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John DurodolaView profile

Professor

• Predictive Modeling
• Mechanical Behavior of Materials
• Fatigue Analysis
• +8 more

John Durodola is a Professor in Mechanical Engineering and Mathematical Sciences at Oxford Brookes University, affiliated with the School of Engineering, Computing and Mathematics. He teaches modules such as statics and dynamics, and serves as the Post Graduate Research Tutor for engineering and mathematics students. His academic background includes a PhD and DIC. His research focuses on predictive modeling for engineering components, mechanical behavior of materials, and applications in automotive and aerospace industries. Key interests include artificial neural networks applied to fatigue and NDE, noise vibration and harshness (NVH), lightweight vehicle structural analysis, and finite element methods. He has collaborated with automotive companies and held a Visiting Fellowship at Nanyang Technological University (2015). Professor Durodola has secured significant research grants, including an EPSRC-funded NVH project (£371k, 2003–2007) and contributions to the LIVEMAN project on adhesive bonding for lightweight vehicles. His work has been published in leading journals and he reviews articles for various academic journals. He has advised students such as Abhinav Priyardashi, whose 2022 thesis explored ultrasonic melt treatment effects on Al-based alloys. His research has influenced areas like functionally graded materials and residual stress analysis.

Ozan Cagatay OzdemirView profile

Assistant Professor

• Advanced Metal Additive Manufacturing
• Cold Spray Technology
• Multiphase Flows
• +4 more

Dr. Ozan Cagatay Ozdemir is an Assistant Professor in the Department of Mechanical and Industrial Engineering at Northeastern University. He specializes in advanced metal additive manufacturing, particularly Cold Spray Additive Manufacturing (CSAM), with expertise in multiphase flows, thermodynamics, and failure analysis. His research is funded by the Department of Defense, Energy, Commerce, and industrial partners, yielding over 700 citations and co-authoring the textbook Practical Cold Spray (2021). Education: PhD in Mechanical Engineering from South Dakota School of Mines and Technology (2017) Research focuses on improving CSAM deposition efficiency, manufacturing rates, and product quality. Key interests include nozzle design, process monitoring, and cybersecurity in additive manufacturing. He holds the 2022 Faculty Research Team Award and leads the Özdemir Research Group at Northeastern’s Innovation Campus in Burlington, MA. Teaching includes Additive Manufacturing, Heat Transfer, and Capstone Design courses. Leadership roles include Chair of ASM International Boston Chapter (2024-2025) and member of the Thermal Spray Society Training Committee. Recent grants include a $4.8M ARL award for wire-arc DED and a $1.5M ARL grant for cybersecurity enhancements in CSAM. Notable innovations include the Internally Cooled Aerodynamically Centralizing Nozzle (ICCN) patent (2024) and contributions to power electronics via copper-AlN coatings. His work bridges fundamental research and industrial applications, emphasizing sustainable manufacturing and high-value asset repair.

Tanja Schulz-MirbachView profile

Researcher

• Fish Bioacoustics
• Functional Morphology
• Teleost Hearing
• +4 more

Dr. Tanja Schulz-Mirbach is an Associate Scientist at LMU Munich's Department Biology II, specializing in Fish Bioacoustics. Her research focuses on functional morphology in teleost fish ears, particularly the structural-functional relationships between otoliths and hearing abilities. She employs advanced imaging techniques like micro-CT, synchrotron radiation, and confocal microscopy. Her work bridges biology and paleontology, studying otolith evolution and their fossilization processes. Education: PhD in Palaeontology and Geobiology (LMU Munich, 2008), Diploma in Biology (2003), and studies in Human Genetics and Anthropology. She has held postdoctoral positions at LMU Munich and the University of Vienna. Research interests include otolith motion dynamics, environmental influences on brain morphology, and evolutionary adaptations in fish auditory systems. Key projects involve 4D visualization of otolith motion and modeling otolith dynamics in collaboration with UC San Diego. Awards include DAAD Postdoctoral Fellowships and grants from the Bavarian Equality Promotion. She has published over 30 peer-reviewed articles and contributed to books on fish hearing and sensory organs. Her work integrates experimental biology with paleontological methods, addressing how otolith morphology reflects evolutionary and ecological pressures. She leads projects valued over €300,000, including studies on otolith evolution and fish auditory system adaptations.

Mohammad RahmatiView profile

Researcher

• Turbomachinery Design
• Renewable Energy Systems
• Aeroelasticity Analysis
• +3 more

Dr. Mohammad Rahmati is a researcher at Northumbria University’s Department of Mechanical Engineering, specializing in turbomachinery design, renewable energy systems, and aeroelasticity analysis. He holds a PhD in Mechanical Engineering from University College London (UCL), where he developed viscous inverse methods for turbomachinery blade design. His work includes pioneering contributions to wave energy conversion (WRASPA model) and computational tools for aeroelasticity analysis in multi-stage turbines. Key collaborations include experimental studies at Manchester, Edinburgh, and Lancaster Universities, and research at the Rolls-Royce Centre in Oxford. He currently supervises PhD students in wind farm optimization and plasma actuation for vertical axis turbines. His research has secured EPSRC grants for instability studies in low-pressure turbines. Education: PhD in Mechanical Engineering (UCL), Fellow of the Higher Education Academy (2016), Member of ASME (2004). Research Interests: Innovative blade design methods, renewable energy device development, computational fluid dynamics, and aeroelastic performance optimization. Recent work includes Surface Acoustic Wave (SAW) technology for fluid-particle interaction studies and machine learning for wind farm power prediction. Grants & Awards: EPSRC grants for high-lift low-pressure turbine instability research and wind turbine blade analysis. His computational tool for aeroelasticity is widely adopted in industry. Labs & Teams: Rolls-Royce Centre collaboration, Northumbria’s renewable energy research group, and multi-university wave tank experiments.

Richard BinnsView profile

Associate Professor

• Analogue Electronics
• Visible Light Communication
• Power Electronics
• +3 more

Dr. Richard Binns serves as Deputy Faculty Pro-Vice-Chancellor for Education and Associate Professor at Northumbria University. He oversees educational portfolios across five departments, managing 44 undergraduate and 20 postgraduate programs, including apprenticeships and distance learning. His role includes managing 20 professional body accreditations. Educated at the University of Huddersfield (BEng 1993, PhD 1997), he joined Northumbria in 2001 as an EPSRC-funded researcher in analogue synthesis tools, collaborating with Ericsson and Cadence. His research focuses on analogue electronics, visible light communication, and power electronics, with contributions to satellite communication terminals, energy management for EVs, and radiation detection. He actively involves students in research, mentoring several successful PhD candidates. Key projects include the CubeSat laser communication missions (ALIGN) and LiFi standard-compliant systems. Publications span optical fiber sensors, acoustic biosensors, and VLC systems. He leads interdisciplinary teams and has secured funding from UK Space Agency, Innovate UK, and ESA. A Chartered Engineer (CEng) and Fellow of HEA, he advocates for innovative teaching and industry collaboration.

Yuxiu ChenView profile

Research Fellow

• Colloid Science
• Biocoatings
• Living Paints
• +7 more

Dr. Yuxiu Chen is a Research Fellow in the School of Mathematics and Physics at the University of Surrey. His interdisciplinary research bridges colloid science, materials engineering, and environmental biotechnology, with a focus on developing 'living paints' — biocoatings that encapsulate functional bacteria for sustainable applications. Institution: University of Surrey School: School of Mathematics and Physics Position: Research Fellow Email: yuxiu.chen@surrey.ac.uk Dr. Chen's research centers on the design and application of biocoatings for environmental sustainability. His work explores how extremophilic and nitrifying bacteria can be immobilized in polymer matrices to enable long-term metabolic activity under desiccation stress. Key interests include oxygen evolution, carbon capture, wastewater treatment, and permeability optimization in composite films. His recent publications demonstrate a strong trend toward sustainable materials and environmental biotechnology. He has pioneered the use of extremophilic cyanobacteria in biocoatings capable of surviving complete drying and rehydration while maintaining photosynthetic activity for over a month. He has also developed non-desiccating fabrication methods to preserve the viability of sensitive bacteria, significantly enhancing nitrogen conversion rates in wastewater applications. These innovations highlight a research trajectory focused on scalable, low-water biotechnologies. Dr. Chen has contributed to diverse scientific domains, from nuclear physics and astrophysics data releases to fuel cell electrochemistry and ion beam synthesis of silicides. However, his most impactful recent work lies in sustainable systems and smart biocoatings. He has collaborated extensively with leading researchers such as Joseph Keddie, Suzanne Hingley-Wilson, and Simone Krings. While no formal students or grants are listed, his co-authorship on multiple high-impact papers suggests active involvement in funded research projects and mentorship within collaborative teams. Dr. Chen’s lab work involves advanced colloidal processing, confocal microscopy, permeability measurement, and metabolic assays. His team develops custom apparatus for evaluating biocoating performance, emphasizing real-world applicability in wastewater and carbon capture systems.

Sébastien BrisardView profile

Professor

• Theoretical and Numerical Homogenization
• Plate and Shell Theory
• Non-Destructive Material Characterization
• +6 more

Sébastien Brisard is a Professor in Mechanical and Materials Engineering at Gustave Eiffel University, affiliated with the Navier Laboratory. He specializes in theoretical and numerical homogenization, plate and shell mechanics, and non-destructive material characterization using advanced imaging techniques like X-ray tomography and small-angle X-ray scattering. His teaching includes plate and shell theory at the École Nationale des Ponts et Chaussées. Research focuses on multiscale modeling of heterogeneous materials, granular media mechanics, and stress-gradient composites. He has contributed to FFT-based numerical homogenization methods, poromechanics, and material microstructure analysis. His work bridges materials science and engineering through advanced computational techniques. Recent publications emphasize variance reduction strategies, fiber-reinforced composites, and pore structure analysis in cementitious materials. His methods are implemented in open-source tools like 'spam' for materials analysis. Brisard actively collaborates with institutions such as the Laboratory of Mechanics and Acoustics and the Multiscale Modeling group. Labs/Teams: Navier Laboratory (Gustave Eiffel University), Multiscale Modeling and Experimentation for Heterogeneous Solids group.

• Mechanical Engineering
• Biomedical Engineering
• Fluid-Structure Interaction
• +7 more

Dr. Mergen Ghayesh is a Senior Lecturer in the School of Electrical and Mechanical Engineering at the University of Adelaide, Australia. His research focuses on mechanical engineering, biomedical engineering, and advanced materials science. He specializes in fluid-structure interaction (FSI), vibration analysis, and nonlinear dynamics, with applications in cardiovascular biomechanics, robotics, and energy harvesting systems. His work bridges theoretical modeling, experimental validation, and real-world applications such as rehabilitation robotics and wave energy converters. Dr. Ghayesh holds editorial roles in prestigious journals like the ASME Journal of Vibration and Acoustics. His recent studies explore metamaterials, graphene-based structures, and the biomechanics of arterial systems, emphasizing both fundamental science and translational engineering solutions. He actively publishes on topics ranging from smart materials to clinical applications of biomechanics. His research portfolio reflects a commitment to interdisciplinary innovation in mechanical and biomedical engineering.

• Tribology
• Machine Design
• Friction and Wear
• +3 more

Janne Juoksukangas is an Assistant Professor at Tampere University's Faculty of Engineering and Natural Sciences, specializing in Automation Technology and Mechanical Engineering. His research focuses on tribology, particularly in machine elements such as bolted joints, sliding bearings, and gears. He leads a research group studying fretting fatigue, wear, and lubrication. Juoksukangas holds a Doctor of Science (Technology) in Mechanical Engineering (2017) and a Master of Science (Technology) in Mechanical Engineering (2009). Affiliations: Tampere University, Finnish Society for Tribology (Vice Chairman), TRIBOLOGIA editorial board. Teaching: Machine design courses at the master’s level. His research interests include tribological systems, friction mechanisms, and material degradation under dynamic contact conditions. He collaborates extensively with industry to apply tribology principles to real-world engineering challenges. Recent publications highlight advancements in understanding fretting-induced wear, lubrication effects, and experimental methodologies for tribological testing. His work emphasizes interdisciplinary approaches, combining experimental tribology with computational modeling. Grants: Received funding from Dunderbergin säätiö (2016). Editorial Roles: Reviewer for journals like Wear, Tribology International, and Metals. Juoksukangas is actively involved in the Tampere Wear Center, contributing to advancements in electron microscopy and tribological analysis techniques.

Shimin LiuView profile

Professor

• Geomechanics
• Carbon Sequestration
• Unconventional Gas Reservoirs
• +3 more

Shimin Liu is a Professor of Energy and Mineral Engineering and Mining Engineering at Pennsylvania State University, holding the Deike Chair Professorship. He serves as the Associate Department Head for Graduate Education. His research focuses on geomechanics and fluid dynamics applied to unconventional resources, carbon sequestration, and mine safety. He leads the Liu’s Unconventional Geomechanics Lab (UGL), which specializes in multiscale rock characterization under in-situ conditions, supporting industry stakeholders in coalbed methane and shale gas sectors. Education: Ph.D., Engineering Science, Southern Illinois University (2012) M.S., Mineral Processing Engineering, China University of Mining & Technology (2007) B.S., Environmental Engineering, China University of Mining & Technology (2005) His research interests include reservoir assessment of coal/shale resources, geomechanical modeling, ground control for mines, and nanoscale rock imaging. Recent work emphasizes CO2 sequestration, hydrogen storage in unconventional reservoirs, and coal gasification via bio-seeding. His lab employs advanced techniques like neutron scattering and micro-CT for detailed rock analysis. Publications reflect a focus on gas storage mechanisms, CO2 sequestration, and shale mechanics, with contributions to journals like Fuel and Heliyon. Key awards include the 2017 Freeport-McMoRan Grant and recognition for early-career excellence at Penn State. Grants and Industry Collaboration include funded projects on coal mine gas management, hydraulic fracturing optimization, and carbon capture. His lab’s services are sought by energy companies for reservoir characterization and geomechanical solutions. Labs/Teams: The Unconventional Geomechanics Lab (UGL) at Penn State, specializing in multiscale rock characterization under simulated in-situ conditions.

• Ceramic Matrix Composites
• Materials Science
• Structural Health Monitoring
• +2 more

Dr. Gregory Morscher is a Professor in the Department of Mechanical Engineering at The University of Akron's College of Engineering and Polymer Science. With over twenty years of experience in high-temperature materials and composites, he previously held positions as a research engineer at Case Western Reserve University and senior research scientist at OAI, both affiliated with NASA Glenn Research Center. Education Ph.D. in Materials Science and Engineering, Case Western Reserve University, 2000 M.S. in Materials Science and Engineering, Case Western Reserve University, 1989 B.S. in Ceramic Engineering, The Ohio State University, 1986 Research Focus His research spans microstructure-property relationships in ceramic matrix composites, process development for composite materials, structural health monitoring through acoustic emission and electrical resistivity techniques, and integration technologies for dissimilar materials. This work bridges materials science, mechanical engineering, and advanced diagnostics. Achievements NASA Public Service Medal (2004) Richard M. Fulrath Award, American Ceramic Society (2005) Multiple OAI achievement awards and NASA Tech Brief/Turning Goals into Reality awards He has authored over 90 peer-reviewed publications with contributions to NASA Glenn's Research and Technology Reports.

Andrea RapisardaView profile

Professor

• Complex Systems
• Statistical Mechanics
• Deterministic Chaos
• +7 more

Andrea Rapisarda is a Full Professor of Theoretical Physics at the University of Catania, Italy, affiliated with the Department of Physics and Astronomy "Ettore Majorana" and INFN Catania. He is the coordinator of the PhD program in Complex Systems for Physical, Socio-economic and Life Sciences and serves as co-director of the International School on Complexity at the Ettore Majorana Foundation in Erice. Additionally, he is an External Faculty member at the Complexity Science Hub Vienna, reflecting his international academic engagement. His research spans Complex Systems, Statistical Mechanics, Deterministic Chaos, Nonlinear Dynamics, Complex Networks, and Agent-Based Models , with a strong emphasis on applications to socio-economic systems. He investigates the role of randomness, luck, and inefficiencies in hierarchical organizations, drawing from interdisciplinary methods in physics and computational modeling. His work has demonstrated how random strategies can outperform merit-based ones in organizational efficiency and democratic design. The 15 most recent publications highlight a consistent focus on modeling randomness in success, inequality, and decision-making across domains such as sports, economics, politics, and public health. His work integrates agent-based simulations, network analysis, and statistical physics to understand complex phenomena, often with policy-relevant implications. Ig Nobel Prize for Management (2010) Ig Nobel Prize for Economics (2022) Rapisarda is an active advisor and researcher, though specific student names are not listed in the provided texts. He has contributed to numerous editorial boards, including Physica A, Entropy, Frontiers in Physics (Social Physics) , and Complexity . He has also been involved in public outreach, policy discussions on democratic reform via sortition, and science communication through media interviews and public lectures. He leads research projects on improving organizational and societal systems using insights from complexity science.

Dan Dragomir-DaescuView profile

Professor

• Biomedical Engineering
• Biomaterials
• Cardiovascular Devices
• +5 more

Dan Dragomir-Daescu, Ph.D., is a Professor of Biomedical Engineering at Mayo Clinic in Rochester, Minnesota. He holds an administrative appointment as a Senior Associate Consultant in the Division of Biomathematics and Translation Engineering. His primary affiliation is within the Department of Physiology & Biomedical Engineering. Dr. Dragomir-Daescu earned his PhD in Mechanical Engineering from the Polytechnic University of Timisoara, and holds additional MS degrees in Mechanical Engineering (Arizona State University) and Mathematics (West University of Timisoara), along with BS degrees in Mathematics and Mechanical Engineering from West University of Timisoara and Polytechnic University of Timisoara, respectively. His research focuses on biomedical engineering innovations including stent-graft development, magnetic nanoparticle applications, vascular hemodynamics, bone fracture modeling, and noninvasive LVAD thrombosis detection. Key projects include collaborations with cardiologists Barry A. Boilson and Gurpreet S. Sandhu to advance early LVAD thrombosis detection via acoustic analysis and magnetic endothelial cell targeting for stent-graft healing. Notable contributions include developing finite element models for bone strength prediction using CT scans and establishing one of the world's largest cadaveric femoral fracture databases. He has secured grants such as the National Heart, Lung, and Blood Institute's TAVR Leaflet Fatigue Modeling project (2022-2027) and the Judd Leighton Foundation Award (2021-2023). Dr. Dragomir-Daescu's work bridges biomechanical research with clinical applications, emphasizing early disease detection and improved medical devices. His team's recent advancements include bioresorbable flow diverters and AI-driven LVAD monitoring systems.

• Elastic Fibers
• Aging-Related Tissue Remodeling
• Mechanical Properties of Tissues
• +5 more

Michael Sherratt is a Senior Lecturer in Molecular Biochemistry at the University of Manchester, affiliated with the Division of Cell Matrix Biology & Regenerative Medicine. His research focuses on the mechanical properties of tissues and their changes during aging, particularly in elastic fibers and cardiac proteins like titin. He holds a BSc from Manchester University (1989), an MSc from UMIST (1992), and a PhD (1997) from Cay Kielty’s lab at the Wellcome Trust Centre for Cell-Matrix Research. His work bridges the physical and life sciences, using techniques like atomic force microscopy and scanning acoustic microscopy. He has contributed to studies on fibrillin microfibrils, the impact of environmental factors on tissue elasticity, and the role of titin in heart function. Awards include an Age UK Fellowship and recognition for outstanding research papers. Active collaborations span multiple universities and institutes, including the School of Materials for tissue elasticity studies. He also contributes to teaching, supervising PhD students and medical projects. His research addresses UN Sustainable Development Goals related to health and aging. Research Interests: Mechanical properties of elastic fibers and titin in aging Environmental influences (UV, smoking, diabetes) on tissue structure Nano/micro-mechanical analysis of ECM proteins Development of scanning acoustic microscopy Awards: Age UK Fellowship (2005) AgeUk Senior Fellowship (2008) Best research image award (2011) Outstanding paper award (2012) Teaching & Mentorship: Supervises industrially funded PhD students and medical projects, participates in first-year medical degree programs. Collaborates widely with researchers in dermatology, cardiology, and materials science. Labs/Teams: Works with the Manchester Institute for Collaborative Research on Ageing and Manchester Regenerative Medicine Network, leveraging interdisciplinary approaches to study tissue mechanics and aging.

Arthur LEBEEView profile

Lecturer

• Civil Engineering
• Materials Science
• Structural Modeling
• +3 more

Arthur Lebée is a Lecturer and researcher at the Navier Laboratory (École des Ponts ParisTech - IFSTTAR - CNRS), focusing on Mechanics, Materials Science, and Civil Engineering. His work emphasizes structural modeling, scale changes, origami science, and advanced timber materials like Cross Laminated Timber (CLT). He contributes to innovative applications in formwork design, metamaterials, and sustainable construction. Research interests include: Origami-inspired metamaterials for structural applications Thick plate mechanics and homogenization theories Fire behavior and mechanical characterization of CLT panels Development of reusable inflatable formworks for complex concrete structures His recent articles highlight advancements in: Machine learning for material property prediction Gradient elasticity and strain compatibility in morphing structures High-resolution wavenumber analysis (HRWA) for material characterization Application of Bending-Gradient theory to composite plates and laminates Lebée collaborates extensively with industry and academic institutions through the Navier Laboratory, driving innovations in smart materials and sustainable construction techniques.