Find Academic Supervisors

Alexander MichelView profile

Associate Professor

• Materials Science
• Corrosion Engineering
• Reinforced Concrete Engineering
• +12 more

Alexander Michel is an Associate Professor in the Department of Environmental and Resource Engineering at the Technical University of Denmark (DTU), specializing in Materials & Durability. His research spans advanced materials testing, durability of cementitious systems, corrosion, and fatigue in structural and offshore materials. His research focuses on understanding degradation mechanisms in construction materials through innovative experimental and computational methods. Key areas include microstructural analysis of cement-based materials, corrosion in reinforced concrete, multiscale damage modeling, and fatigue behavior of engineering materials. He integrates techniques such as X-ray computed tomography (XCT), digital volume correlation, finite element modeling, and deep learning to study crack propagation, damage evolution, and material durability. The most recent publications highlight a strong trend in combining high-resolution imaging with computational modeling to predict material behavior under mechanical and environmental stress. His work increasingly incorporates artificial intelligence and unified mechanics theories to enhance predictive accuracy in structural materials, particularly in cement-based systems and structural steel. Applications extend to offshore structures and sustainable construction materials. Villum Young Investigator (2021) Best Reviewer 2015 Award of Materials and Structures (2016) Freescale Semiconductor Prize (2008) Dr. Michel actively supervises PhD students and leads multiple research projects, including those funded by Villum Foundation. He serves as Principal Investigator (PI) and main supervisor for several ongoing projects focused on fatigue, durability, and advanced material testing. He has secured competitive grants such as the Villum Young Investigator award, supporting his independent research trajectory. His work involves collaboration across disciplines and institutions, particularly in the areas of composite materials, wind turbine structures, and plug-and-abandonment technologies in oil and gas. He is a key participant in the Villum Center for Advanced Structural and Material Testing (CASMaT), contributing to the development of next-generation testing methodologies for heterogeneous engineering materials. His team utilizes state-of-the-art facilities for in-situ mechanical testing and 3D imaging, enabling real-time observation of damage processes at multiple length scales.

Neil HensonView profile

Researcher

• Computational Chemistry
• Inorganic Chemistry
• Materials Chemistry
• +6 more

Neil Henson serves as a Senior Scientist at Pacific Northwest National Laboratory (PNNL), a position he has held since 2017 after spending 20 years at Los Alamos National Laboratory. His expertise centers on computational chemistry applications for energy security and nuclear forensics. PhD Chemistry, University of Oxford MA (Oxon) Chemistry, University of Oxford BA (Oxon) Chemistry, University of Oxford Dr. Henson's research spans Computational Chemistry , Inorganic Chemistry , and Materials Chemistry , with specialized focus on homogeneous/heterogeneous catalysis, energy storage materials, actinide systems, and nuclear forensics. Recent work investigates iodine chemistry in nuclear accident scenarios through PNNL's Chemical Dynamics Initiative, emphasizing radiochemical transmutation effects on short-lived isotopes using simulation and data-driven approaches. Analysis of his 15 most recent publications (2012-2025) reveals consistent computational focus on nuclear-related chemistry, particularly radioiodine behavior and actinide systems. His work predominantly employs density functional theory (DFT) and molecular dynamics, bridging chemistry, materials science, and nuclear engineering with strong emphasis on real-world applications like reactor safety and nuclear forensics. No scientific awards were documented in the source material. While no student advisees are listed, Dr. Henson's research appears supported by PNNL initiatives including the Chemical Dynamics Initiative. His work integrates computational modeling with experimental data interpretation, particularly for nuclear security applications. Dr. Henson actively contributes to PNNL's Chemical Dynamics Initiative, focusing on chemical processes in nuclear environments. His research connects with broader laboratory efforts in computational chemistry, materials science for energy storage, and nuclear forensics, utilizing advanced simulation tools for complex real-world scenarios.

• Materials Science
• Electrochemistry
• Battery Technology
• +4 more

Per Erik Vullum is an Associate Professor at the Norwegian University of Science and Technology (NTNU), based at Realfagbygget, D4-106, Gløshaugen campus (Høgskoleringen 5). His research spans materials science with emphasis on lithium-ion battery systems, electron microscopy characterization, and welding of dissimilar metals. Contact details: per.vullum@ntnu.no, +4773593486, +4793016522. Primary research interests include: Battery materials (silicon anodes, layered oxide cathodes, solid electrolytes) Intermetallic phase formation in aluminum-copper/steel welds Advanced microscopy techniques (TEM, STEM, in situ characterization) Industrial catalysis for energy and chemical processes Additive manufacturing of high-strength alloys Analysis of his 15 most recent publications reveals dominant focus on battery technology (8 articles, 53%), particularly silicon anode degradation and cathode cracking mechanisms. Secondary themes include dissimilar metal joining (4 articles, 27%) and electron microscopy (2 articles, 13%), with one catalysis study. Collaborative work with SINTEF and industry partners is evident through co-authors on welding and subsea cable projects. Scientific awards: No awards mentioned in the source text Advising and grants: The provided text does not reference any PhD/Master's students, grants, or funding sources. His collaborative publications suggest team-based research but omit specific grant details. Labs and teams: Vullum operates within NTNU's materials research ecosystem, likely connected to electron microscopy facilities given his TEM-focused publications. His SINTEF blog contribution indicates active collaboration with Norway's applied research sector, particularly in subsea cable and battery projects.

• Additive Manufacturing
• Metallurgical Processes
• Materials Science
• +7 more

Dr. Rija RAOELISON is an Associate Professor (Maître de conférences) at the University of Technology of Belfort-Montbéliard (UTBM), where he has been a permanent faculty member since 2013. He is affiliated with the Institut Carnot de Bourgogne (ICB UMR CNRS 6303) and works within the Department of Metallurgical Processes, Sustainability, and Materials. In December 2021, he obtained his Habilitation à Diriger des Recherches (HDR) in process engineering with a dissertation titled 'Advancing the understanding on the optimization of emerging manufacturing methods based on a high-speed collision: cold spraying and magnetic pulse welding.' His research focuses on advanced manufacturing technologies with particular emphasis on additive manufacturing and high-speed collision welding processes. Dr. RAOELISON has made significant contributions to understanding cold spray additive manufacturing, including fluid/powder interactions, CFD analysis, bulk manufacturing, solid-state adhesion phenomena, thermomechanical phenomena, and process optimization. His work on high-speed collision welding encompasses metallurgical transformations under high-strain rate conditions, characterization of structures, phases and properties, and computational analysis of high strain-rate interfacial phenomena. He also conducts research on laser additive manufacturing, focusing on structures, properties, and multiphysics modeling of metallurgical processes. Dr. RAOELISON has been recognized as one of the 'World wide Top 2% Scientists' by Stanford University in both 2022 and 2024, highlighting the significant impact of his research in the field of advanced manufacturing and materials science. His publications demonstrate consistent contributions to the understanding of metallurgical processes under extreme conditions, with a particular focus on developing fundamental knowledge that can be applied to optimize industrial manufacturing processes. His research bridges experimental characterization with advanced computational modeling to provide comprehensive insights into complex metallurgical phenomena.

• Materials Science
• Welding Engineering
• Mechanical Engineering
• +3 more

Dr. Petar Tasić is a Visiting Assistant Professor at the International University of Sarajevo (IUS) since 2022. He previously worked as a Teaching Assistant at the University of Sarajevo for a decade and spent three years (2007–2009) at TU Graz, Austria, on solid-state welding projects. With over 50 publications, a book co-authored, and mentorship of seven Master’s candidates, his research spans welding processes, materials science, and additive manufacturing. PhD : Materials and Welding (2022) Career : Teaching Assistant (University of Sarajevo, 2003–2013); Visiting Assistant Professor (IUS, 2022–present) His research focuses on optimizing welding techniques (GMAW, FSW), analyzing material properties, and exploring additive manufacturing and adhesive bonding. Recent publications address heat input effects on weld geometry, mechanical properties of 3D-printed polymers, and structural steel behavior. Dr. Tasić has contributed to 50+ journal and conference papers and co-authored training materials. He has mentored seven second-cycle students and investigates energy-efficient welding technologies for sustainable manufacturing.

• Materials Science
• Welding Technology
• Joining Technologies
• +6 more

Petar Janjatović is an Assistant Professor at the Chair of Materials and Joining Technologies, Faculty of Technical Sciences, University of Novi Sad. His research focuses on advanced welding techniques, nanomaterials integration, and mechanical properties of metallic alloys. Current Affiliation: Chair of Materials and Joining Technologies, University of Novi Sad Academic Rank: Assistant Professor since 2024 Previous Roles: Assistant with PhD (2024), Assistant-Master (2017-2022), Teaching Associate (2014-2016) Research highlights include: Optimization of A-TIG welding through nanoparticle coatings Surface property enhancement via friction stir processing Ballistic performance analysis of perforated austempered ductile iron plates Critical raw material reduction in stainless steel joining Microstructure engineering for improved wear resistance in cobalt alloys His publications span 2019-2017, covering topics in welding technology, nanomaterials, and mechanical engineering. Key journals include Metals , Defence Science Journal , and IOP Conference Series . Collaborative work emphasizes industrial applications in metallurgy and sustainable manufacturing.

Xun LiuView profile

Associate Professor

• Advanced Manufacturing Processes
• Materials Science
• Mechanical Engineering
• +5 more

Dr. Xun Liu is an Associate Professor in the Department of Materials Science and Engineering at The Ohio State University. She is affiliated with the Edison Joining Technology Center, focusing on advanced manufacturing processes and material behavior analysis. PhD - Mechanical Engineering, University of Michigan (2016) MS - Materials Science and Engineering, University of Michigan MS - Mechanical Engineering, University of Michigan Bachelor - Mechanical Engineering, Huazhong University of Science and Technology (2011) Her research centers on hybrid manufacturing processes like ultrasonically and electrically assisted methods, solid-state joining (friction stir welding/spot welding), and material characterization to study process-structure-properties relationships. She combines experimental and computational modeling approaches at continuum scales. Key article trends include ultrasonic effects in additive manufacturing, microstructure refinement in welding, multi-scale material characterization , and computational modeling of hybrid processes. Her work spans aluminum alloys , steel composites , and food systems . NSF CAREER Award (2021) Dr. Liu leads the Edison Joining Technology Center's research initiatives, integrating physics-based modeling with experimental validation. Her lab focuses on sustainable manufacturing techniques through ultrasonic vibration applications and advanced material analysis.

Wei ZhangView profile

Professor

• Additive Manufacturing
• Materials Joining
• Welding Engineering
• +5 more

Wei Zhang is a Professor in the Department of Materials Science and Engineering at The Ohio State University , specializing in welding engineering and additive manufacturing. He previously held roles at Oak Ridge National Laboratory (2008–2012) and Edison Welding Institute (2004–2008). Education Ph.D. in Materials Science and Engineering, Pennsylvania State University (Spring 2004) Research Interests His work spans additive manufacturing , light-metal and dissimilar-metal joining , creep-resistant steels , and modeling of welding processes . Key applications include automotive, aerospace, and power generation industries. Scientific Awards 2020 Honorable Mention, Vice Admiral E. L. Cochrane Award (SNAME) 2018 Fellow of American Welding Society 2018 Lumley Research Award (OSU College of Engineering) 2017 Henry Granjon Prize (International Institute of Welding) 2016 Adams Memorial Membership Award (AWS) 2010 UT-Battelle Significant Event Award (ORNL) 2010 Koichi Masubuchi Award (AWS) 2006 Henry Granjon Prize (International Institute of Welding) Academic Leadership Zhang serves as Associate Chair of the MSE department (since 2019), Editor of Science and Technology of Welding and Joining , and co-chair for AWS awards committees.

Laurent GallaisView profile

Professor

• Laser-Materials Interactions
• Optical Coatings
• Laser Damage Threshold
• +4 more

Laurent Gallais is a Full Professor at Centrale Marseille and leads the PICSEL deepening option in laser engineering. His research at the Institut Fresnel focuses on high-power laser-materials interactions , particularly laser damage of optical components , laser processing , and thermal stress analysis for nuclear applications. He has supervised doctoral students like Carlos Cifuentes and Maxime Lemetais. Research Expertise: Laser damage thresholds, optical coatings, nuclear ceramics, and photonic metasurfaces Key Techniques: Lock-in thermography, Z-scan measurements, finite element thermal modeling Recent publications analyze CO2 laser silica microablation , sub-picosecond UV laser contamination , and tungsten recrystallization under extreme heat . His work spans industrial laser applications, nuclear fuel studies, and advanced optical metrology. Collaborations include institutions like ITER and Lawrence Livermore National Laboratory .

• Materials Engineering
• Nuclear Materials
• Corrosion Science
• +4 more

Darryl P. Butt is a Professor and Dean of the College of Mines and Earth Sciences at the University of Utah, with appointments in Metallurgical Engineering. He holds a PhD in Materials Science from Penn State University (1991) and previously served as Distinguished Professor and Department Chair at Boise State University. His career includes roles at Los Alamos National Laboratory, Ceramatec Inc., and the University of Florida. Research focuses on materials for extreme environments, including nuclear fuels, corrosion-resistant alloys, nanoporous materials, and thermoelectrics. Key areas include: Fluid dynamics in nanoconfined systems Irradiation effects on materials Nuclear non-proliferation technologies Ancient material characterization for cultural heritage CO₂ sequestration materials He leads projects like the multi-institutional grant "Multi-Scale Fluid-Solid Interactions in Architectured and Natural Materials" (2018-2024). Recognitions include: Fellow of the American Ceramic Society Distinguished Professor (Boise State) Richard E. Tressler Award Multiple teaching and research awards

Lei ChenView profile

Associate Professor

• Advanced Manufacturing
• Materials Design
• Additive Manufacturing
• +4 more

Dr. Lei Chen is an Associate Professor in the Department of Mechanical Engineering at the University of Michigan-Dearborn, part of the College of Engineering and Computer Science. He specializes in advanced manufacturing and materials design, with a focus on additive manufacturing of metals and piezoelectric composites. His research interests include computational materials, energy systems, and mechanics. He has published over 70 papers in top journals like Nature and Advanced Materials , and received awards such as the ASEE Southeastern Section New Researcher Award (2018) and the ORAU Ralph E. Powe Junior Faculty Enhancement Award (2017). Education: Ph.D., National University of Singapore (2012); M.S. and B.S., Huazhong University of Science & Technology (2007 and 2005). Research Interests: Integrated Computational Materials Engineering (ICME), Sustainable Energy, Additive Manufacturing, Data-Driven Models. His work emphasizes battery technology, material microstructure analysis, and energy storage systems. Recent grants include projects funded by DARPA, the Army, General Motors, and the NSF, focusing on topics like predictive modeling for metallic endurance, battery recycling, and solid-state battery interfaces. His lab (DAIR) explores cutting-edge solutions for advanced manufacturing challenges.

• Nanotechnology
• Manufacturing Processes
• Automation and Control Systems
• +4 more

Placid Ferreira is the Tungchao Julia Lu Professor of Mechanical Science and Engineering at the University of Illinois at Urbana-Champaign (UIUC). He holds affiliate positions in the Micro-Nanotechnology Laboratory and leads the Micro-Nano Mechanical Systems Lab. His academic career includes roles as Department Head (2009–2015) and Director of the NSF-funded Nano-CEMMS Center (2003–2010). Ferreira's expertise spans nanoscale manufacturing, MEMS/NEMS, precision engineering, and advanced materials processing. Education: Ph.D. in Industrial Engineering from Purdue University (1987), M.Tech. in Mechanical Engineering from IIT Bombay (1982), B.E. in Mechanical Engineering from the University of Bombay (1980). Research interests focus on nanopositioning systems, programmable automation, and nanofabrication techniques like electrochemical nanoimprinting. His work bridges computational modeling (e.g., die casting simulations) with experimental innovations in additive manufacturing and heat exchanger design. Notable contributions include solid-state superionic stamping (S4) for patterning and machine learning-driven process optimization. Recent publications (2020–2022) emphasize AI integration into manufacturing, including surrogate neural networks for uncertainty quantification and deep learning for fouling prediction. Ferreira has pioneered modular transfer printing techniques for heterogeneous device assembly and developed anti-scaling surface coatings. His research also addresses precision machining challenges, such as coordinate frame adjustments to mitigate casting/fixturing errors. Awards: AAAS Fellow (2014), NSF Presidential Young Investigator (1991), SME Outstanding Young Engineer (1990). He advises graduate students and collaborates with industry partners like Caterpillar and SFM Technologies. Ferreira’s labs focus on nanoscale systems, flexible automation, and energy-efficient manufacturing solutions.

• Applied Thermodynamics
• Phase Transformations
• Structural Materials
• +4 more

Alisson Kwiatkowski da Silva is a Researcher in the Department of Microstructure Physics and Alloy Design at the Max Planck Society. Their work focuses on applied thermodynamics, phase transformations, and structural materials with an emphasis on advanced steel alloys and atom probe tomography. Key research themes include sustainable materials processing, microstructural evolution in high-performance alloys, and the interplay between atomic-scale chemistry and mechanical properties. Research interests span atom probe tomography applications, spinodal decomposition mechanisms, and the design of steels for decarbonization. They investigate phenomena such as interface engineering in iron oxides, anomalous magnetization in martensitic phases, and the role of segregation in phase nucleation. Their work bridges computational modeling (e.g., CALPHAD-based approaches) with experimental characterization to advance materials for energy-efficient manufacturing and additive manufacturing processes. Recent publications highlight contributions to medium-Mn steels, high-entropy alloys, and the development of AI-driven tools like PDGPT for phase diagram analysis. Their work addresses global challenges in sustainable metallurgy, including circular steel economies and reducing carbon footprints through optimized alloy design. Alisson has collaborated on projects involving atom probe tomography-assisted kinetic analysis, grain boundary engineering in superalloys, and the thermodynamics of scrap-based metallurgical processes. Their research frequently integrates multi-scale characterization techniques with advanced computational simulations to uncover fundamental mechanisms governing material behavior.

• Materials Engineering
• Mechanical Engineering
• Manufacturing Engineering
• +3 more

Dr. Jun Jiang is a Senior Lecturer in the Department of Mechanical Engineering at Imperial College London, part of the Faculty of Engineering. His research focuses on developing novel manufacturing techniques for lightweight alloys and solar cells, including titanium, magnesium, titanium aluminides, and silicon. He holds affiliations with the Institute for Molecular Science and Engineering and the Intelligent Metal Forming group. Dr. Jiang earned his DPhil (PhD) from the University of Oxford in 2013, followed by postdoctoral and research fellow roles at Imperial College. His work emphasizes understanding micro-thermomechanical behaviors in materials, with notable contributions to hot deformation, dynamic recrystallization, and additive manufacturing processes. His research spans materials engineering, mechanical engineering, manufacturing engineering, condensed matter physics, civil engineering, and optical physics. Key achievements include 8 invited conference presentations and 1 invited review paper, reflecting his growing international reputation. His studies often combine experimental analysis with computational modeling, addressing challenges such as fatigue life prediction, fracture toughness, and alloy optimization. He has contributed to advancements in solid-state bonding, thermal cracking mechanisms, and cryogenic forming techniques. Labs/Teams: Active in the Institute for Molecular Science and Engineering and Intelligent Metal Forming group, focusing on interdisciplinary approaches to material science and manufacturing innovation.

• Sustainable Manufacturing
• Metal Forming Technologies
• Materials Modelling
• +5 more

Prof. Liliang Wang is a Professor in the Department of Mechanical Engineering at Imperial College London, affiliated with the Faculty of Engineering. He holds a PhD from Delft University of Technology and has been at Imperial since 2009. His research focuses on sustainable manufacturing, advanced metal forming technologies, and materials modeling, with notable contributions to hot stamping of aluminum alloys, FAST technology, and tribology in metal forming. He leads projects in digital characteristics alignment, lubricant optimization, and additive manufacturing of tooling. Key research areas include: Metal Forming Technologies Data-Driven Manufacturing Lightweight Materials Engineering Energy-Efficient Processes Condensed Matter Physics Applications Recent publications emphasize innovations in digital characteristics (DC) alignment, physics-informed filters for manufacturing data, and FAST technology for dissimilar alloy stamping. He is actively recruiting PhD students for these research directions and collaborates with industry on tooling design and process optimization. Prof. Wang’s work bridges fundamental materials science with industrial applications, aiming to enhance efficiency and sustainability in manufacturing systems.