in nuclear fusion, high-entropy alloys, and optoelectronics. Projects: UWBGS US DoD Trial (2023–2026): Focuses on ultra-wide bandgap materials for defense applications. EUROFUSION ERG Vuoriheimo (2025–2027): Addresses fusion-related material challenges. WIBASE Co-Innovation (2025–2028): Aims to scale high-tech manufacturing techniques. Research Highlights: Recent studies include vacancy dynamics in high-entropy alloys, irradiation effects in tungsten, and defect mechanisms in gallium oxide. His team's work bridges theoretical modeling and experimental observations, contributing to advancements in semiconductor engineering and fusion materials. Labs: Heads the Kiihdytinlaboratorio (Acceleration Laboratory) within the Department of Physics, focusing on defect analysis and material characterization.

Ken HaenenView profile

Professor

• Material Physics
• CVD Diamond Technology
• Opto-Electronics
• +5 more

Prof. Ken Haenen is a Full Professor at Hasselt University, serving as Vice-Rector for Research & Internationalisation and Head of the WBGM research group within imo-imomec. He holds a doctorate from 2002 and has extensive postdoctoral experience, including at Japan’s National Institute for Materials Science (NIMS). His research focuses on CVD diamond synthesis, opto-electronic characterization, and carbon-based materials for energy applications. He leads international conferences like the Diamond and Carbon Materials Conference (as Chair) and co-leads the Hasselt Diamond Workshop. As Editor-in-Chief of Diamond and Related Materials and MethodsX , he contributes to advancing materials science literature. His career spans roles from tenure-track lecturer (2008) to full professor (2019), with expertise in diamond-based devices, surface functionalization, and quantum sensing applications. His work bridges material synthesis and practical device development, addressing challenges in energy conversion and nanotechnology.

• Quantum Materials
• Neutron Scattering
• X-ray Scattering
• +2 more

Marc Janoschek is an Associate Professor at the University of Zurich specializing in experimental physics. He heads the PSI Center for Neutron and Muon Sciences (CNM) in Switzerland and leads the Laboratory for Neutron and Muon Instrumentation. His research integrates material synthesis, instrumentation development, and advanced experiments to study quantum phenomena in correlated materials. Research interests center on quantum matter phases investigated through neutron/x-ray scattering under extreme conditions. Key areas include: Tuning atomic-scale interactions via pressure, field, and chemistry Quantitative determination of quantum properties Novel instrumentation design for neutron scattering Publications focus on quantum materials like UTe₂ and heavy fermion systems, with methodological innovations in scattering techniques. Recent work explores topological states and unconventional superconductivity. Awards include: PSI Diversity Award 2024 Wolfram-Prandl Award for spin dynamics studies Los Alamos National Laboratory Fellows Prize Hans Fischer Fellowship Leads the PSI-ESS project (€30M Swiss contribution to neutron instruments) and chairs international committees including the LENS Working Group on Synergies. Maintains extensive global collaborations with theorists and experimental facilities.

Erik van der GiessenView profile

Professor

• Mechanical behavior at micro and nanoscales
• Biophysics
• Discrete dislocation plasticity
• +5 more

Prof. Dr. Ir. Erik van der Giessen is a Professor at the University of Groningen, leading the Micromechanics group within the Zernike Institute for Advanced Materials. His research spans multiple disciplines including mechanical engineering, materials science, biophysics, and computational modeling, with a focus on mechanical behavior at micro and nanoscales. Van der Giessen's research primarily focuses on three interconnected areas: biophysics (particularly nuclear pore complex and cellular mechanics), discrete dislocation plasticity, and polymer blends and nano-composites. His work in biophysics, conducted in collaboration with the Onck group, investigates fundamental cellular processes including transport through the nuclear pore complex, cytoskeleton structure-property relations, protein aggregation in neurodegenerative diseases, and viral fusion mechanisms. His discrete dislocation plasticity research provides size-dependent descriptions of plastic deformation at microscales, studying phenomena in thin films, micro/nano pillars, surface contact and friction, and fracture processes. His polymer research examines deformation mechanisms and fracture processes in polymer composites with micrometer or nanometer fillers. A common theme across all research areas is size dependence, with the principle that "smaller is harder" in mechanical behavior at reduced scales. The group employs computational techniques including molecular dynamics, dislocation dynamics, Monte Carlo methods, and finite element methods. Recent publications (2022-2025) show continued innovation in applying machine learning to materials science, investigating nuclear transport mechanisms in neurodegenerative diseases, and advancing fundamental understanding of size effects in mechanical properties. Van der Giessen has mentored numerous PhD students who have established successful academic careers, including L. Nicola (University of Padova), S.S. Shishvan (University of Tabriz), and H. Song (Johns Hopkins University). His research has been supported by various national and international collaborations, including significant work with Harvard University researchers on thin film mechanics. The Van der Giessen group maintains strong interdisciplinary connections, creating a research environment that bridges engineering, physics, and biology. Their computational approaches have provided physical understanding for size effects observed in experiments and have generated predictive models for various mechanical phenomena at micro and nanoscales.

• Semiconductor Nanowires
• Molecular Beam Epitaxy
• Thin-Film Solar Cells
• +4 more

Pınar Doğan is a Professor in the Department of Electrical and Electronics Engineering at Muğla Sıtkı Koçman University's Faculty of Engineering. She holds a Bachelor's degree in Physics from Izmir Institute of Technology (1998-2002), a Master's in Physics from the same institution (2002-2005), and a Ph.D. in Physics from Technische Universität Berlin (2005-2011). Her academic career includes significant research contributions and editorial responsibilities. Her primary research focuses on semiconductor materials and renewable energy technologies, including: GaN nanowire synthesis via molecular beam epitaxy Thin-film polycrystalline silicon solar cells Semiconductor device physics and optoelectronic applications Nanostructure characterization and defect analysis Advanced deposition techniques like e-beam evaporation Analysis of her publication portfolio reveals strong emphasis on III-nitride semiconductors (particularly GaN nanowires) and photovoltaic technologies. Her recent work shows increasing focus on machine learning applications for solar cell characterization and continued exploration of nanowire-based semiconductor systems. Professor Doğan has participated in multiple international research projects, including EU-funded initiatives: 'Efficient and Cost-Effective InGaN Light Sources on Si substrates' (2009-2014) and 'Advanced Thin Film Technologies for Cost Effective Photovoltaics' (2005-2009). She also led a TÜBİTAK project on 'Optoelectronic Properties of Polycrystalline Silicon Thin Film Solar Cells' (2015-2017). She holds editorial positions for the Turkish Journal of Electrical Engineering and Computer Sciences and Mugla Journal of Science and Technology. Administrative roles include serving as Deputy Director of the Institute of Science (2018-2021) and Department Head (2016-2017). Her courses cover optoelectronics, solar cell physics, semiconductor devices, and photovoltaic energy conversion.

Mahmud KhanView profile

Associate Professor

• Experimental Condensed Matter Physics
• Magnetic Materials
• Superconductivity
• +5 more

Mahmud Khan is an Associate Professor and Director of Graduate Studies in the Department of Physics at Miami University. He holds a Ph.D. in Applied Physics (2007) and M.S. in Physics (2004) from Southern Illinois University, along with a B.Sc. in Computer Science (2001). Prior to joining Miami University in 2013, he worked as a post-doctoral research associate at The Ames Laboratory (2007–2011) and as a Killam Postdoctoral Fellow at the University of Alberta (2011–2012). Education: Ph.D. in Applied Physics (2007), Southern Illinois University M.S. in Physics (2004), Southern Illinois University B.Sc. in Computer Science (2001), Southern Illinois University Professional Background: The Ames Laboratory, US DOE (Post-Doctoral Research Associate, 2007–2011) University of Alberta (Killam Postdoctoral Fellow, 2011–2012) Miami University (2013–present) Dr. Khan’s research focuses on experimental condensed matter physics, particularly the synthesis and characterization of advanced magnetic and superconducting materials. His work explores multifunctional properties such as coupled magnetic/structural transitions, giant magnetocaloric effects, exchange bias, and high-performance permanent magnets. Techniques include arc melting, high-temperature annealing, x-ray diffraction, and magneto-transport measurements. His recent publications (2018–2019) emphasize Heusler alloys, doped semiconductors, and perovskite derivatives, with keywords spanning superconductivity, magnetism, and nanotechnology. Subfields include magnetic phase transitions, magnetocaloric effects, exchange bias, structural characterization, doping effects, and quantum dots. Students at both undergraduate and graduate levels are encouraged to join his lab to gain hands-on experience in magnetic materials synthesis and characterization, from sample preparation to advanced experimental techniques.

Peter GammonView profile

Professor

• Power Electronics
• Wide-bandgap Semiconductors
• Electric Vehicles
• +4 more

Professor Peter Gammon is a leading researcher in Silicon Carbide (SiC) power electronic devices at the University of Warwick’s School of Engineering, serving as faculty since 2012. He holds a MEng and PhD, alongside prestigious fellowships like SMIEEE, MIET, and SFHEA. His work focuses on advancing SiC technology for electric vehicles, satellites, renewable energy, and grid applications. He leads the REWIRE Innovation and Knowledge Centre (UKRI-funded £11m), aiming to commercialize wide-bandgap semiconductors with over 30 industrial partners. Research Interests include optimizing SiC MOSFET design, radiation-hard devices for space, and high-voltage architectures. His team collaborates across the SiC supply chain, ensuring lab-to-market transitions. Key grants include the £2.5m EPSRC-funded UP-SiC project (2024-2027) and the EPSRC Centre for Power Electronics Switch Optimisation Theme (2018-2021). Facilities include the Science City Cleanroom, SiC CVD reactor, and packaging cleanroom. Notable awards include the Royal Academy of Engineering Research Fellowship (2012-2017). His research group, the PEATER Group, specializes in SiC device development with global recognition. Advising PhD students in areas like neutron testing and rad-hard devices, Gammon also delivers industry-focused tutorials on SiC power electronics. Recent projects include SiCSat (EPSRC £746k) for satellite applications and AdvanSiC (Horizon Europe £988k) for medium-voltage grids. His work bridges academia and industry, addressing challenges in SiC yield, cost, and reliability while exploring emerging applications like space and high-voltage grid systems.

Lyndon EmsleyView profile

Professor

• Nuclear Magnetic Resonance (NMR)
• Solid-State Chemistry
• Materials Science
• +3 more

Lyndon Emsley is a Professor at the École Polytechnique Fédérale de Lausanne (EPFL), affiliated with the School of Basic Sciences and the Department of Chemistry and Chemical Engineering. He leads the Laboratoire de résonance magnétique (LRM), focusing on advanced NMR methodologies and their applications in materials science, pharmaceuticals, and energy materials. His roles also span the SCGC and EDCH educational programs within EPFL, emphasizing interdisciplinary teaching in chemistry and chemical engineering. Research interests include NMR crystallography, solid-state chemistry, perovskite materials for solar cells, and structural characterization of amorphous drugs. He has supervised numerous PhD students in these areas. Key contributions involve developing high-resolution NMR techniques, such as dynamic nuclear polarization (DNP), and applying machine learning to chemical shift predictions. His work bridges fundamental material science with practical applications in drug design and renewable energy. Teaching responsibilities include courses on structural analysis, experimental physical chemistry, and advanced NMR techniques. Collaborations involve multi-scale structural analysis and supramolecular engineering for photovoltaic stability.

Lisa PorterView profile

Professor

• Electronic Materials
• Emerging Energy Technologies
• Industrial Decarbonization and Efficiency
• +8 more

Lisa Porter is a Professor in the Department of Materials Science and Engineering at Carnegie Mellon University and serves as the Associate Dean for Faculty and Graduate Affairs in the College of Engineering. Her work spans semiconductor research, outreach initiatives, and academic leadership. Education : Ph.D. (1994) and B.S. (1989) in Materials Science and Engineering from N.C. State University and Cornell University, respectively. Porter’s research focuses on wide band gap semiconductors , particularly gallium oxide, with emphasis on phase stability, contact engineering, and energy-efficient device applications. Her work addresses challenges in thermal conductivity, dielectric responses, and defect dynamics for power electronics and photodetectors. Recent publications highlight advancements in gallium oxide polymorphs, contact metallization, and phase transformations under thermal stress. These studies leverage in situ microscopy and computational modeling to optimize semiconductor performance. Scientific Awards : AVS Fellow (2021), Philbrook Prize (2012), NSF Career Award (1999-2004), National Swedish Foundation Visiting Professorship (2000-2002).

• Materials Simulation
• Atom Probe Tomography
• Microstructure Analysis
• +9 more

Dierk Raabe serves as Professor at RWTH Aachen University and Director of the Department of Microstructure Physics and Alloy Design at the Max Planck Institute for Sustainable Materials in Düsseldorf. His leadership spans computational materials science, sustainable metallurgy, and advanced alloy development, with emphasis on creating innovative materials for energy, mobility, and health applications through physics-based design approaches. Raabe earned his academic credentials at RWTH Aachen University, completing his Diploma (1984-1990, summa cum laude), Dr.-Ing. (1990-1992, summa cum laude), and Habilitation (1992-1997) in Metallurgy and Metal Physics. Prior to his doctoral studies, he attended Musikhochschule Rheinland (1983-1984) for music education. His research centers on integrating thermomechanical processing, atomic-scale characterization, and computational modeling to develop next-generation materials. Key focus areas include atom probe tomography, crystal plasticity finite element modeling, high-entropy alloys, and sustainable metallurgical processes. Raabe pioneered the DAMASK simulation toolbox for crystal mechanics and multiphysics property prediction. His distinctive approach combines theory, characterization, and development to invent alloys with exceptional strength, ductility, and damage tolerance while addressing hydrogen embrittlement and decarbonization challenges. Recent publications (2025) reveal strong emphasis on sustainable metallurgy, particularly hydrogen-based iron reduction and high-entropy alloy design. His team investigates atomic-scale hydrogen barriers, plasma reduction of iron ores, and sustainable aluminum recycling. The work bridges fundamental atomic phenomena with industrial applications for CO2-free metal production, showcasing his leadership in transforming materials science toward circular economy principles. Gottfried-Wilhelm-Leibniz Prize (2004) ERC Advanced Grants (2012, 2022) Acta Materialia Gold Medal (2022) Lee Hsun Lecture Award (2008) Weinberg Lecture Award (2011) Multiple Best-Paper Awards across major materials journals Membership in German National Academy of Sciences Leopoldina Raabe has supervised over 70 PhD students, many now holding leadership positions in global industry and academia. His research is supported by major grants including two ERC Advanced Grants and extensive industrial collaborations focused on sustainable materials development. He previously served on the German Science Council (2010-2016) and chaired RWTH Aachen's University Council (2012-2016). Leading the Department of Microstructure Physics and Alloy Design at the Max Planck Institute, Raabe directs teams combining experimental characterization (including state-of-the-art atom probe tomography) with computational modeling. Current flagship projects include CO2-free metal production through hydrogen plasma reduction and designing high-performance sustainable alloys, with the DAMASK simulation platform serving as a cornerstone for multi-scale materials design.

Tadashi OkazakiView profile

Associate Professor

• Quantum Field Theory
• String Theory
• Gauge-Gravity Duality
• +4 more

Tadashi Okazaki is an Associate Professor at the Shing-Tung Yau Center of Southeast University, China, holding this position since December 2022. His academic trajectory includes research fellowships at Korea Institute for Advanced Study, postdoctoral positions at Durham University, Perimeter Institute, National Taiwan University, and KEK Theory Center, plus JSPS fellowship at Caltech. His research focuses on quantum field theory and string theory with emphasis on gauge-gravity dualities, supersymmetric gauge theories, and mathematical structures in theoretical physics. Key investigations involve brane constructions, boundary conditions in quantum field theories, Schur indices, and M2-brane physics. Recent work demonstrates strong connections between gauge theory correlators and mathematical structures like plane partitions and q-special functions. Professor Okazaki maintains an active publication record with 15 significant papers from 2019-2024 in top journals including Journal of High Energy Physics and Physical Review D. His research shows consistent evolution from foundational work on boundary conditions toward current explorations of line defect correlators and dualities in exceptional gauge groups. Awarded the competitive JSPS Research Fellowship for Young Scientists DC1 in 2012, he serves as referee for leading journals including: Journal of High Energy Physics (Springer) Communications in Mathematical Physics (Springer) Mathematical Reviews (AMS) Journal of Mathematical Physics (AIP) He has delivered 20+ invited talks at international conferences including Strings 2012, SUSY 2021, and the First International Congress of Basic Science. His seminar invitations span 15+ institutions worldwide including Caltech, Cambridge, and Tokyo Institute of Technology, reflecting strong international collaboration networks. Current research at Southeast University's Shing-Tung Yau Center continues his exploration of quantum field theory dualities and mathematical structures.