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Rebecca BostonView profile

Senior Lecturer

• Functional Ceramics
• Energy Storage
• Nanomaterials Chemistry
• +9 more

Dr. Rebecca Boston is a Senior Lecturer in Functional Ceramics at the Department of Materials Science and Engineering, School of Chemical, Materials and Biological Engineering, University of Sheffield. Her research focuses on controlling crystal size and shape in functional ceramics to enhance properties for applications such as superconductors, breeder blankets for fusion, thermoelectrics, and battery materials. MPhys in Physics, University of Bristol (2006–2010) PhD in Chemistry, University of Bristol (2010–2014) Royal Academy of Engineering and Lloyd's Register Foundation Research Fellow (2016–present) Her key research interests include: Low-temperature synthesis of functional oxides Cold sintering techniques for nanostructured ceramics High-temperature superconductors Thermoelectric materials Lithium- and sodium-ion battery cathodes/anodes Crystallization and morphological control Her recent publications highlight advancements in porous carbon lattices , doped thermoelectric oxides , and biotemplated battery materials , with a focus on sustainable synthesis and energy applications. She has received significant funding through the Royal Academy of Engineering and Faraday Institution projects. Scientific awards and grants include: Royal Academy of Engineering and Lloyd's Register Foundation Research Fellowship International Consortium of Nanotechnologies PhD studentship (Principal Investigator) FutureCat (Faraday Institution) - Co-Investigator NEXGENNa (Faraday Institution) - Co-Investigator She serves as Student Admissions Tutor and Associate Editor for Materials Today Communications , with affiliations to the Ceramics Academics Forum and memberships in the MRSC and FHEA .

Konstantinos BaxevanakisView profile

Senior Lecturer

• Mechanics of Materials
• Fracture Mechanics
• Computational Modeling
• +5 more

Konstantinos Baxevanakis is a Senior Lecturer in Mechanics of Materials at the Wolfson School of Mechanical and Manufacturing Engineering, Loughborough University. Previously, he worked as a Postdoctoral Research Associate (2014-2017) and Visiting Assistant Teaching Professor (2016-2017) at Drexel University, USA. He holds a PhD in Applied Mechanics from the National Technical University of Athens (2014), an MPhil in Engineering from the University of Cambridge (2008), and a MEng in Civil Engineering from the University of Thessaly (2006). His research focuses on modeling microplasticity, fracture, and material instabilities in solids, particularly in lightweight alloys for aerospace and automotive industries. He employs analytical, numerical methods, and data-driven approaches using experimental data from material characterization and non-destructive evaluation (NDE). His teaching interests include solid mechanics and computational methods in engineering. Dr. Baxevanakis is a Chartered Engineer with the Institution of Mechanical Engineers. His work has been recognized with awards such as the Best Paper Award in the ASME Journal of Nondestructive Evaluation (2018) and the Technical Chamber of Greece Honorary Diploma (2008). His research group, the Mechanics of Advanced Materials Research Group, explores advanced materials under extreme conditions, including thermomechanical behavior of cast irons, additive manufacturing composites, and dynamic fracture mechanics. His recent studies analyze crack initiation in compacted graphite iron, fatigue crack growth in superalloys, and the effects of environmental factors (e.g., moisture, thermal expansion) on material performance.

• Composite Materials
• Cellular and Lattice Structures
• Additive Manufacturing
• +3 more

Mustafa Güden is a Professor of Mechanical Engineering at the Izmir Institute of Technology (IYTE). His primary affiliation is with the Department of Mechanical Engineering within the College of Engineering. He holds a Ph.D. in Materials Science and Engineering from the University of Delaware and has been a current staff member since his appointment. His research focuses on advanced materials and their mechanical behavior under various conditions, including high-strain-rate deformation, additive manufacturing, and energy absorption mechanisms. Education: B.S. in Metallurgical and Materials Engineering, Orta Doğu Teknik Üniversitesi (1989) M.S. in Metallurgical and Materials Engineering, Orta Doğu Teknik Üniversitesi (1992) Ph.D. in Materials Science and Engineering, University of Delaware (1999) Research interests include composite materials, cellular/lattice structures, additive manufacturing processes, high-speed testing methodologies, and the relationship between microstructure and mechanical properties. His work often combines experimental and computational approaches to study material behavior under extreme conditions. Publications span over 100 articles, emphasizing topics like metallic foams, bio-inspired materials, and energy absorption systems. Key trends include investigations into the mechanical response of additively manufactured structures, strain-rate effects on material properties, and the development of advanced composite systems for structural applications. Notable contributions include studies on aluminum foams, lattice-core sandwich panels, and the dynamic behavior of metallic composites. His research has practical applications in armor systems, biomedical materials, and aerospace engineering. He has advised numerous students and contributes to academic and industrial collaborations.

Anthony RosatoView profile

Professor

• Granular Dynamics
• Mechanical Engineering
• Computational Modeling
• +3 more

Anthony Rosato is a Professor of Mechanical and Industrial Engineering at NJIT, specializing in granular dynamics, nonlinear systems, and computational modeling. His research focuses on vibration-induced phenomena in granular materials, segregation mechanisms, and energy transfer optimization. Rosato holds a Ph.D. in Mechanical Engineering from Carnegie Mellon University (1985) and has held significant roles such as Fulbright Senior Research Fellow (2010) and Fellow of the American Academy of Mechanics (2016). Education: Ph.D., Mechanical Engineering, Carnegie Mellon University, 1985 M.S., Mathematics, Carnegie Mellon University, 1981 M.S., Theoretical and Applied Mechanics, Northwestern University, 1979 B.S., Mechanical Engineering, Pratt Institute, 1975 Research Interests Rosato’s work spans experimental, simulation, and theoretical analysis of granular systems. Key areas include: - Dynamics of vibrated granular beds - Segregation and convection in particle flows - Energy transfer mechanisms in granular columns - Development of mathematical models for particulate flows. His research often bridges mechanics, materials science, and computational methods. Awards & Contributions Fellow of the American Academy of Mechanics (2016) Fulbright Senior Research Fellowship (2010) Fellow of ASME (2000) Recipient of International Mobility Program Fellowship (2012) Grants & Advising Rosato has led NSF-funded projects in particle technology education and collaborated on experimental setups like non-intrusive particle tracking systems. His work has influenced curriculum development in particulate flow analysis at NJIT. Labs & Teams Associated with the Particulate Flow Research Lab, focusing on discrete element modeling and granular dynamics simulations. Collaborates with industry on applications like powder compaction and granular transport.

Gaurav ChandView profile

Part-Time Lecturer

• Sustainable Construction
• Waste Materials Utilization
• Concrete Durability
• +3 more

Gaurav Chand is a part-time Graduate Teaching Assistant in the School of Engineering at The University of Manchester, where he contributes to teaching in Civil Engineering disciplines. He holds a Doctor of Philosophy in Civil Engineering (expected 2025), a Master of Engineering in Structural Engineering from IIT (ISM) Dhanbad (2018), and a Bachelor of Engineering in Civil Engineering from IERT Allahabad (2015). His research focuses on sustainable construction practices, particularly integrating waste materials like glass powder into cementitious systems to reduce carbon footprints. Key areas include material characterization using advanced techniques (XRD, TGA, SEM, FTIR) and optimizing low-carbon concrete solutions. His work aligns with UN SDGs related to sustainable infrastructure and responsible consumption. Recent publications highlight investigations into waste glass utilization, cement replacement strategies, and microstructural analysis of sustainable concrete blends. These contributions aim to advance circular economy principles in construction materials. While no formal grants or labs are explicitly mentioned, his academic profile reflects active engagement in both research and education, fostering innovation through interdisciplinary approaches.

Ken KamrinView profile

Visiting Professor

• Granular Media Mechanics
• Continuum Mechanics
• Computational Fluid Dynamics
• +3 more

Ken Kamrin is a Visiting Professor at the Department of Mechanical Engineering, Massachusetts Institute of Technology (MIT), within the College of Engineering. His research focuses on granular materials, continuum mechanics, and computational modeling of complex systems, with applications in robotics, geophysics, and aerospace engineering. He develops hybrid discrete-continuum frameworks and advanced numerical methods to study granular flow dynamics, fluid-structure interactions, and multiphase systems. Key research interests include granular media rheology, nonlocal flow modeling, and the simulation of extraterrestrial mobility challenges. His work bridges microscopic particle-level behavior with macroscopic continuum descriptions, emphasizing predictive accuracy and computational efficiency. Kamrin’s contributions have advanced understanding of sediment transport, powder compaction, and the mechanics of deformable solids interacting with fluids or granular beds. Recent studies address topics like gravitational offset in planetary rover design, stabilization techniques for material point methods, and adhesive contact models for granular particles. His research has implications for improving robotics mobility in unstructured environments and enhancing material processing technologies.

Else HolmfredView profile

Visiting Professor

• Analytical Chemistry
• Pharmaceutical Science
• Isotope Analysis
• +3 more

Else Holmfred is a Visiting Professor at Stanford University's Department of Earth & Planetary Sciences, where she integrates advanced analytical chemistry, biogeochemistry, and pharmaceutical science to develop innovative methodologies for detecting non-visual drug counterfeits. Her research leverages isotopic analysis (IRMS/MC-ICPMS) and trace elemental analysis (ICP-MS) to address critical challenges in pharmaceutical integrity. Stanford University, Department of Earth & Planetary Sciences Her work focuses on applying geochemical tools to pharmaceutical problems, earning recognition through competitive fellowships. She has pioneered techniques for isotopic fingerprinting and trace element profiling to authenticate drug products, bridging planetary science with medical quality assurance. Key trends in her publications include: Isotopic and elemental analysis for drug authentication Nanoparticle dissolution behavior in biological contexts AI-driven quality control for pharmaceutical manufacturing Case-based pedagogy in analytical chemistry education Honors include: Novo Nordisk Foundation Visiting Scholar Stanford Bio-X Fellowship (2023) Carlsberg Foundation Internationalisation Fellowship (2022) Contact: holmfred@stanford.edu

Oleksandr KravchenkoView profile

Associate Professor

• Composite Materials
• Fracture Mechanics
• Computational Modeling
• +4 more

Oleksandr Kravchenko is an Associate Professor in the Department of Mechanical & Aerospace Engineering at Old Dominion University (ODU), located in Norfolk, Virginia. His work focuses on composite materials, manufacturing processes, and structural analysis. He is affiliated with the Batten College of Engineering and Technology and actively engaged in research collaborations within the university's engineering community. Dr. Kravchenko's research interests include the mechanical behavior of advanced composites, computational modeling of material response under impact and thermal conditions, and sustainable manufacturing techniques. His studies emphasize fracture mechanics, additive manufacturing, and the integration of nanomaterials for enhanced composite performance. Recent work explores polymorphism effects in polyamide composites, fiber orientation reconstruction via deep learning, and novel compaction processes for component fabrication. His publications span experimental and numerical investigations into composite behavior under various loading conditions, including low-velocity impact, thermal cycling, and high-strain deformation. Key themes include optimization of material structure-property relationships, defect mitigation in manufacturing processes, and the development of eco-friendly composite fabrication methods. While no specific academic awards are cited in the provided texts, his consistent output in high-impact journals reflects sustained scholarly contribution to materials science and engineering. His grants and advising activities are not detailed here, but his research group likely focuses on collaborative projects with industry and government partners. Dr. Kravchenko's lab work centers on advanced composite manufacturing, structural health monitoring, and process optimization. He contributes to ODU's initiatives in aerospace materials, sustainable engineering, and data-driven manufacturing through interdisciplinary collaborations.

Paul Anthony CarterView profile

Senior Lecturer

• Pharmaceutics
• Drug Delivery
• Solid Dosage Forms
• +2 more

Paul Anthony Carter is a Senior Lecturer and practising Community Pharmacist at the University of Sunderland, affiliated with the Department of Pharmaceutical Sciences. He teaches modules such as PHA111 (MPharm) and DDDM14 (Drug Discovery and Development). Research Interests: His work spans pharmaceutics , with a focus on powder technology , solid dosage forms , and drug delivery systems . His PhD explored electrostatic charging in powder mixing for inhaled therapies, and he has supervised two PhD students in related areas. Publication Trends: His research trajectory includes studies on floating tablet formulations , flowability issues in liquisolid compacts , and electrostatic properties of pharmaceutical powders , alongside clinical studies on medication adherence in mental health. Email: paul.carter@sunderland.ac.uk Location: Sciences Complex, University of Sunderland

Mukesh K. JainView profile

Professor

• Materials Science
• Mechanical Engineering
• Manufacturing Processes
• +6 more

Dr. Mukesh K. Jain is a Professor of Mechanical Engineering at McMaster University, specializing in materials forming, metal plasticity, and process modeling. He holds academic appointments in the Faculty of Engineering and teaches advanced courses such as MECH ENG 734 (Theory of Plasticity) and MECH ENG 745 (Analytical Fracture and Damage Mechanics). His research focuses on experimental and numerical approaches to material deformation, including formability testing, finite element analysis of forming processes, and microstructure-mechanical property relationships. Education : B.Sc. from University of Saugar (1977), B.E. from Indian Institute of Science (1980), M.A.Sc. from University of Windsor (1984), and Ph.D. from Washington University (1988). Research Interests : Experimental and computational methods in metal forming, sheet metal deformation, fracture mechanics, and material characterization. He explores topics like particle distribution effects in aluminum alloys, powder metallurgy processes, and polypropylene tube thermoforming. His work bridges microstructural analysis with macroscopic mechanical behavior. Advising : Currently accepting graduate students for research in advanced manufacturing and mechanics. His lab engages in collaborative projects with industry partners on automotive materials and process optimization.

Yuanli BaiView profile

Professor

• Plasticity
• Fracture Mechanics
• Fatigue Testing
• +5 more

Yuanli Bai is a Professor of Mechanical and Aerospace Engineering at the University of Central Florida (UCF), leading the Lab of Solid and Structure Mechanics. He holds a Ph.D. from MIT (2008) and bachelor's/master's degrees from Tsinghua University (2000/2003). Prior to UCF, he worked at General Electric Global Research Center. His research focuses on plasticity, fracture mechanics, and lightweight materials, including alloys, composites, and virus mechanics. He has published over 100 papers in top journals and conferences. Notable works include studies on additive manufacturing of micro-lattice structures, mechanical properties of SARS-CoV-2, and fracture modeling of advanced materials. Awards include UCF's Teaching Incentive Program Award (2022), Research Incentive Award (2019), and a GE Growth Competition win (2009). He teaches courses in mechanics, finite element analysis, and materials engineering.

• Environmental Technology
• Ecotoxicology
• Water Treatment
• +2 more

Armin Zenker is Lecturer in Microbiology and Ecotoxicology at FHNW University's School of Life Sciences, Institute for Ecopreneurship. His research develops environmental technologies and processes for sustainable resource management. Research groups include Environmental and Water Technologies, Ecotoxicology, and Applied Circular Economy. Research focuses on: Advanced water treatment and micropollutant removal Ecotoxicological risk assessment of pollutants Biohydrometallurgical processes for resource recovery Environmental fate of industrial chemicals Publications demonstrate expertise in wastewater treatment innovation, toxicological modeling, and contaminant biodegradation. Recent work develops compact filtration systems for micropollutant removal and investigates microbial degradation pathways for persistent organic pollutants. Contributes to Society of Environmental Toxicology and Chemistry (SETAC) and Swiss Society of Toxicology (SGT).

• Tribology
• Nanotribology
• Multiscale Modeling
• +8 more

P.Dr. Steffen Brinckmann is affiliated with Forschungszentrum Jülich GmbH, leading research in structure and nanomechanics of materials. Formerly, he held roles as Group Leader at Max-Planck Institut für Eisenforschung and Junior Group Leader at Ruhr University Bochum's ICAMS. His career includes postdoctoral research at Caltech and Purdue University. He specializes in experimental and numerical studies of metal degradation, focusing on nanotribology, multiscale modeling (dislocation/molecular dynamics), and fracture mechanics. Education: PhD in numerical solid mechanics from University of Groningen (2005), with prior studies at TU Hanover and TU Delft. Extensive postdoctoral training in the US (Purdue, Caltech). Research interests span tribology-induced microstructure evolution, concurrent multiscale modeling, micromechanical experiments, and fatigue simulations. Expertise includes advanced data processing (Python/Matlab) and FEM/multiscale numerical methods. His interdisciplinary work extends to plasma disinfection (biology) and urban economics studies. Key projects include the Sandia Fracture Challenge (blind simulation success), AtoDis multiscale model development, and powder compaction studies using micro-CT. Active in international collaborations (e.g., Sandia National Labs, Boise State University).

• Metal Degradation
• Nanotribology
• Fracture Mechanics
• +7 more

Dr. Steffen Brinckmann is a researcher in materials science, specializing in metal degradation, nanotribology, and fracture mechanics. He holds a PhD from the University of Delft and the University of Groningen, Netherlands, and completed postdoctoral research at Purdue University and the California Institute of Technology. His work bridges experimental and numerical methods, focusing on multiscale modeling (e.g., the AtoDis model), micrometer-scale deformation studies, and powder compaction. He collaborates internationally with institutions like Sandia National Labs and Boise State University. Education: PhD in Mechanical Engineering/Applied Physics (Delft/Groningen), postdoctoral studies at Purdue University (Mechanical Engineering) and Caltech (Materials Science). Research interests include tribology-induced wear mechanisms, fracture mechanics at micro/nanoscales, and interdisciplinary projects in plasma disinfection (biology) and urban economics. His numerical expertise spans Finite Element Methods, Discrete Dislocation Dynamics, and Python-based data analysis. He has led the Sandia Fracture Challenge project, outperforming international teams in macroscopic fracture prediction. Labs/teams: Department of Structure and Nano-/Micromechanics at Max Planck Institute, Materials Science Department at Ruhr-University Bochum (RUB).

• Magnetic Materials
• Superconductivity
• Quantum Materials
• +5 more

Dr. Thomas Herrmannsdörfer is the Head of Department at the High Magnetic Field Laboratory Dresden (HLD), part of the Helmholtz-Zentrum Dresden-Rossendorf (HZDR). He leads interdisciplinary research in magnetic materials, superconductivity, and quantum phenomena under extreme conditions. His career includes roles as Deputy Project Manager (2003), Head of the High Field Laboratory Project Group (2004), and election to the HZDR Scientific and Technical Council (2012–2027). He has held academic leadership roles, including membership on the Board of Trustees of the Physics Journal (2014–2018). His research focuses on experimental techniques such as SQUID magnetometry, AC susceptometry, and cryogenic engineering. Key areas include magnetic domain evolution in pyrochlore oxides, quantum spin liquids, and applications in neurology (e.g., magnetic field stimulation of motor neurons) and astrophysics (protostellar jet simulations). Notable achievements include the 1999 Walter Schottky Prize for Solid State Physics and the 2021 HZDR Recognition Award. His work spans over 30 years, with contributions to superconductivity in doped semiconductors, nuclear magnetism, and advanced materials characterization. Publications highlight discoveries in magnetic phase transitions, superconducting coexistence, and laboratory astrophysics. Collaborations bridge physics with biology, medicine, and engineering, reflecting his commitment to interdisciplinary science.