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Gérard BernhartView profile

Professor

• Composite Materials
• Polymerization Kinetics
• Thermoplastic Composites
• +6 more

Gérard Bernhart is a Professor at IMT Mines Albi (National School of Mines of Albi-Carmaux), where he is a member of the Composite Materials and Structures group (MSC). He serves as Director of Corporate and Alumni Relations at the institution and maintains active research and teaching responsibilities in the field of composite materials and superplastic forming. His research interests focus on composite process engineering, including thermo-compression and inflation forming using specialized equipment like the EDyCO pilot and lamp forming systems. He investigates multifunctional composite materials with mechanical, shielding, thermal, and electromagnetic properties, working with innovative fibers like basalt and carbon nanotube mats. His work extends to polymerization kinetics of thermosetting composites, recycling of composite materials, welding of thermoplastic composites, and superplastic forming of metal sheets. Professor Bernhart teaches courses in continuous media mechanics, elasticity, RdM, and behavior and modeling of composite materials across various training programs. His research output includes 174 scientific contributions spanning two decades, with recent publications demonstrating continued activity in composite materials science and engineering. His work shows strong connections between theoretical modeling, experimental validation, and industrial applications, particularly in aerospace and advanced manufacturing sectors. He contributes significantly to the academic community as a member of the International Advisory Board of the ICSAM conference series (International Conference on Superplasticity of Advanced Materials) and the International Board of the EuroSPF conference series (European Conference on Superplasticity).

• Biological Physics
• Biomedical Sciences
• Materials Science
• +3 more

Dr. Ablikim Bake is a Research Fellow at the Institute for Biomedicine and Glycomics, Griffith University (appointed 2024-present). His research focuses on biological physics, biomedical sciences, materials science, and nanotechnology, with specific expertise in topological materials, magnetic nanocomposites, and nanofabrication techniques. Research interests span condensed matter physics, thermoelectric materials, and quantum transport phenomena. Key themes include: Topological insulator design and characterization Magnetic property engineering in thin films and nanocomposites Nanoscale material fabrication for energy and sensing applications Surface and interface phenomena in quantum materials Recent publications demonstrate consistent focus on quantum materials engineering (2022-2025), with evolving applications in biomedicine. Current work includes glyco-nano-tool interactions with pathogens. Currently serves as Associate Supervisor for doctoral project: CRISPR-Dx and novel vaccination strategy as practical solutions for HIV pandemics in LMICs (Griffith University). Grant recipient: ANSTO Travel Support (2025) for Small Angle Neutron Scattering Study of glyco-nano-tools interaction with pathogens ($476) Member of Griffith University's Institute for Biomedicine and Glycomics Research Group, contributing to Sustainable Development Goals (SDG 7: Affordable Energy, SDG 3: Health/Well-being).

Steven FreundView profile

Associate Professor

• Corporate Finance
• Equity Options
• Security Markets

Steven Freund serves as Associate Professor of Finance and Finance Chair at the Manning School of Business, University of Massachusetts Lowell. His academic leadership spans corporate finance research and departmental administration within the Management department. His educational credentials include: Ph.D. in Finance from Leonard N. Stern School of Business, New York University M.B.A. from University of Connecticut B.S. in Management Engineering from Rensselaer Polytechnic Institute Freund's research centers on corporate finance mechanisms, equity derivatives, and market microstructure. He investigates executive compensation structures, shareholder litigation impacts, and volatility dynamics in security markets, bridging theoretical models with empirical analysis of real-world financial phenomena. His work consistently addresses governance failures and market inefficiencies through rigorous quantitative methods. Publication trends reveal an evolution from foundational derivatives research (1990s GARCH modeling, option pricing) to contemporary corporate governance studies (2020s CSR litigation, inside debt effects). His 25+ year output demonstrates sustained focus on finance fundamentals while adapting to emerging market complexities, primarily through collaborations with international co-authors in top-tier journals like Journal of Financial and Quantitative Analysis.

Steven J ZinkleView profile

Professor

• Radiation effects in materials
• Fusion reactor materials
• Fission reactor materials
• +5 more

Steven J Zinkle serves as the Governor's Chair for Nuclear Materials with a joint appointment in the University of Tennessee Departments of Nuclear Engineering and Materials Science & Engineering. Appointed in August 2013 from Oak Ridge National Laboratory (ORNL), he maintains strong dual affiliations with both UT Knoxville and ORNL, where he continues to conduct cutting-edge research in nuclear materials science. Dr. Zinkle's research interests focus on developing high-performance, radiation-resistant materials for advanced nuclear fission and fusion energy applications. His work spans radiation effects in materials, deformation and fracture mechanisms in structural materials, fusion and fission reactor materials, materials processing under extreme conditions, microstructure-property relationships, thermal and electrical conductivity of materials, transmission electron microscopy, accident tolerant fuel systems, and nonequilibrium and additive manufacturing processes. His research program aims to build better nuclear reactors through fundamental understanding of materials behavior under radiation. Zinkle's publication record demonstrates a consistent focus on radiation damage mechanisms, with recent work integrating advanced computational techniques like deep learning for materials analysis. His research spans fundamental studies of defect formation and evolution to applied work on accident-tolerant fuel systems following the Fukushima Daiichi nuclear disaster. Recent publications show increasing interdisciplinary work combining materials science with computational methods to accelerate materials discovery and characterization. Member of the National Academy of Engineering (2012) US Dept. of Energy Ernest Orlando Lawrence Memorial Award (2006) Fellow of American Physical Society, Materials Research Society, TMS, AAAS, ANS, ASM International, and American Ceramic Society ORNL Corporate Fellow (2004) ANS Mishima Award (2007) Robert W. Cahn Award (2010) University Wisconsin College of Engineering Distinguished Achievement Award (2010) Dr. Zinkle has mentored 11 postgraduate scholars directly (4 as primary advisor, 7 as co-advisor) and served on numerous thesis committees for graduate students worldwide. His professional service is extensive, including leadership roles in DOE Fusion Energy Sciences Advisory Committee, multiple editorial board positions, and service on advisory panels for national laboratories and international research organizations. He has been instrumental in shaping national research directions in nuclear materials through his committee work. Zinkle leads research within ORNL's Physical Sciences Directorate, Materials Science and Technology Division, with strong connections to UT Knoxville's nuclear engineering programs. His work often involves collaborative projects with international partners, including research institutions in Japan, France, and China, reflecting the global nature of fusion energy research.

• Multiphase Flow Systems
• Complex Phase Interactions
• Turbulence Modulation
• +10 more

Dr. Subhasish Mitra is a Research Academic in the Discipline of Chemical Engineering at the University of Newcastle. His expertise lies in multiphase flow systems, turbulence modulation, and mineral processing. With 15 years of industry and academic experience, he focuses on optimizing energy and material use in industrial processes like ironmaking, mineral flotation, and wastewater treatment. Education : PhD, University of Newcastle (Australia) M.Tech, Indian Institute of Technology Kanpur B.Tech (Honours), Vidyasagar University Postgraduate Certificate in Nuclear Science & Engineering, Bhabha Atomic Research Center Research Interests : Complex phase interactions in drops, bubbles, and particles Turbulence effects in multiphase systems CFD modeling for mineral flotation and blast furnace dynamics High-temperature behavior of iron ore burdens Wastewater treatment via droplet-surface interactions Publications : Over 100 peer-reviewed articles, focusing on topics like bubble dynamics, CFD modeling, and blast furnace hydrodynamics. Recent work explores hydrogen-injection effects in ironmaking and nanobubble interactions. Awards : 2024 GLS16 Young Researcher Award 2017 Outstanding Contribution in Reviewing (Elsevier) Multiple recognition awards for peer review (2018) Supervision & Grants : Supervised PhD/Master’s students in multiphase systems and mineral processing. Active in grants related to blast furnace optimization and fluidized bed dynamics. Labs/Teams : Involved in synchrotron-based flow modeling and ultrasonic flotation cell development at the University of Newcastle.

• Materials Science
• Thin Films
• Coating Architecture
• +2 more

Nina Schalk is an Associate Professor at the Chair of Functional Materials and Materials Systems, Montanuniversität Leoben. Her research focuses on advanced coating technologies, including microstructure-property relationships in CVD/PVD coatings, thermal stability, oxidation resistance, and atom probe tomography techniques. She investigates nanolamellar architectures and multilayer systems for enhanced mechanical performance.

Abdul SyedView profile

Researcher

• Materials Science
• Additive Manufacturing
• Fatigue and Fracture Mechanics
• +4 more

Abdul Syed is a Researcher at the Faculty of Engineering and Computing, Coventry University, specializing in advanced materials science for aerospace applications. He holds a PhD in Aerospace Engineering from The Open University, UK, earned in 2014 through research on bonded crack retarders for structural integrity enhancement. His career spans roles in residual stress analysis, material performance evaluation of additively manufactured alloys, and metal matrix composites. Education : MSc in Advanced Materials Science (Lulea University, Sweden; Saarland University, Germany, 2008) PhD in Aerospace Engineering (The Open University, UK, 2014) Research Interests focus on: Structural integrity and damage tolerance Residual stress measurement techniques Additive manufacturing of titanium/aluminum alloys Fatigue and fracture mechanics Material characterization under extreme conditions Metal matrix composites Publication Trends show a concentration on aerospace-grade alloys (Ti-6Al-4V, Al-Mg-Sc) and additive manufacturing processes (wire-arc DED, LPBF). Key analytical methods include neutron diffraction, tomography, and in situ mechanical testing to study defect tolerance, crack propagation, and residual stress evolution. Collaborations include partnerships with Dr. X. Zhang and industrial stakeholders in aerospace R&D. He actively supervises PhD students and contributes to advancing predictive models for fatigue life in AM components.

Markus StroblView profile

Professor

• Neutron Imaging
• Materials Science
• Additive Manufacturing
• +5 more

Prof. Markus Strobl is a Professor at the Paul Scherrer Institute (PSI) within the Laboratory for Neutron Scattering and Imaging , part of the Center for Neutron and Muon Sciences . His research focuses on advanced neutron-based characterization techniques, including neutron imaging, diffraction, and tomography, applied to materials science challenges in additive manufacturing, battery technology, and corrosion analysis. He leads efforts in developing novel experimental setups for in-situ studies of material behavior under extreme conditions. Key research areas include: Neutron dark-field imaging for nanostructure analysis Crystallographic texture manipulation in metals via additive manufacturing Operando studies of electrochemical systems (batteries, fuel cells) Characterization of microstructural evolution in laser powder bed fusion materials Recent work highlights the application of neutron techniques to study phase evolution in graphite electrodes, hydrogen transport in Ni-MH batteries, and corrosion mechanisms in concrete-reinforced steel. His group has pioneered advancements in neutron imaging instrumentation, including the FALCON diffractometer add-on and event-mode data acquisition systems. Scientific recognition includes the Energy Technology Division Graduate Student Award (2024). His lab actively collaborates on international projects like the HighNESS neutron source development at the European Spallation Source (ESS).

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.

• High-Entropy Materials
• Material Design
• Magnetic Materials
• +3 more

Dr. Liuliu Han is a Researcher and Project Group Leader at the Max Planck Institute for Sustainable Materials, leading the Department of Microstructure Physics and Alloy Design. His work focuses on designing multifunctional high-entropy materials, advancing sustainable material design through artificial intelligence, and studying microstructure-mechanical property relationships in advanced alloys. He spearheads the 'De magnete - Designing Magnetism on the atomic scale' initiative, exploring novel magnetic materials with exceptional mechanical performance. His research integrates experimental techniques like atom probe tomography with computational methods for predictive material design. Key research areas include high-entropy alloy development, magnetism optimization, and thermodynamics-guided alloy discovery. Dr. Han’s team employs machine learning to enhance material sustainability, optimize microstructural features, and balance mechanical properties such as strength and ductility. His group also investigates nanostructured magnets, Widmanstätten precipitates, and thermal stability in high-performance materials. Dr. Han’s address is at the Max Planck Institute for Sustainable Materials in Düsseldorf, Germany. He actively publishes in top-tier journals and collaborates internationally. Contact details include liuliu.han@... and professional links to Google Scholar and LinkedIn.

Michael LoewenbergView profile

Professor

• Complex Fluids Dynamics
• Soft Condensed Matter Physics
• Polymer Rheology
• +3 more

Michael Loewenberg is a Professor of Chemical & Environmental Engineering at Yale University. His research focuses on complex fluids dynamics, particularly the interplay between microstructural relaxation and external flow fields in systems like emulsions, polymers, and colloidal suspensions. His work has applications in materials science, biomedical engineering, and environmental remediation. He holds a Ph.D. from the California Institute of Technology. His research interests include rheology, microfluidic device design, and the dynamics of soft condensed matter. Notable contributions include predictive models for multiphase fluid behavior in industrial processes and novel approaches to pandemic mitigation via computational simulations. Loewenberg's awards include the Presidential Early Career Award for Scientists and Engineers (1999) and the NSF CAREER Award (1996). His research group has pioneered studies on particle demixing in suspension flows, permeable particle dynamics, and electrohydrodynamic systems. His students, including Vittorio Cristini (recipient of the Acrivos Dissertation Prize), have contributed significantly to drop dynamics and breakup mechanisms in turbulent flows. Key research themes include flow-induced self-assembly in confined systems, the mechanics of biological fluids (e.g., blood flow in microcirculation), and the design of microcapsules using interfacial complexation. His work bridges fundamental fluid mechanics with practical engineering solutions for energy and environmental challenges.

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.

Dirk BosbachView profile

Professor

• Nuclear Waste Management
• Radionuclide Migration
• Radiochemistry
• +4 more

Prof. Dirk Bosbach is a leading academic at Forschungszentrum Jülich GmbH, holding a Professorship in the Nuclear Waste Management (IFN-2) department of the Institute of Fusion Energy and Nuclear Waste Management (IFN). His research focuses on geochemical processes relevant to nuclear waste disposal, including radionuclide migration, mineral-water interactions, and spent nuclear fuel behavior. He leads projects like iCROSS (integrity of radioactive waste disposal systems) and contributed to the DISCO project on modern spent fuel disposal. Key affiliations: Institute of Fusion Energy and Nuclear Waste Management Expertise in reactive transport modeling, synchrotron-based materials analysis, and lab-on-a-chip technologies Prominent work on radium retention in clays, uranium oxide microstructure characterization, and cementitious barrier performance Recent research highlights include AI-driven geochemical experimentation, pore-scale modeling of diffusion in unsaturated media, and development of uranium oxide reference materials for nuclear safeguards. His team combines experimental methods (microfluidics, synchrotron XRD) with advanced computational tools to understand coupled hydrogeochemical processes in geological repositories.

Florian WitzmannView profile

Research Professor

• Paleontology
• Evolutionary Biology
• Fish-to-tetrapod Transition
• +7 more

Dr. Florian Witzmann serves as Curator for Fossil Fishes and Amphibians at the Museum of Natural History Leibniz Institute for Evolution and Biodiversity Research in Berlin, Germany, a position he has held continuously since June 2016 (and previously from April 2009 to November 2014). He also functions as Editor-in-Chief of 'Fossil Record,' the museum's paleontological open-access journal. His academic credentials include a habilitation completed in November 2014 at Humboldt University of Berlin with the thesis 'Physiological aspects of the fish-to-tetrapod transition - skin structure, breathing and feeding in early tetrapods,' supervised by Prof. Johannes Müller, and a PhD earned in September 2004 from the same institution focusing on the Permo-Carboniferous temnospondyl amphibian Archegosaurus decheni. His research program centers on three primary interconnected domains: (1) physiological adaptations during the fish-to-tetrapod transition in the late Paleozoic, particularly examining morphological and histological changes in dermal bones and scales alongside restructuring of the gill skeleton related to feeding and respiration mechanisms; (2) evolution of cranial muscles in early tetrapods and amphibians; and (3) paleopathology, with special emphasis on spinal diseases in fossil amphibians and reptiles and the evolutionary history of bone healing mechanisms. His work frequently employs advanced imaging techniques including microCT, FIB-SEM tomography, and phylogenetic disease bracketing to analyze both modern and fossil specimens. Dr. Witzmann's scholarly impact is reflected in publications across prestigious interdisciplinary journals including Nature, Science Advances, Current Biology, The Lancet Diabetes & Endocrinology, and JAMA Oncology. His research has identified ancient diseases in the fossil record such as the oldest known osteopetrosis case in human skeletons, cancer in a 240-million-year-old stem-turtle, and metabolic bone diseases in Permian amniotes. His methodological approach bridges paleontology, evolutionary developmental biology, and clinical medicine to understand deep-time patterns of disease and physiological adaptation. Feodor Lynen-Research Fellow of the Alexander von Humboldt-Foundation (2014-2016) at Brown University's Department of Ecology and Evolutionary Biology Endeavour Leadership Award recipient (2019-2020) supporting research at the Queensland Museum, Brisbane His academic trajectory demonstrates consistent progression from doctoral research on temnospondyl amphibians through postdoctoral work on dermal bone histology to his current leadership role in paleopathology and evolutionary morphology. Dr. Witzmann maintains active collaborations with researchers across Europe, North America, and Australia, contributing significantly to our understanding of vertebrate evolution and the deep history of physiological adaptations.

Warren PooleView profile

Professor

• Advanced Aluminum Alloys
• High-Strength Steels
• Metal Matrix Composites
• +4 more

Warren Poole is a Professor in the Department of Materials Engineering at the University of British Columbia (UBC) and holds the Canada Research Chair in Through Process Modelling of Advanced Structural Materials and the Rio Tinto Aluminium Chair in Materials Process Engineering . He earned his B.E.Sc. (Western) and Ph.D. (McMaster) in materials engineering. His research focuses on advanced aluminum alloys, high-strength steels, and metal matrix composites, with an emphasis on microstructure/property modeling and computational approaches to industrial processes. Research Interests : Microstructural engineering for property optimization Mechanical behavior of two-phase materials Physical modeling of deformation mechanisms Integration of process knowledge for industrial applications Recent Article Trends : His work spans advanced aluminum alloys, magnesium composites, and steel processing, with a focus on microstructure evolution, deformation modeling, and computational analysis of material properties. Scientific Awards : Canada Research Chair in Through Process Modelling of Advanced Structural Materials Rio Tinto Aluminium Chair in Materials Process Engineering Collaborations & Funding : He collaborates with industry leaders such as Rio Tinto, ArcelorMittal Dofasco, and U.S. Steel Canada, integrating empirical and computational approaches to materials processing. His research group at UBC’s Microstructure Group drives interdisciplinary projects in metallurgical modeling.