Find Academic Supervisors

Atanu PatraView profile

Research Fellow

• Materials Science
• Condensed Matter Physics
• Nanotechnology
• +3 more

Dr. Atanu Patra is a Research Fellow at the University of Würzburg's Department of Technical Physics. He specializes in advanced materials research with a focus on nanotechnology, semiconductor heterostructures, and energy materials. His work integrates experimental techniques like strain engineering, microscopy, and spectroscopy to explore novel material properties. Research interests include: Strain-engineered 2D materials (e.g., InSe/MS₂ heterostructures) Magnetic and electronic properties of low-dimensional systems Development of luminescent and electrocatalytic materials for optoelectronics and energy devices His publications (2013–2025) emphasize material characterization techniques and applications in quantum materials, with recent work highlighting strain effects in van der Waals heterostructures and MOF-derived electrocatalysts. No scientific awards are explicitly listed. Dr. Patra collaborates within the Technical Physics team at the University of Würzburg, contributing to projects like the Cluster of Excellence ct.qmat and the Würzburg-Wrocław Nanophotonics Center. His lab focuses on synthesizing and analyzing novel materials for next-generation technologies.

Paras PrasadView profile

Professor

• Nanophotonics
• Biophotonics
• Nonlinear Optical Processes
• +2 more

Dr. Paras Prasad is SUNY Distinguished Professor at University at Buffalo with joint appointments in Chemistry (College of Arts & Sciences) and Electrical Engineering (School of Engineering). As Director of the Institute for Lasers, Photonics, and Biophotonics, he leads cutting-edge research. Research: Pioneers nanostructured photonic materials for applications in biophotonics, nonlinear optics, and nanomedicine. Develops advanced materials like chiral plasmonic nanocomposites and lanthanide nanoscintillators. Publications: Recent work demonstrates strong focus on nanophotonic therapeutics and diagnostics, with innovations in chiral plasmonics, laser-synthesized nanotherapeutics, and multimodal imaging probes. Research consistently bridges fundamental nanoscience and clinical applications.

• Si and SiGe Chemical Vapor Deposition
• Self-Organization Phenomena
• Surface and Interface Physics
• +4 more

Michael Goryll is an Associate Professor in the School of Electrical, Computer and Energy Engineering at Arizona State University (ASU), affiliated with the Fulton Schools of Engineering. He joined ASU in 2007 and holds a Ph.D. and diploma in Physics from RWTH Aachen University, Germany. His postdoctoral work focused on biosensors at ASU (2003–2005), followed by research at Germany's Research Centre Juelich on SiGe Chemical Vapor Deposition and biosensor development. Education: Ph.D. in Physics, RWTH Aachen University, Germany (2000) Diploma in Physics, RWTH Aachen University, Germany (1997) Research Interests: Goryll specializes in Si/SiGe Chemical Vapor Deposition, self-organization in semiconductors, surface/interface physics, strain engineering in semiconductors, and novel CMOS materials. His work bridges nanotechnology, energy systems, and biomedical applications, including nanopore sensors and solar cell efficiency optimization. Grants & Collaborations: NSF CAREER Award (2012–2017) for voltage-gated solid-state nanopore research NSF-funded work on diatom nanopore membranes (2011–2016) Collaborations with Sandia National Labs and Georgia Tech on nanotechnology and radiation sensors Teaching: Leads graduate courses in quantum mechanics for engineers, photovoltaic energy conversion, and digital design fundamentals. Supervises honors theses and directed studies in electrical engineering. Labs/Teams: Active in the ASU Nanotechnology Group and Sensor Signal Processing Research initiatives, focusing on flexible electronics and biomimetic sensors.

Doğan ERBAHARView profile

Professor

• Computational Physics
• Carbon Nanomaterials
• Molecular Dynamics Simulations
• +3 more

Prof. Dr. Doğan ERBAHAR is a Professor in the Mechanical Engineering (English) department at Dogus University's Faculty of Engineering. His academic journey includes a B.Sc. in Physics from Boğaziçi University, M.Sc. and Ph.D. in Physics from Gebze Yüksek Teknoloji Enstitüsü. He has conducted postdoctoral research at Michigan State University and CNRS's IMN Institute in France. Since 2018, he has been affiliated with Dogus University. His research focuses on computational physics, carbon nanomaterials, molecular dynamics simulations, and DFT calculations. Notable contributions include studies on graphene, superconductivity in C₆₀ nanoarrays, and the development of fluorescent sensors for ion detection. He co-authored the book Nanoscale Materials for Warfare Agent Detection: Nanoscience for Security (Springer, 2019) and has supervised two doctoral/master's theses: 'Fullerenes in the origin of life' and 'Machine learning methods in analyzing 2D nanostructures'. His publications span journals like Physical Review B , Computational Materials Science , and Carbon , emphasizing interdisciplinary approaches in materials science. He maintains an active role in academic service and has held roles such as Research Assistant at Gebze Yüksek Teknoloji Enstitüsü (2004) and Dozent at Dogus University (2018).

• Materials Science
• Solar Energy Technology
• Nanomaterials
• +5 more

Professor John Bell is a distinguished academic at Queensland University of Technology, holding a position in the School of Chemistry and Physics within the Department of Physics and Materials Science. With an extensive publication record spanning over two decades from 2002 to 2024, he has established himself as a leading researcher in materials science with particular expertise in solar energy technology, nanomaterials, and energy storage systems. Professor Bell's research interests encompass a broad spectrum of advanced materials development and applications. His work focuses on cutting-edge areas including perovskite solar cells, thin film technology, and sustainable energy solutions. He has made significant contributions to understanding the properties and applications of nanomaterials, particularly in energy conversion and storage contexts. His research bridges fundamental materials science with practical applications in renewable energy technologies. Analysis of his recent publications reveals a strong emphasis on environmentally friendly processing techniques for energy materials, particularly in the development of perovskite solar cells and advanced battery technologies. His work demonstrates a consistent trajectory toward sustainable materials solutions with reduced environmental impact. The interdisciplinary nature of his research connects physics, chemistry, and engineering to address critical energy challenges. Professor Bell has mentored numerous graduate students and early-career researchers, with frequent collaborations indicating a strong research group structure. His work has attracted significant research funding, as evidenced by the scale and scope of his publications across high-impact journals. He has established productive collaborations both within his institution and internationally, contributing to major advances in materials for sustainable energy applications. His research group maintains strong connections with industry partners and government research initiatives focused on renewable energy technologies. The group operates specialized laboratories for nanomaterials synthesis, thin film deposition, and advanced characterization of energy materials. Their work continues to push the boundaries of materials science for next-generation sustainable energy solutions.

• Photovoltaics
• Perovskite Solar Cells
• Materials Science
• +3 more

Professor Xia Chen is a distinguished researcher at Fuzhou University's School of Materials Science and Engineering, with significant contributions across multiple disciplines including photovoltaics, materials science, and energy technologies. Her research portfolio demonstrates exceptional breadth while maintaining focus on advanced materials development. Her primary research interests center on photovoltaic materials , particularly perovskite solar cells where she has made notable contributions to device stability and efficiency enhancement. Her work spans materials synthesis , characterization techniques , and device engineering , with particular expertise in surface modification, defect passivation, and doping strategies for energy applications. Additional research areas include ceramic electrolytes for solid oxide fuel cells, corrosion mechanisms in structural materials, and biocatalysis. Professor Chen's research output demonstrates remarkable diversity across scientific domains while maintaining technical depth. Her publications span high-impact journals including Nature, with particular emphasis on materials solutions for renewable energy challenges. The research trends show increasing focus on interdisciplinary approaches that bridge materials science with energy applications, particularly in next-generation photovoltaic technologies. Among her notable achievements are multiple National Natural Science Foundation of China grants and Fujian Province Science and Technology Awards recognizing her contributions to materials innovation. Her collaborative research network spans multiple institutions both domestically and internationally, reflecting the significance of her work in the global scientific community. Current research directions emphasize practical applications of advanced materials for sustainable energy solutions.

Liu ChuanlaiView profile

Researcher

• Computational Materials Science
• Energy Storage Materials
• Microstructure Physics
• +5 more

Liu Chuanlai is a computational materials scientist with dual affiliations at the Max Planck Institute for Sustainable Materials (formerly Max Planck Institute for Iron Research) in Germany and the National Engineering Research Center of Light Alloy Net Forming at Shanghai Jiao Tong University in China. His research focuses on the development and application of advanced computational methods to understand and design energy storage materials and structural alloys. His primary research interests include computational materials science, microstructure physics, alloy design, phase-field modeling, crystal plasticity, and solid-state battery materials. Liu employs multi-scale modeling approaches combining phase-field methods, crystal plasticity, and CALPHAD-informed thermodynamics to investigate phenomena such as spinodal decomposition, deformation twinning, grain boundary precipitation, and chemo-mechanical degradation in various alloy systems including aluminum, magnesium, and battery electrode materials. Analysis of his recent publications reveals a strong emphasis on multi-physics modeling of microstructural evolution in metallic systems, particularly focusing on the interplay between chemo-mechanical effects and microstructural features. His work often combines advanced computational techniques with experimental validation through collaborations with leading materials research groups worldwide. Liu has established productive research collaborations with prominent scientists including Dierk Raabe, Franz Roters, and other members of the Max Planck research community. His publications appear in top-tier materials science journals such as Nature Communications, Acta Materialia, and Advanced Science, demonstrating the high impact of his research in the computational materials science community.

Qiang (Michael) GaoView profile

Research Fellow

• Semiconductor Nanotechnology
• Nanowire Growth
• Crystal Structure Engineering
• +2 more

Qiang (Michael) Gao serves as a Research Fellow in the Department of Electronic Materials Engineering at the Australian National University's Research School of Physics and Engineering. His academic appointment places him within one of Australia's leading research institutions focused on advanced materials and semiconductor technologies. Dr. Gao's research interests center on semiconductor nanotechnology, with particular expertise in III-V compound semiconductors, nanowire growth mechanisms, and crystal structure engineering. His work bridges fundamental materials science with potential applications in next-generation electronic and optoelectronic devices. His research has significant implications for semiconductor device miniaturization and performance enhancement through precise control of nanoscale crystal structures. Analysis of Dr. Gao's publication record reveals a consistent focus on semiconductor nanowires, particularly examining crystal phase control in III-V materials systems. His work demonstrates expertise in epitaxial growth techniques and advanced characterization methods including time-resolved terahertz spectroscopy. The research shows particular attention to the relationship between crystal structure, defect engineering, and electronic properties in nanoscale semiconductor systems. Dr. Gao collaborates extensively with leading researchers in the field, including Professor Chennupati Jagadish and other prominent scientists at ANU. His work appears in high-impact journals such as Nano Letters and Nanotechnology, indicating recognition within the semiconductor research community.

Marc-Georg WillingerView profile

Professor

• Electron Microscopy
• Catalytic Materials
• Energy Storage and Conversion
• +3 more

Prof. Dr. Marc-Georg Willinger is a Professor at the Technical University of Munich (TUM), leading the Chair of Electron Microscopy with research emphasis on Energy Materials . His work focuses on understanding material structure-property correlations through advanced in-situ and operando electron microscopy techniques. He studies catalytic processes in energy storage/conversion systems, combining transmission electron microscopy (TEM) and scanning electron microscopy (SEM) for multi-scale analysis of atomic-scale dynamics and collective phenomena like dissipative structures and redox oscillations. His research group investigates how materials behave under real-world reaction conditions, moving beyond traditional vacuum-based studies. Key projects include analyzing catalyst nanoparticle interactions with oxide supports, studying dynamic surface reactions, and developing methods to observe material behavior during critical processes like methane oxidation and CO₂ reduction. The group’s facilities are part of TUM’s Catalysis Research Center , emphasizing collaborative, application-driven materials science. Willinger’s methodologies bridge gaps between atomic-scale observations and macroscopic material behavior, enabling insights into catalyst stability, reaction mechanisms, and material degradation. His work has applications in renewable energy systems, electrochemical processes, and sustainable materials design.

• Condensed Matter Physics
• Materials Engineering
• Physical Chemistry
• +7 more

Professor Nicholas Harrison is the Chair of Computational Materials Science and Director of Development at the Department of Chemistry, Imperial College London (Faculty of Natural Sciences). His work focuses on developing quantum mechanical computational methods for condensed matter systems, with applications in advanced materials discovery. Key research areas include spintronics materials, multiscale bone fracture modeling, and corrosion mechanisms. He leads the Computational Materials Science Group and is affiliated with multiple institutes including the Institute for Molecular Science and Engineering and the Thomas Young Centre. Education details are not explicitly listed but his long-term academic career suggests advanced degrees in chemistry or materials science. His research integrates computational simulations with experimental insights, addressing challenges in energy storage, catalysis, and structural materials. Over 30 years of expertise in ab initio methods has led to contributions in software development (e.g., CRYSTALpytools) and fundamental material property investigations. Recent publications emphasize energy-related materials (e.g., photocathodes, photoanodes), corrosion science (Mg surface behavior), and quantum phenomena in molecular systems. His work bridges theoretical and applied domains, aiming to accelerate materials innovation for sustainability and technology. Notable collaborations include the Thomas Young Centre for materials theory and partnerships with engineering teams at Imperial. Research infrastructure includes advanced computational facilities and experimental partnerships in materials characterization.

• Condensed Matter Physics
• Quantum Physics
• Physical Chemistry
• +3 more

Professor Dimitri Vvedensky is a Professor of Physics at Imperial College London's Department of Physics within the Faculty of Natural Sciences. His research focuses on condensed matter physics, quantum physics, and materials engineering, with affiliations including the Condensed Matter Theory Group and the Physics of Life initiative. He holds an ORCID identifier: 0000-0002-4990-0208 and is based at the Blackett Laboratory. His research interests span theoretical and applied physics, including surface physics, epitaxial growth, quantum dots, and statistical topology of materials. He has contributed to understanding nanostructure formation, graphene growth, and the interplay between symmetry and material properties. Recent work explores applications in placental vascular topology and interdisciplinary models linking physics to finance and epidemiology. Publications highlight his work on density-functional theory, path integrals in porous media, and minimal surface phenomena. His articles often bridge fundamental physics with practical applications in materials science and biophysics. Collaborative research extends to placental vascular analysis and agent-based modeling. Professor Vvedensky is part of Imperial's Physics Permanent Researchers group and the Matter Community. His career reflects a blend of theoretical innovation and experimental validation, particularly in epitaxy and surface dynamics.

• Functional Oxides
• Superconductivity
• Magnetoresistive Materials
• +3 more

Patrick Berthet is a Professor at Université Paris-Saclay, affiliated with the SP2M research group within the ICMMO (Institut de Chimie Moléculaire et des Matériaux d'Orsay, UMR 8182). His research focuses on the synthesis and characterization of functional oxides, including superconductors, magnetoresistive materials, and multiferroics. He holds roles as the Scientific Integrity Officer for Université Paris Sud and is a member of the POLETHIS ethics committee at Université Paris-Saclay. Research Themes: Development of novel oxide-based materials with tailored electronic and magnetic properties Study of high-temperature superconductivity and related phenomena in cuprate systems Investigation of doping effects in magnetic and conducting oxides Crystal growth techniques under external parameters (electric fields, dopants) Publication Trends: His work spans 2014–2018, emphasizing structural/property relationships in complex oxides, with key contributions to: Multiferroic perovskites (Sr₂FeMoO₆) Copper-oxide superconductors (SrCuO₂) Defect-engineered materials (TiO₂, calcite) Electrochemical tungstoarsenates Advising & Grants: No formal advisee list is provided, but collaborative projects with international teams (e.g., CEA Saclay, Laboratoire Léon Brillouin) are evident through co-authorships. Active in material synthesis and crystallography facilities at ICMMO. Labs & Teams: Prominent member of the SP2M team focused on molecular and macromolecular synthesis for biological/environmental applications within the broader ICMMO framework.

Gianluigi BottonView profile

Professor

• Nanoscale Materials
• Energy Storage
• Electron Microscopy
• +4 more

Professor Gianluigi Botton is the Canada Research Chair in Electron Microscopy of Nanoscale Materials at McMaster University 's Department of Materials Science and Engineering. He serves as Science Director of the Canadian Light Source and Founding Director of the Canadian Centre for Electron Microscopy (CCEM), which houses state-of-the-art instrumentation like aberration-corrected microscopes, atom probe tomography, and dual-EELS systems. Education: B.Eng. Physics (1987), Ph.D. Materials Engineering (1992) from École Polytechnique Montréal His research focuses on advanced electron microscopy techniques for studying nanoscale materials, with applications in energy storage (batteries/fuel cells), plasmonics , and corrosion science . His team has pioneered atomic-scale imaging of single-atom catalysts, plasmonic nanostructures, and battery material degradation mechanisms. Recent work includes 2D strain mapping via STEM-Moiré interferometry and unraveling Li-ion cathode decay pathways. The 2018-2016 publications highlight his group's impact across multiple domains: atomic-resolution studies of superconducting thin films, stabilization mechanisms of nanoporous gold, and breakthroughs in CO2-to-fuel electrocatalysis using Cu/Fe/Cr-based nanomaterials. His work bridges materials physics and applied engineering , evidenced by collaborations with industry partners and over 300 peer-reviewed articles. Scientific Recognition: Fellow of Royal Society of Canada (2018), Metal Physics Medal (2017), Canada Research Chair Tier 1 (2016), Dean's Platinum Mentoring Honor Roll (2017,2019) Botton's group trains PhD students and postdocs in cutting-edge microscopy, collaborating internationally with institutions like École Polytechnique Montréal and the Chinese Academy of Sciences. Their research has secured millions in federal funding and shaped Canada's microscopy infrastructure through CCEM's expansion.

Elton GraugnardView profile

Associate Professor

• Atomic Layer Deposition (ALD)
• Two-Dimensional Materials
• Nanoscale Materials Synthesis and Characterization
• +7 more

Dr. Elton Graugnard is an Associate Professor in the Micron School of Materials Science and Engineering at Boise State University, where he has worked since 2009. He leads the Atomic Films Lab, focusing on atomic layer deposition (ALD) and atomic layer etching (ALE) of two-dimensional (2D) materials. B.S. in Physics, Centenary College of Louisiana Ph.D. in Physics, Purdue University (2000) M.S. in Physics, Purdue University (1998) His research interests include: Development of ALD/ALE processes for 2D materials like MoS2 DNA nanotechnology applications in sensing and molecular engineering Nanoscale materials characterization using STM and AFM Photonic crystals and dielectric material processing Recent research trends highlight his work in: Optimizing contact resistance in semiconductor materials (2025) Advancing sodium ion battery electrode materials through Li doping (2025) Corrosion behavior analysis in magnesium alloys (2025) Biomedical device coatings with tunable degradation (2024) Scientific recognition includes: 2024 Journal Reviewer for Physical Review Letters, Physical Review B, Advanced Materials 2005 Editor's Choice in Science Dr. Graugnard leads projects funded by the National Science Foundation, including the Center for Atomically Thin Multifunctional Coatings (ATOMIC) and a Controlled-Environment Atomic Force Microscope for nanoelectronic characterization. His work aligns with UN Sustainable Development Goals through applications in energy-efficient electronics and biomedical materials.

• Computational Materials Science
• High Entropy Ceramics
• Tribology and Tribochemistry
• +7 more

Donald W. Brenner is a Kobe Steel Distinguished Professor and Department Head in the Department of Materials Science and Engineering at North Carolina State University . He earned his B.S. and Ph.D. in Chemistry from the State University of New York (1982) and Penn State University (1987), respectively, followed by a research staff role at the U.S. Naval Research Laboratory. His career at NC State spans three decades, focusing on computational materials science and atomic-scale modeling. B.S. in Chemistry, State University of New York (1982) Ph.D. in Chemistry, Pennsylvania State University (1987) Brenner's research centers on computational materials modeling for extreme environments, particularly high entropy ceramics , tribology , and shock dynamics . His work employs density functional theory, molecular dynamics, and multi-scale simulations to study materials like diamond clusters, nanotubes, and self-assembled monolayers. Recent publications emphasize defect properties, hardness optimization, and machine-learned interatomic potentials for ternary and high-entropy systems. Scientific honors include the 2002 Feynman Prize (nanotechnology), 2013 Alcoa Foundation Award , and 2016 Alexander Quarles Holladay Medal . He is also an editor of the Handbook of Nanoscience, Engineering and Technology (CRC Press, 2002-2012). His research group develops reactive empirical bond order (REBO) potentials and explores tribochemical processes, shock-induced chemistry, and nanoscale device engineering.