Find Academic Supervisors

Michael BerminghamView profile

Associate Professor

• Materials Engineering
• Advanced Manufacturing
• Metallurgy
• +3 more

Associate Professor Michael Bermingham is an ARC Future Fellow at the School of Mechanical and Mining Engineering , University of Queensland , with affiliations to the Centre for Advanced Materials Processing and Manufacturing (AMPAM) . His research focuses on advanced manufacturing of metal materials , particularly additive manufacturing and subtractive machining technologies , aiming to optimize alloy design and process interactions for improved material performance. Education: Bachelor of Engineering (The University of Queensland) PhD (The University of Queensland, 2010) with Dean's Award for Outstanding Higher Degree Theses His research spans solidification processing (casting, welding, soldering, additive manufacturing), titanium alloy development for aerospace and biomedical applications, and microstructure optimization through techniques like trace element additions and hot isostatic pressing . Recent work explores 3D printing quality improvement via alloy design and machine learning applications for porosity analysis in metal manufacturing. Michael's 15 most recent publications (2023-2025) highlight advancements in titanium additive manufacturing , fatigue crack correction methods , ω phase embrittlement mitigation through Sn additions, and cryogenic coolant applications in machining. These works demonstrate his expertise in materials characterization , defect control , and process optimization . Scientific Awards: Dean's Award for Outstanding Higher Degree Theses (2010) ATN Go8 EIA National Report Rating 'A: Outstanding impacts' (2012) Australian Award for University Teaching (AAUT) Citation (2020) Michael has secured $9.2 million in ARC funding (including a Future Fellowship, Discovery Early Career Award, Discovery Projects, Linkage Project, and Research Hub) and $0.5 million in industry/internal funding . He supervises multiple PhD and Master's students in projects related to titanium alloy optimization , additive manufacturing defects , and biodegradable metal scaffolds .

• Hydrogen Embrittlement
• Corrosion of Metals
• Additive Manufacturing
• +5 more

Dr. Jeffrey Venezuela serves as a Lecturer at The University of Queensland's School of Mechanical and Mining Engineering. He maintains active affiliations with the Centre for Multiscale Energy Systems and the Centre for Advanced Materials Processing and Manufacturing (AMPAM), contributing to interdisciplinary research in metallurgy and materials science. His academic journey culminated in a PhD from The University of Queensland, where he investigated hydrogen embrittlement in martensitic advanced high-strength steels for automotive applications. Dr. Venezuela's research spans critical areas in metallurgical engineering, with primary focus on hydrogen embrittlement mechanisms in pipeline and automotive steels, corrosion behavior of metals, and development of biodegradable metallic biomaterials. His work bridges fundamental materials science with practical engineering applications, particularly in energy infrastructure and medical device development. Through extensive collaboration with Professor Andrej Atrens and Professor Matthew Dargusch, he has established himself as a leading researcher in hydrogen-related material degradation. Analysis of his recent publications (2023-2025) reveals a strong emphasis on hydrogen embrittlement of pipeline steels, with numerous studies examining X65 steel under various conditions. His work employs sophisticated electrochemical testing, microstructural analysis, and mechanical property evaluation to understand failure mechanisms. Concurrently, he maintains an active research stream in biodegradable metals for medical applications, particularly magnesium and zinc alloys. Dr. Venezuela actively supervises multiple PhD candidates, serving as principal advisor for projects related to hydrogen embrittlement of pipeline steels and additive manufacturing for clean energy applications. His research is supported by significant funding, including a 2020-2025 grant from Future Fuels CRC Ltd focused on hydrogen embrittlement of pipeline steels, and a 2020-2023 Advance Queensland Industry Research Fellowship for advanced manufacturing of medical micro-components. His laboratory work centers on advanced materials characterization, particularly electrochemical testing for hydrogen embrittlement studies and corrosion evaluation of biodegradable metals. The research group maintains strong connections with industry partners in both the energy sector and medical device manufacturing, facilitating translation of fundamental research into practical engineering solutions.

Maciej GalińskiView profile

Professor

• Electrochemical power sources
• Supercapacitors
• Li-ion cells
• +6 more

Professor Maciej Galiński is a distinguished academic at Poznań University of Technology, serving as a Professor in the Faculty of Chemical Technology, specifically within the Institute of Technical Chemistry and Electrochemistry and the Department of Physical Chemistry. He also holds the position of Director of the Institute of Technical Chemistry and Electrochemistry. His extensive academic career includes being a Member of the Senate Committee on Budget and Finance of the Polish Parliament, the WTCH Competition Commission, the International Society of Electrochemistry, and the Electrochemical Society. Educational Background: 2020 – Professor at the Poznań University of Technology 1999 – PhD, Faculty of Chemical Technology, Poznań University of Technology 1993 – M.Sc. in Chemistry, Faculty of Chemistry, Adam Mickiewicz University in Poznań, specialization in Environmental Chemistry 1988 – Chemical technician, Chemical Technical School in Koło, Technology of Inorganic Chemical Processes Professor Galiński's research primarily focuses on electrochemical power sources, with particular emphasis on supercapacitors and Li-ion cells. His work explores the application of ionic liquids as electrolytes in chemical power sources and the processing of biopolymers for electrochemical purposes. His recent publications demonstrate a strong focus on sustainable energy solutions using biopolymers like chitosan and chitin, developing novel electrolytes and electrode materials for electrochemical capacitors and batteries. His extensive publication record shows a consistent research trajectory spanning over two decades, with significant contributions to the fields of electrochemistry and materials science. Recent work (2021-2025) has increasingly focused on sustainable materials for energy storage, particularly exploring biopolymers like chitosan and chitin as alternatives to conventional materials. Scientific Awards and Recognitions: Member of the International Society of Electrochemistry Member of the Electrochemical Society Member of the Senate Committee on Budget and Finance of the Polish Parliament Member of the WTCH Competition Commission Professor Galiński has supervised three doctoral dissertations, mentoring researchers including Krzysztof Karol Nowacki (2023), Monika Figiela (2021), and Dawid Kasprzak (2019). His research group appears to focus on developing sustainable electrochemical energy storage solutions, with particular expertise in biopolymer-based materials and ionic liquid electrolytes. The team has secured research funding for projects related to materials and electrolytes in energy storage devices, as evidenced by recent synthetic data reports from 2023 and 2025. His laboratory work centers on the Institute of Technical Chemistry and Electrochemistry, where they investigate novel materials for electrochemical applications, particularly focusing on sustainable alternatives using biopolymers. The research team has developed expertise in chitosan and chitin processing for electrochemical capacitors, creating innovative hydrogel electrolytes and electrode binders that offer environmentally friendly alternatives to conventional materials.

Reza JafariView profile

Researcher

• Materials Science
• Thermal Spray Technologies
• Composite Materials
• +5 more

Reza Jafari is a Doctoral Researcher at Tampere University's Faculty of Engineering and Natural Sciences, focusing on materials development for demanding environments. His research centers on durable icephobic cold-sprayed coatings, involving microstructural characterization at the Tampere Microscopy Center and Icing Research Center. He holds a Master of Science in High-Temperature Corrosion Behavior of Thermally Sprayed Coatings from Tarbiat Modares University (2017). Research interests include advanced thermal spray technologies, composite materials, and microstructural analysis. His work addresses applications in corrosion protection, additive manufacturing, and environmental engineering, contributing to UN Sustainable Development Goals related to industry and innovation. Recent studies emphasize cold spray deposition, quasicrystal composites, and coating durability under harsh conditions. Key areas: Cold Spray Technology, Quasicrystalline Materials, Microstructure Evolution, Coating Wear Resistance Collaborations: Tampere Microscopy Center, Icing Research Center Publications highlight innovations in flame-sprayed coatings, real-time cold spray monitoring, and mechanical property assessments. His work has been presented at international conferences, including Thermal Spray 2025 and related forums.

• Phase-Field Modelling
• Dislocation Dynamics
• Crystal Plasticity
• +3 more

Dr. Tushar Jogi is a Researcher at the Max Planck Institute for Sustainable Materials, specializing in computational materials science. His research focuses on Phase-Field modeling, Discrete Dislocation Dynamics (DDD), and Multi-Physics Crystal Plasticity. He holds a PhD in Materials Science and Metallurgical Engineering from IIT Hyderabad (2021), with a thesis on computational modeling of Ni-base superalloys. His work bridges theoretical simulations and practical applications in metals and alloys, addressing issues like phase transformations, plasticity, and domain switching in ferroelectric systems. Education: PhD in Materials Science and Metallurgical Engineering (2021), IIT Hyderabad His research interests span advanced modeling techniques for materials behavior, including domain dynamics in ferroelectrics, dislocation networks in alloys, and multi-physics approaches to crystal plasticity. Recent studies highlight innovations in ontology-based workflows for steel industries and dislocation cartography using machine learning. His contributions to phase-field simulations have advanced understanding of superalloy instability and ferroelectric domain engineering. Dr. Jogi collaborates on interdisciplinary projects, such as StahlDigital, integrating computational tools for industrial applications. His work emphasizes sustainable materials development through precise microstructural control and high-performance alloy design.

• Nuclear Materials
• 3D Imaging
• FE Modelling
• +7 more

Prof Paul Mummery holds the Chair in Nuclear Graphite Technology at the University of Manchester's Department of Mechanical and Aerospace Engineering. He leads research in material microstructure-mechanical property relationships, focusing on nuclear graphite, anisotropic materials, and 3D imaging techniques. His work integrates advanced X-ray tomography (via the Henry Moseley Facility) with high-performance computing for FE modeling of large-scale problems. He contributed to Manchester Imaging strategy, positioning the university as a global leader in X-ray imaging applications across engineering and life sciences. Education: DPhil in Materials Science (University of Oxford), first-class degree in Chemical Physics (University of Bristol). Prior roles include lecturer at the University of Leeds and research at the National Physical Laboratory. Research interests span nuclear materials, composite materials, 3D imaging, finite element modeling, and high-performance computing. His projects address reactor safety, irradiation effects, and material degradation under extreme conditions. He collaborates with institutions like Dalton Nuclear Institute and Advanced Materials Research Beacons. Supervised 16 postgraduate students and led projects on nuclear graphite irradiation creep, reactor life optimization, and waste management. His work aligns with UN Sustainable Development Goals related to affordable clean energy and industry innovation. Labs/Teams: Facility Academic at Henry Moseley X-ray Imaging Facility. Active in Manchester Imaging initiatives and cross-disciplinary teams focusing on computational material science.

• Construction Materials
• Nanotechnology in Construction
• Self-Compacting Concrete
• +4 more

Wenzhong Zhu is an Associate Professor at the School of Computing, Engineering and Physical Sciences , University of the West of Scotland. He is also a Visiting Professor at Changchun Institute of Technology since 2019. His research focuses on advanced construction materials, including self-compacting concrete, nanotechnology applications, and recycled materials utilization. He has pioneered nanoindentation techniques for material characterization and has collaborated globally on projects funded by EU, government, and industry bodies. Teaching Responsibilities include coordinating modules such as Civil Engineering Materials , Advanced Construction Materials , and Adv Materials for Sustainable Construction . He contributes to joint engineering programs with Changchun Institute of Technology. His work aligns with UN Sustainable Development Goals related to sustainable infrastructure and resource efficiency. Research Interests span nanotechnology in construction , durability of materials , recycled material integration , and micromechanical characterization . His recent studies address electro-corrosion in concrete, smart materials for structural monitoring, and nanoindentation analysis of cement-based systems. His publications (52+ articles/books) explore topics like interfacial transition zones in recycled concrete, thin film properties, and biomineralization-inspired materials. Funding sources include EU Brite-EuRam projects and UK research councils. He actively collaborates with industry partners like Construction Scotland Innovation Centre.

Benjamin ChurchView profile

Associate Professor

• Materials Science
• Metallurgy
• Energy Storage
• +7 more

Benjamin Church is an Associate Professor in the Department of Materials Science & Engineering at the University of Wisconsin-Milwaukee (UWM), where he also serves as Director of the Advanced Analysis Facility. He holds a B.S. in Metallurgical Engineering from Michigan Technological University (1997), an M.S. (2002), and a Ph.D. (2004) in Materials Science and Engineering from Georgia Institute of Technology, followed by a postdoc at Georgia Tech and industry experience at Modine Manufacturing. His research focuses on high-temperature materials for energy systems, corrosion resistance, novel material processing, and battery technologies. Key interests include brazing, electron microscopy, and thermal analysis. He has advised numerous graduate and undergraduate students, with notable projects on alumina-forming alloys and lithium-ion battery materials. Education: B.S., Metallurgical Engineering, Michigan Tech (1997) M.S., Materials Science & Engineering, Georgia Tech (2002) Ph.D., Materials Science & Engineering, Georgia Tech (2004) Dr. Church has received the 2012 Excellence in Teaching Award and is actively involved in professional societies like ASM International and ASEE. He mentors the UWM Chapter of Material Advantage and serves on ASM Milwaukee’s executive board. His lab work emphasizes industrial collaboration, addressing challenges in petrochemical processing and energy storage. Recent studies include self-healing composites and corrosion-resistant alloys.

Esko NiemiView profile

Professor

• Additive Manufacturing
• Finite Element Analysis
• Manufacturing Systems
• +3 more

Esko Niemi is a Professor at Aalto University, holding dual appointments in the Department of Energy and Mechanical Engineering and the Materials to Products research group. He earned his Doctoral degree in Engineering and Technology from Helsinki University of Technology (now part of Aalto University) in 1999, following earlier degrees from the University of Manchester and Helsinki University of Technology. His research focuses on additive manufacturing, finite element analysis, production scheduling, and material science, with notable contributions to melt pool dynamics, powder bed fusion processes, and material anisotropy studies. He has led multiple EU and national projects, including TwinFlow (2024-2026), Pathfinder, and KnowNet. Niemi has authored over 65 publications and actively contributes to editorial boards of journals such as the International Journal of Advanced Manufacturing Technology. His work aligns with UN Sustainable Development Goals related to industry innovation and infrastructure. Research interests span advanced manufacturing technologies, simulation-driven material characterization, and optimization of production systems. Recent projects emphasize sustainable manufacturing and cross-industry knowledge exchange networks. He has supervised three theses and collaborates internationally on topics like Lean manufacturing and supply chain monitoring. Education: Doctoral degree, Engineering and Technology, Helsinki University of Technology (1999) Licentiate degree, Engineering and Technology, Helsinki University of Technology (1991) Master's degree, University of Manchester (1987) Master's degree, Helsinki University of Technology (1984) Recent Projects (2021–2026): TwinFlow (2024–2026): Business Finland-funded strategic center for manufacturing innovation KnowNet series (2021–2022): EU EIT-funded initiatives for knowledge exchange networks Greef (2021–2023): Focus on lifecycle analysis and economic innovation Key Activities: Editorial board memberships (e.g., International Journal of Advanced Manufacturing Technology ) International collaborations with institutions like Peter the Great St. Petersburg Polytechnic University Conference presentations on topics like EU carbon border mechanisms and Lean transformation effects

• Materials Science
• Non-Destructive Testing
• Metallurgy
• +3 more

Suvi Santa-aho is a Researcher in the Department of Materials Science and Environmental Engineering at Tampere University. She holds a Doctor of Science (Technology) in Materials Technology (Rock Engineering, 2012) and a Master of Science (Technology) (2008). Her work focuses on non-destructive evaluation techniques like Barkhausen noise analysis, residual stress assessment, and material characterization in advanced manufacturing contexts. Research interests include the application of Barkhausen noise for studying material microstructure changes in steels, particularly in relation to grinding burns, shot peening effects, and corrosion mitigation in additive manufacturing processes. She has collaborated on studies involving advanced microscopy techniques to correlate Barkhausen noise measurements with material properties. Recent contributions emphasize stress corrosion cracking in stainless steel and the optimization of mechanical treatments like severe shot peening. Santa-aho actively participates in academic activities, including peer reviews for journals such as Materials Letters and NDT & E International , and presents at international conferences on materials science and engineering.

• Signal Processing
• Materials Science
• Imaging Technology
• +3 more

Lucio Azzari holds a Doctor of Science (Technology) in Information Technology (2016) and a Master of Science (Technology) from Università Degli Studi Roma Tre (2010). His research focuses on interdisciplinary areas including signal processing, microscopy techniques, noise reduction, and materials science. He currently works as a Project Manager in Materials Science and Environmental Engineering, contributing to UN Sustainable Development Goals related to innovation and infrastructure. Education: Doctor of Science (Technology), Information Technology (2016) Master of Science (Technology), Università Degli Studi Roma Tre (2010) Research Interests: Azzari's expertise includes filtration techniques, denoising algorithms, collaborative filtering, microscopy-based material analysis, and signal-to-noise ratio optimization. His work bridges engineering and biomedical applications, such as advanced microscopy for Barkhausen noise studies and iterative immunostaining protocols. Research Trends (2020–2025): Recent studies emphasize microscopy-driven insights into materials science (e.g., steel carbide stability, domain wall dynamics) and biomedical imaging (e.g., expansion microscopy, nuclear lamina analysis). His denoising methods address diverse domains, from magnetic materials to medical imaging. Collaborations: Azzari collaborates with institutions on global projects, particularly in microscopy and noise analysis. His work often combines experimental techniques (e.g., Lorentz microscopy) with computational methods for material characterization and signal processing. Labs/Teams: Engages in cross-disciplinary teams focusing on materials engineering, biomedical imaging, and advanced microscopy applications.

Karel MatoušView profile

Professor

• Computational Mechanics
• Computational Science and Engineering
• Multiscale and Multi-physics Modeling
• +12 more

Karel Matouš is a Professor in the Department of Aerospace and Mechanical Engineering at the University of Notre Dame , where he also serves as the Director of the Center for Shock-Wave Processing of Advanced Reactive Materials (C-SWARM) . His research is centered on computational mechanics and engineering, with a focus on multiscale and multiphysics modeling of heterogeneous materials. Education: Ph.D. in Theoretical and Applied Mechanics, Czech Technical University in Prague (2000) M.S. in Theoretical and Applied Mechanics, Czech Technical University in Prague Research Interests: Matouš’s work spans computational science and engineering , data-driven modeling , high-performance computing , and statistical micromechanics . He develops advanced numerical methods for modeling complex systems such as solid propellants, reactive materials, and particulate composites, often integrating microtomography data for realistic material reconstruction. Publication Trends: His recent publications emphasize reduced-order modeling , image-based simulations , and uncertainty quantification in multiscale systems. Many studies combine experimental data with computational frameworks to predict macroscopic behavior from microstructural features, particularly in reactive and heterogeneous materials. Scientific Awards: Fellow of ASME (2013) Visiting Professor at Eindhoven University of Technology with 10,000 EUR research grant (2016) Rector's Award, Czech Technical University (1999) Academician Z. Bazant's Prize (1996, 1997) Multiple recognitions for high-impact publications (ScienceDirect Top 25 Hottest Articles) Student awards including the Robert J. Melosh Medal and USNCCM9 presentation prize Advising and Grants: He has advised numerous Ph.D. and M.S. students in computational mechanics and materials science. His research is supported by major grants from the Department of Energy (e.g., C-SWARM: $11.6M), NSF , DoD (STTR/SBIR programs), and industry partners like 3M and ATK . These projects focus on adaptive modeling, shock-wave processing, and microstructural characterization of advanced materials. Labs and Teams: He leads the Computational Physics Group and the C-SWARM center, which involves collaboration with institutions including Purdue University, Indiana University, and the University of Illinois. The group utilizes high-performance computing and experimental validation to advance predictive modeling of extreme material behaviors.

Lisa ScheunemannView profile

Assistant Professor

• Computational Mechanics
• Multiscale Modeling
• Finite Element Method
• +9 more

Dr.-Ing. Lisa Scheunemann is an academic faculty member at the Institute of Mechanics, Department of Civil Engineering, Faculty of Engineering Sciences, University of Duisburg-Essen, Germany, holding the position of Akademische Rätin a.Z. She has been actively contributing to research and teaching since completing her doctorate in 2017. Research Interests: Her research focuses on advanced computational methods in solid mechanics, particularly multiscale modeling of heterogeneous materials. Key areas include the construction of statistically similar representative volume elements (RVEs) for dual-phase steels, finite element formulations for coupled micro-macro transitions, crystal plasticity modeling using the infeasible primal-dual interior point method, and the analysis of residual stresses in thermo-mechanically processed materials. Her work bridges theoretical mechanics, numerical simulation, and materials engineering. Publication Trends: Her recent publications (2019–2021) emphasize numerical algorithms for crystal plasticity, model order reduction, residual stress prediction in manufacturing, and high-performance computing applications in materials simulation. The research consistently applies computational mechanics to solve complex problems in material behavior and industrial processes. Scientific Recognition: Appointed member of GAMM Juniors (since 2019) Academic Advising and Research: She has supervised multiple master's and bachelor’s theses on topics related to computational mechanics, FEM, homogenization, and microstructure modeling. Her research is collaborative, involving projects on residual stress analysis and multiscale simulation, often in partnership with other institutions and industry-relevant engineering problems. Laboratories and Research Groups: She is affiliated with the Institute of Mechanics and participates in research initiatives such as the EXASTEEL project, which aims to create a virtual laboratory for multiscale steel simulation using high-performance computing. She is also associated with the Seminar for Numerical Mathematics and Mechanics (SNMM).

• Materials Science
• Metallic Glasses
• X-ray Diffraction
• +5 more

Dr. Ivan Kaban serves as Group Leader for X-ray Diffraction at the Leibniz Institute for Solid State and Materials Research Dresden (IFW Dresden), where he leads research in advanced materials characterization. With over 112 journal papers since 2010, 4 contributions to proceedings, and 30 invited talks, his work focuses on the structural and thermodynamic properties of metallic glasses, phase transformations, and alloy systems. His research spans Metallic glass formation and crystallization kinetics In situ X-ray diffraction studies of phase transformations Corrosion mechanisms in biomedical metallic glasses Liquid-solid phase separation phenomena Additive manufacturing of advanced alloys His experimental approach combines high-speed imaging, synchrotron radiation, and flash-annealing techniques to investigate non-equilibrium processes in materials. Dr. Kaban's publication record shows consistent output in top journals including Acta Materialia, Nature Communications, and Advanced Science, with recent work (2023-2025) increasingly focusing on additive manufacturing applications and chalcogenide glass systems. His collaborative network includes researchers from Germany, France, China, Japan, and the United States.

David C PaineView profile

Professor

• thin films
• interfaces
• electronic materials
• +5 more

David C Paine is a Professor of Engineering at Brown University's School of Engineering and serves as Director of Molecular and Nanoscale Innovation. He leads research in thin films, interfaces, and electronic materials with a focus on oxide electronics, electron microscopy, and physical vapor deposition technology. He also directs the Brown University Electron Microscope Facility, providing critical infrastructure for materials characterization. Dr. Paine received his BS and MS degrees from the University of Toronto in 1982 and 1984, respectively, followed by his PhD from Stanford University in 1988. His educational background provided the foundation for his extensive career in materials science and engineering. Professor Paine's research centers on amorphous metal oxides with (n-1)d 10 ns 0 (n≥4) electronic configuration for thin film transistor applications. His work focuses on transparent conducting oxides like indium zinc oxide (IZO), indium gallium zinc oxide (IGZO), and related materials that offer superior performance compared to amorphous silicon. His laboratory investigates the relationship between processing conditions, microstructure evolution, and electronic properties of these materials, with particular attention to contact resistance, metallization strategies, and defect mechanisms that affect device performance. Key characterization techniques in his research include x-ray diffraction, electron microscopy, and semiconductor device measurements. Analysis of Professor Paine's recent publications reveals a consistent focus on oxide semiconductor materials, particularly indium-zinc-oxide systems. His work spans fundamental materials science investigations of defect mechanisms and doping to applied research on device fabrication and optimization. A significant portion of his research addresses the critical challenge of contact resistance in oxide semiconductor devices, exploring innovative metallization strategies and interface engineering solutions. His publications demonstrate expertise in both experimental materials synthesis and comprehensive device characterization. Professor Paine teaches courses in electron microscopy (ENGN 2400), thermodynamics of materials (ENGN 2410), properties and processing of electronic materials (ENGN 1450), and crystal structures and crystallography (ENGN 2490A). His teaching portfolio reflects his expertise across materials characterization, thermodynamics, and electronic materials science. As Director of the Brown University Electron Microscope Facility, Professor Paine oversees critical infrastructure for materials characterization. His research collaborations, particularly with Alexander Zaslavsky, Shouheng Sun, and Domenico Pacifici, demonstrate interdisciplinary work spanning materials science, electrical engineering, and chemistry. His research has significant implications for display technology, particularly for organic light-emitting displays that require high-performance transparent electronics.