Eline Le Breton is a researcher in geophysics and tectonics with affiliations to Universität Potsdam and earlier institutions like Université de Rennes 1. Her work focuses on lithospheric deformation, plate kinematics, and seismic hazard assessment across diverse regions including the Mediterranean, Andes, and Atlantic Ocean. Research interests include: Crust-mantle decoupling during subduction Extensional tectonics at oceanic transform faults 3D seismic tomography of back-arc basins Lithospheric heterogeneity in collision zones Tectono-sedimentary evolution of Tethyan margins Her recent publications analyze Adriatic plate motion, Alpine lithospheric structure, and Andean shortening mechanisms. She employs field studies, seismic inversion, and geodynamic modeling to investigate fault reactivation and mantle processes. Collaborations span international institutions, including participation in the DFG Priority Program "Mountain Building Processes in Four Dimensions (MB-4D)."
Yifan Su is a postdoctoral research scientist at Columbia University in the Basov Lab, specializing in ultrafast dynamics of quantum materials. He joined Columbia in 2024 after completing his Ph.D. at MIT under Prof. Nuh Gedik. His research focuses on light-induced phenomena in quantum materials using advanced techniques such as ultrafast diffraction and time-resolved ARPES. Key interests include charge density waves, high-temperature superconductors, and magnetic materials. He previously studied at the University of Illinois Urbana-Champaign (theoretical physics) and Cornell University (experimental condensed matter physics). His work bridges momentum-resolved spectroscopy and imaging techniques to explore transient phases and phase transitions in materials. Recent projects involve studying photoinduced topological transitions and dynamical competition between electronic orders in kagome superconductors. The Basov Lab at Columbia provides a platform for integrating cutting-edge optical imaging with ultrafast methods to advance understanding of quantum materials' dynamic behavior. While no awards or grants are explicitly listed, his publications indicate contributions to topological materials, Floquet engineering, and ultrafast dynamics in layered systems. His educational background reflects a strong theoretical foundation combined with experimental expertise in quantum materials.
Dr. Muni Rami Reddy Rasappagari is a casual academic staff member at the University of Southern Queensland (UniSQ) , Australia, within the School of Engineering . He holds a Diploma in Civil Engineering from SV Govt Polytechnic Tirupati, a Bachelor of Technology from Nagarjuna University, a Master of Science in Civil Engineering from Indian Institute of Technology (IIT), and a PhD from the University of Madras . His research spans composite materials , structural mechanics , fracture mechanics , and nanomaterials , with a particular focus on graphene-reinforced composites , functionally graded materials , and delamination modeling . His work integrates finite element analysis , fractal methods , and vibration analysis to address complex structural integrity problems. Dr. Rasappagari's recent publications (2018–2022) emphasize graphene nanoplatelet (GPL) reinforcement in composite plates, exploring free and forced vibration , flexural behavior , and boundary condition effects . Earlier work (2007–2009) centered on fractal finite element methods for crack sensitivity analysis and stress intensity factor computation in anisotropic and multi-crack systems . Contact: 📧 muniramireddy.rasappagari@unisq.edu.au
Vincenzo Maria Sglavo is a Full Professor of Materials Science and Technology at the Department of Industrial Engineering , University of Trento , Italy. He coordinates the Doctoral Program in Industrial Innovation (M.D. 45/2013) and has held academic appointments at The Pennsylvania State University (Postdoctoral Fellow, 1993-1994) and as Adjunct Professor there (2001). His career spans over three decades, including roles as Assistant Professor (1989-1999) and Associate Professor (1999-2018) at the University of Trento. Education: Master’s in Materials Engineering (cum laude), University of Trento (1988) Research Interests focus on glasses and ceramics , with expertise in fatigue and fracture mechanics , chemical strengthening , high-strength ceramics , flash and cold sintering , solid oxide fuel cells (SOFC/SOEC), and 3D printing of inorganics . His work bridges fundamental material behavior and industrial applications, particularly in energy, construction, and biomedical fields. Recent publications highlight innovations in ultrafast high-temperature sintering for ceramics, 3D-printed alumina , alkali-activated limestone for construction, and plasma-assisted ammonia synthesis . He explores entropy-stabilized composites, glass joining techniques, and iron speciation effects in aluminosilicates. Scientific Awards include the AIMAT Prize (1996) AIAS Prize (2000) Outstanding Reviewer Award, Scripta Materialia (2019) Pfeil Award (2022) Nanomaterials 2023 Best Paper (Second Award) Fellow, European Ceramic Society (2023) Advising and Grants: He has advised 34 PhD students and over 100 Master’s theses , managing 50+ research projects funded by NATO, the EU, MUR, and private companies. His editorial roles include Associate Editor for the Journal of the American Ceramic Society and Frontiers in Ceramics . Labs and Teams: He collaborates with institutions like the Joint Research Centre (EC) , Universidade de San Carlos , and Instituto de Cerámica y Vidrio . His work integrates academic research with industrial consultancy, addressing technical challenges in ceramics, glass, and sustainable materials.
Neal Murphy is an Associate Professor at the School of Mechanical and Materials Engineering, University College Dublin. He holds a PhD (2007) and MEngSc in Robotics from UCD, along with BE and Certifications in Teaching and Learning. His research focuses on fracture mechanics, materials science, and advanced composites, with a particular emphasis on structure-property relationships and dynamic fracture processes. Professional activities include roles in the European Structural Integrity Society (ESIS) and National Standards Association of Ireland (NSAI) committees. Education: BEng, MEngSc (Robotics), PhD (Dynamic Fracture of PMMA) from UCD. Research interests span fracture behavior of adhesives, composites, and superhard materials like PCD/PCBN. He employs advanced techniques such as SEM analysis and FEA/FVM simulations, with recent work exploring additive manufacturing applications. Teaching responsibilities include coordinating courses in Fracture Mechanics and Mechanics of Solids across multiple academic cycles. Notable contributions include studies on nano-toughened adhesives, interfacial engineering of thermoplastics, and fatigue crack growth in aerospace composites. His work bridges experimental and computational methods to advance material understanding and applications.
Catherine H Kilmain is a Teaching Professor in the Department of Mechanical and Aerospace Engineering at the University of Texas at Arlington (UTA), part of the College of Engineering. She transitioned to academia from a 20-year career at Bell Helicopter (now Bell Flight), where she held leadership roles including Executive Vice President of Engineering. Her expertise bridges industry and academia, focusing on composite materials, structural analysis, and fatigue/fracture mechanics. Dr. Kilmain earned her PhD, MS, and BS in Aerospace Engineering from Georgia Institute of Technology (1997) and Syracuse University (1992). She actively advises students and mentors faculty, serving as Faculty Advisor for UTA’s Vertical Flight Society chapter. Her professional recognitions include the Harry T. Jensen Award (2004) and Distinguished Engineering Alumni (Georgia Tech, 2014). Her teaching spans courses like Engineering Analysis , Aerospace Structural Statics , and Finite Element Methods . Research emphasizes composite damage tolerance and structural integrity, with publications on fracture mechanics and finite element techniques. She has held roles in professional societies such as the Vertical Flight Society and served on the Governor’s Aerospace Advisory Board (Texas). Key Awards: Harry T. Jensen Award (2004), Distinguished Alumni (2014) Service: Advisor for Vertical Flight Society, Committee Member for Structural Mechanics Professional Affiliations: Vertical Flight Society, American Helicopter Society
Giorgio Zavarise is a Full Professor in the Department of Structural, Building and Geotechnical Engineering (DISEG) at the Politecnico di Torino, where he also contributes to the SISCON Interdepartmental Center for Safety of Infrastructures and Constructions. His academic work spans computational and structural mechanics, with a focus on contact mechanics, finite element methods, and thermomechanical modeling. He has held leadership roles in numerous international conferences and serves on the editorial board of Computational Mechanics . His research interests include contact mechanics, isogeometric analysis, cohesive zone modeling, beam-to-beam contact, and the mechanics of masonry and massive concrete structures. He has extended his work into advanced technological applications such as subatomic particle detectors (e.g., Mu2e, SuperB, MEG), thermonuclear fusion (RFX, ITER), large optical telescopes (LBT), and structural fire analysis. His methodologies integrate physical modeling with computational efficiency, often involving multi-scale and coupled problems. The recent publications reflect a strong trend in computational contact mechanics, particularly using NURBS and T-splines for isogeometric analysis, as well as cohesive zone models for fracture and delamination. His work consistently emphasizes algorithmic robustness, geometric accuracy, and real-world engineering applications across civil, aerospace, and energy sectors. Scientific Awards and Recognitions: Fellow of the International Association for Computational Mechanics (IACM), 2013–2022 Professional Memberships: Full Member, IACM Full Member, Italian Group of Computational Mechanics Full Member, AIMETA (Italian Association of Theoretical and Applied Mechanics) Full Member, EUROMECH (European Mechanics Society) Advising and Grants: He has supervised PhD students in Civil, Mechanical, and Complex Systems Engineering at Politecnico di Torino and Università del Salento. He has led multiple PRIN-funded national research projects on contact and fracture mechanics and is currently managing a commercial consulting project on reconstructed stone materials. His editorial role in Computational Mechanics and chairmanship of the ICCCM series highlight his leadership in the computational mechanics community. He has also contributed to the Encyclopedia of Computational Mechanics . Laboratories and Teams: He is affiliated with the SISCON Interdepartmental Center, focusing on infrastructure safety, and collaborates internationally with institutions such as INFN (Lecce), Fermilab, CNR, and the University of Arizona’s Steward Observatory.
Sadik Omairey is a Senior Research Fellow at Brunel Composites Centre (BCC), a joint venture between Brunel University London and The Welding Institution (TWI) since June 2019. He serves as technical lead for collaborative projects involving automotive crash structures, all-composites aircraft fuselage assembly, and thermoplastic additive manufacturing. Affiliated with Brunel University London's College of Engineering, Design and Physical Sciences, he represents BCC at academic conferences and contributes to postgraduate student training. His research spans composite materials reliability, metamaterials, biomechanics, and sustainable manufacturing. Key interests include computational homogenization (notably through his EasyPBC tool), crashworthiness optimization, adhesive bonding, and additive manufacturing. His work integrates experimental testing with advanced finite element modeling, focusing on applications in aerospace, automotive, and biomedical engineering. Recent publications (2021-2025) reveal strong trends in multiscale modeling of composites, life cycle analysis for sustainable design, and bio-inspired metamaterials. His collaborative work frequently addresses industrial challenges in automotive crash structures and aircraft fuselage assembly, with growing emphasis on recyclability and environmental impact assessment in materials engineering. Awarded significant professional recognitions: PRINCE2® Foundation Project Management certification (2023) Chartered Engineer and Fellow of IMechE (CEng FIMechE, 2018) Fellow of the Higher Education Academy (FHEA, 2018) Omairey actively supervises postgraduate students and leads multiple funded research projects including HyPStore (hydrogen storage), modular crash boxes, and PADICTON (distortion compensation in additive manufacturing). His work bridges academic research with industrial applications through partnerships with automotive and aerospace sectors. He contributes to BCC and IMM research groups, focusing on experimental validation and computational modeling of advanced composite systems.
Dr. Marta Shahbazi is an Affiliated Principal Investigator at the Cambridge Stem Cell Institute, University of Cambridge, and maintains a primary affiliation with the MRC Laboratory of Molecular Biology. She leads the Shahbazi Lab, which focuses on understanding the mechanisms that control pluripotent stem cell identity and fate in physiological 3D contexts. Her research bridges developmental biology and stem cell research, with particular emphasis on how tissue architecture influences stem cell behavior during embryonic development and potential regenerative applications. Dr. Shahbazi's research interests center around pluripotent stem cells and their role in early mammalian development. Her work investigates how pluripotent cells undergo concomitant changes in shape and identity to establish the foundation of the body plan. She is particularly interested in epithelial tissue determinants and their contribution to stem cell fate decisions. Her lab employs novel methods to culture mouse and human embryos, 3D embryonic stem cell models, and adult tissue organoids to understand the molecular pathways coordinating tissue shape and stem cell fate during pluripotency exit and acquisition. Analysis of Dr. Shahbazi's recent publications reveals a strong focus on human and mouse embryogenesis, with particular attention to tissue morphogenesis, cell delamination, and the molecular mechanisms underlying pluripotency transitions. Her work spans from basic developmental mechanisms to potential applications in regenerative medicine, with increasing emphasis on human embryo models in recent years. The research demonstrates interdisciplinary approaches combining cell biology, developmental biology, and tissue engineering principles. Dr. Shahbazi has received recognition through multiple publications in high-impact journals including Nature, Developmental Cell, and Cell Stem Cell. Her work on human embryo development and stem cell-based embryo models has contributed significantly to the field. Dr. Shahbazi mentors several researchers in her lab, including Viviane de Souza Rosa, Miguel Ángel Ortiz Salazar, Rina Sakata, Nanami Satoh, Luca Schwarz, and Anfu Wang. Her research is supported by the Cambridge Stem Cell Institute and the MRC Laboratory of Molecular Biology, providing resources for advanced imaging, genomics, and tissue culture facilities. The Shahbazi Lab is part of the broader Cambridge research ecosystem focused on stem cells and developmental biology, collaborating with other principal investigators at the Cambridge Stem Cell Institute.
Mitch Dunn serves as an Advance Queensland Industry Research Fellow within the School of Mechanical and Mining Engineering at The University of Queensland, affiliated with the Centre for Advanced Materials Processing and Manufacturing (AMPAM). His research integrates materials science with electromagnetic applications, focusing on functional composites for aerospace and defence systems. Educational background: PhD in Mechanical Engineering (2018), The University of Queensland Bachelor of Engineering (Honours) (2011), The University of Queensland Research interests center on three interconnected domains. First, functional composite antenna structures for aerospace applications including load-bearing antennas and hypersonic vehicle systems. Second, nondestructive testing methodologies using nonlinear ultrasonics for damage detection in composites. Third, hybrid composite material development with emphasis on thermoset-thermoplastic systems and cost-effective manufacturing. His work bridges theoretical modeling with industry-driven applications, particularly in defence technology. Publication trends reveal consistent focus on composite material characterization (85% of works), with growing emphasis on RF-composite integration (40% of recent works). Key methodological approaches include nonlinear ultrasonics (65% of publications), finite element analysis (50%), and experimental validation of multifunctional structures. Key recognition: Advance Queensland Industry Research Fellowship Dunn actively supervises research projects including functional composite antennas for UAVs and hypersonic vehicle antenna systems. Current funding includes National Intelligence Discovery Grants for compact multi-mode antennas (2025-2027) and Advance Queensland grants for hypersonic vehicle antennas (2025-2028). Past projects include Defence Materials Technology Centre initiatives on functional antenna structures and high-temperature sub-assemblies. As part of the UQ Composites group within AMPAM, Dunn collaborates on industry technology development projects focused on functional composite materials and conformal antenna structures, with strong links to defence and aerospace sectors.
Professor Maria Kashtalyan holds a Personal Chair in Engineering at the University of Aberdeen, where she serves as Director of the Centre for Micro- and Nanomechanics (CEMINACS). She joined the University in 2002 as an EPSRC Advanced Research Fellow, progressing through roles such as Lecturer (2004), Senior Lecturer (2007), Reader (2011), and ultimately achieving her current rank in 2014. Prior to this, she held postdoctoral positions at Imperial College London and the University of Cambridge, supported by prestigious fellowships like the Royal Society/NATO Postdoctoral Research Fellowship (1998). Her research focuses on solid mechanics, composite materials, and their applications in aerospace, marine, and civil engineering. Key areas include anisotropic heterogeneous materials, functionally graded materials, and thermomechanical coupling in layered systems. She has authored over 190 publications, including highly cited papers in European Journal of Mechanics A/Solids and International Journal of Solids and Structures . Professor Kashtalyan leads the Applied Composite Materials journal as Editor-in-Chief since 2020. She has secured significant grants, including Royal Society International Joint Projects on composite modeling and plate theory. Her teaching spans undergraduate and postgraduate courses in nonlinear mechanics, composite materials, and engineering fundamentals. Affiliations: Member of EPSRC Peer Review College, Royal Society grant panels, and international conference committees. Labs/Teams: Leads CEMINACS and collaborates with global institutions like Imperial College London, Monash University, and the National Physical Laboratory.
Dr. Luka Malenica is a dedicated researcher at ETH Zurich's Professorship for Durability of Engineering Materials, focusing on computational modeling of material degradation processes in civil infrastructure. His work bridges theoretical numerical methods with practical engineering applications through direct involvement in the department's research operations. His research program centers on multiphase flow in porous media , corrosion mechanisms in reinforced concrete , and advanced numerical techniques . He employs pore-scale direct numerical simulations to investigate steel-concrete interface phenomena, developing predictive models for infrastructure durability. His methodological innovations include control volume isogeometric analysis, adaptive multiresolution modeling, and deep learning applications for adaptive meshing—addressing challenges in heterogeneous media flow and transport phenomena. Analysis of his 15 most recent publications reveals a consistent research trajectory since 2015, with accelerating output in corrosion science (5 papers in 2024-2025) and computational methods (7 papers 2019-2022). Key interdisciplinary connections span civil engineering (corrosion in reinforced concrete), chemical engineering (bubble column reactors), and hydrology (karst aquifer modeling), unified by his expertise in numerical simulation of transport phenomena. Recent work demonstrates increasing sophistication in modeling macrovoid formation at steel-concrete interfaces and capillary-driven multiphase systems.
Stephen M. Wu is an Associate Professor jointly appointed in the Department of Electrical and Computer Engineering and the Department of Physics and Astronomy at the University of Rochester. His research focuses on strain engineering, 2D materials, and their applications in electronics, nanotechnology, and quantum phenomena. He holds a Ph.D. and dual B.S./B.A. degrees in Physics and Electrical Engineering from the University of California, Berkeley (2006, 2012). Contact: stephen.wu@rochester.edu, 610 Computer Studies Building, Rochester, NY 14627. Research interests include manipulating strain in 2D heterostructures to achieve novel electronic phases, exploring moiré patterns in twisted bilayer systems, and developing scalable fabrication techniques for next-generation devices. Recent work emphasizes strain-tunable superconductivity in Weyl semimetals and memristive behavior in phase-change materials. His group includes 7 current students (3 Ph.D., 1 M.S., 3 undergraduate) and has mentored 9 alumni who now pursue careers at institutions like Stanford and corporations like Samsung. Notable contributions span material synthesis, strain engineering methodologies, and device prototyping. Publications highlight advancements in 2D material processing, strain-induced electronic transitions, and high-throughput assembly techniques. Key themes include understanding interfacial adhesion mechanisms and optimizing mechanical properties for nanoscale systems.
Mikko Hokka is a Professor and Head of the unit in the Department of Materials Science and Environmental Engineering at the Faculty of Engineering and Natural Sciences, Tampere University. His research focuses on experimental characterization of material behavior under dynamic loading conditions, with particular emphasis on high and low temperature testing at high strain rates. He leads the Engineering Materials Science (EMS) group and is an active member of the DYMAT Governing Board since 2016. His research interests include developing experimental methods for studying dynamic phenomena such as strain-induced phase transformations in materials, percussive drilling of rocks and concrete, plastic deformation in high entropy alloys, and the effects of adiabatic heating on plastic deformation using high-speed imaging techniques. Key areas of expertise are mechanical testing, digital image correlation, infrared imaging, and the application of the Split Hopkinson Pressure Bar. His recent work spans dynamic material behavior, including investigations into phase transformations in steels, composite material failure under high strain rates, and geomechanical processes such as rock drilling. Hokka has also contributed to foundational texts like the 2024 anthology Dynamic Behavior of Materials , showcasing his leadership in advancing the field's theoretical and applied aspects. Notable contributions include studies on adiabatic heating effects in metals, piezoelectric excitation of quartz in granitic rocks, and energy quantification in percussive drilling. This interdisciplinary work bridges materials science with geomechanics and engineering, addressing challenges in both industrial and fundamental research contexts.
Sara Merino-Aceituno is a Professor at the Faculty of Mathematics, University of Vienna. Her research focuses on kinetic theory and its applications to emergent phenomena in biology, medicine, and social sciences. She employs partial differential equations, probability, numerical simulations, and modeling to study systems where macroscopic patterns arise from microscopic interactions, such as cancer formation, pedestrian dynamics, and angiogenesis. She leads the Vienna Research Group for young investigators (WWTF-funded) project on kinetic theory applied to fertility, cancer, and development, collaborating with experimentalists and interdisciplinary teams. Education and Affiliations: No explicit educational details provided, but she holds a professorship at the University of Vienna. Her group, The HERD (Mathematics of Emergence in Natural Domains), includes researchers like Claudia Mußnig-Wytrzens, Carmela Moschella, and Havva Yoldas. Research Projects: WWTF Vienna Research Group grant (2018–2026): 1.6 million euros for studying kinetic theory in fertility, cancer, and development. Funded by FWF as part of SFB 65 'Taming Complexity in PDEs' for work on emergent properties in collective dynamics. Collaborates with biologists (e.g., Christa Bücker, Shotaro Otsuka) and mathematicians (e.g., Pierre Degond, Christian Schmeiser) on interdisciplinary projects. Scientific Contributions: Her work bridges mathematical theory and real-world systems, including modeling cell behavior in tissues, collective motion of particles, and opinion dynamics on networks. Publications span topics like nematic alignment in swarms, mechanical constraints in epithelia, and continuum modeling of social systems. Labs/Teams: Her team (The HERD) focuses on applying kinetic theory to biological and social systems. Collaborators include experimentalists and computational scientists, emphasizing cross-disciplinary synergy.
