Dr. Mahyar Silakhori is a Research Fellow at the School of Electrical and Mechanical Engineering , University of Adelaide, with expertise in thermal energy storage (TES) and phase change materials (PCMs). His work focuses on solar energy integration, nanofluid applications, and optimizing materials for high-temperature processes. Research Interests : Thermal Energy Storage (TES) systems Phase Change Materials (PCMs) for solar energy Graphene-based nanofluids for heat transfer Chemical looping for solar thermal storage Recent Publications highlight trends in solar thermal battery design, nanocomposite processing, and exergy optimization of hybrid energy systems. Contact : mahyar.silakhori@adelaide.edu.au
Professor Michael Zaiser is a distinguished academic at Friedrich-Alexander-Universität Erlangen-Nürnberg (FAU), where he holds the Chair of Materials Simulation within the Department of Materials Science. Since 2012, he has led research in computational materials science, with prior appointments at the University of Edinburgh where he served as Professor of Mechanics of Materials (2008-2012), Reader (2005-2007), and Lecturer (2001-2005). He maintains significant international collaborations as a Visiting Professor at Imperial College London since 2014 and previously served as Adjunct Professor of Physics at Michigan Technological University (2006-2012). Professor Zaiser's research spans computational materials science with particular expertise in dislocation dynamics, plasticity, fracture mechanics, and hierarchical materials. His work bridges theoretical physics and practical materials engineering, developing innovative computational approaches to understand material behavior at multiple scales. His research group employs advanced simulation techniques including continuum dislocation dynamics, peridynamics, and phase field modeling to investigate fundamental mechanisms of material deformation and failure. Recent work has focused on disordered mechanical metamaterials, hierarchical structures, and the relationship between microstructure and mechanical properties. Analysis of Professor Zaiser's recent publications reveals a strong focus on multiscale modeling approaches that connect atomic-level phenomena with macroscopic material behavior. His work demonstrates increasing integration of machine learning techniques with traditional computational methods, particularly in predicting material failure. The research spans diverse material systems including metals, ceramics, foams, and composites, with consistent emphasis on understanding how microstructural features govern mechanical properties. A notable trend is the investigation of hierarchical and disordered structures to achieve superior mechanical performance. Professor Zaiser leads an active research group at FAU's Department of Materials Science, supervising numerous doctoral students and postdoctoral researchers. His work has been supported by various research grants enabling extensive computational resources and collaborative opportunities with international institutions. His research group maintains strong connections with the Max Planck Society, Fraunhofer Institutes, and Helmholtz Association, reflecting FAU's position as one of Germany's most research-intensive universities. The research laboratory under Professor Zaiser's leadership focuses on computational materials science, with particular emphasis on developing and applying advanced simulation methodologies. The group maintains close collaborations with experimental researchers to validate computational predictions and guide new experimental investigations. Recent work has increasingly incorporated machine learning approaches alongside traditional physics-based modeling to address complex materials challenges.
Hans van Dommelen is Associate Professor of Micromechanics at Eindhoven University of Technology (TU/e), Department of Mechanical Engineering, where he leads the Group Van Dommelen . His research couples microstructure to mechanical and functional behaviour of materials spanning nuclear fusion, additive manufacturing, polymers, and biomechanics. Education PhD in Mechanical Engineering, TU/e (2003) – Micromechanics of particle-modified semicrystalline polymers Visiting researcher, MIT (1999–2000), University of Virginia (2003–2004), and Cambridge University (2010–2012) Research Interests Van Dommelen’s work focuses on multi-scale mechanics and structure–property relationships . Using microstructural modelling and homogenization techniques, he links phenomena at the microscale to macroscopic response in: Crystalline and heterogeneous materials Nuclear fusion reactor materials (tungsten, liquid-metal shields) Additive manufacturing (wire-arc, selective laser sintering, vat photopolymerization) Semi-crystalline polymers and short-fiber composites Traumatic brain injury biomechanics Scientific Output He has authored over 230 peer-reviewed publications (h-index > 40) in leading journals such as Journal of the Mechanics and Physics of Solids , Biomechanics and Modeling in Mechanobiology , Nuclear Fusion , and Additive Manufacturing . Recent trends include viscoelastic-viscoplastic metamaterials, anisotropic food printing, recrystallization kinetics of tungsten under fusion loads, and multiscale fracture of additively manufactured metals. Teaching & Supervision Van Dommelen coordinates and lectures in: Structure and Properties of Materials Computational and Experimental Micro-mechanics Fusion Reactor Materials and Plasma-Wall Interaction He has supervised >85 MSc and PhD theses to date. Laboratory & Collaborations He heads the Group Van Dommelen within the Mechanics of Materials section, maintaining strong collaborations with DIFFER, ITER, and international partners on liquid-metal technologies for fusion blankets and advanced additive manufacturing processes.
Edward A Dauer is a Clinical Professor in the Department of Biomedical Engineering at the College of Engineering, University of Miami. His work spans biomedical and civil engineering disciplines, focusing on biomaterials development and material science applications. Biomedical Engineering: Scaffold design for immunomodulation and peripheral nerve repair Civil Engineering: Protein-modified biocementation and nanoparticle-reinforced construction materials His research in biomedical engineering includes 3D scaffold fabrication for fibroblastic reticular cell maintenance and autoimmune therapy, while environmental applications involve electrohydromodulation for phosphate recovery. Material science work covers Kevlar composites and Polyurethane scaffold characterization, with biocementation studies analyzing protein effects on calcium carbonate precipitation. Publication trends show expertise in interdisciplinary material design , with articles covering topics from diabetogenic T cell modulation to bioremediation and composite durability . Key methodologies include scaffold fabrication, electrochemical recovery systems, and microstructural analysis across biological and civil engineering applications.
Leonardo Soria is an Associate Professor at the Department of Mechanics, Mathematics & Management at the Polytechnic University of Bari. His research focuses on applied mechanics, structural dynamics, and vehicle vibrations, with a strong emphasis on computational modeling and experimental validation. Department: Mechanics, Mathematics & Management Email: leonardo.soria@poliba.it Contact: +39 080 596 3484 His work spans topics such as viscoelastic foundations, flutter analysis, road roughness identification, and structural health monitoring. He employs advanced methodologies like the unsteady compressible source and doublet panel method, operational modal analysis, and machine learning techniques for diagnostics. Recent publications highlight his contributions to vibro-acoustical analysis of microsystems, robustness of measurement probes, and shock response synthesis in aerospace. His research also explores fluid-structure interactions in nanoscale systems and energy harvesting from vibrating polymers. Professor Soria actively investigates the dynamics of sharp-edged beams, helicopter cabin vibrations, and vehicle suspension performance assessment. His studies often bridge theoretical models with experimental validation, particularly in scenarios involving Brownian excitation, hydrodynamic coupling, and seismic loading.
Vinayak P. Dravid serves as the Abraham Harris Chaired Professor of Materials Science and Engineering at Northwestern University's McCormick School of Engineering. He directs both the Northwestern University Atomic and Nanoscale Characterization Center (NUANCE) and the Soft and Hybrid Nanotechnology Experimental (SHyNE) Resource, an NSF-NNCI Node. His leadership spans multiple institutional initiatives including the Global McCormick Initiative (GMI) and the International Institute for Nanotechnology (IIN). Dr. Dravid's research focuses on nanoscale solutions to global challenges in energy, environment, and sustainability. His group pursues two primary themes: seeing and sensing the invisible through advanced multimodal imaging across length scales (from atomic to organismal), and hard metrology in soft matter for quantitative characterization of biological and soft materials. Key application areas include environmental remediation (e.g., OHM Sponge technology for oil/water separation), biomedical diagnostics, quantum materials, and energy storage systems. His recent publications reveal strong trends in in-situ/operando electron microscopy for dynamic process observation, nanocomposite design for environmental applications, and quantum material characterization . The work spans interdisciplinary domains including environmental engineering, quantum computing hardware, catalysis, and biophotonics, with increasing integration of AI/ML for image analysis and materials discovery. Fellow, Royal Microscopical Society (2017) IIT Bombay Distinguished Alumnus Award (2012) AAAS Fellow (2010) NSF Young Investigator Award (1993–1998) Highly Cited Researcher designation Dr. Dravid actively mentors graduate students through the VPD Group's structured subgroup system (Environmental, Hybrid Microscopy, Quantum/Energy) and has secured significant NSF, DOE, and NIH funding. His NUANCE and SHyNE centers provide critical infrastructure for over 500 researchers annually. Current projects include commercialization of sponge-based pollution remediation technology through MFNS-Tech and development of AI-driven microscopy techniques inspired by astronomical imaging algorithms.
Dr. Lukas Keller is a Researcher at the Zurich University of Applied Sciences (ZHAW), School of Engineering, within the Department of ICP Multiphysics Modeling and Imaging. He leads multiple projects focused on clay rock characterization, including ongoing work on fracture sealing in clay rock and completed studies on gas transport mechanisms in clay materials. His research centers on the geophysical and mechanical properties of clay formations, particularly Opalinus Clay. Key interests include 3D microstructure analysis using X-ray computed tomography (XCT), hydromechanical behavior of fractures, permeability modeling, and pore-scale simulations. His work bridges experimental data with computational approaches to understand fluid flow, elastic properties, and transport phenomena in geological materials. Keller's publications (2014-2023) demonstrate consistent focus on clay microstructure, digital rock physics, and multiscale modeling. Recent articles explore pore geometry effects on rock elasticity, anisotropy in shale mechanics, and advanced tomography techniques. His research provides critical insights for applications in nuclear waste containment and geotechnical engineering.
Dr Pinaki Prasad Bhattacharjee is a full-time Professor in the Department of Materials Science and Engineering at Indian Institute of Technology Hyderabad (IIT-H), India. He has been on the faculty since 2010 and previously served as Scientist at CSIR-National Metallurgical Laboratory, Jamshedpur, and as JSPS Post-doctoral Fellow at Osaka & Kyoto Universities, Japan. Education: Ph.D. – Materials and Metallurgical Engineering, IIT Kanpur, India M.Tech. – Materials and Metallurgical Engineering, IIT Kanpur, India B.Tech. – Metallurgical Engineering, National Institute of Technology, Durgapur, India Research Interests: His research centres on crystallographic texture evolution , thermo-mechanical processing , and structure–property relationships in advanced metallic materials. He investigates high-entropy alloys , severe plastic deformation routes to bulk ultrafine/nanostructured materials, additive manufacturing , catalysis & energy materials , and employs high-resolution EBSD and TEM for detailed microstructural characterisation. Publication Trends: Bhattacharjee’s recent publications (2015-2019) demonstrate a strong focus on high-entropy alloys —especially AlCoCrFeNi₂.₁ eutectic and CoCrFeMnNi FCC systems—processed via cryo-rolling , warm deformation , and strain-path controlled routes . Studies on nickel-base superalloys , porous copper , and duplex steels complement his alloy portfolio, consistently addressing microstructure–texture–mechanical property correlations. Scientific Awards & Recognition: Young Scientist Award, Materials Research Society of India (MRSI) Kolkata Chapter, 2009 JSPS Post-doctoral Fellowship, Japan Society for the Promotion of Science, 2007-2009 Top-25 Most Downloaded Article, Journal of Alloys and Compounds , 2015 Regular reviewer for Metallurgical and Materials Transactions A , Journal of Materials Science , Materials Science and Engineering A , and others. Research Supervision & Funding: Dr Bhattacharjee currently mentors two PhD scholars (Jagga Rao Gatti, Mohammed Zaid Ahmed) and five M.Tech students . He has secured ₹24 lakh from the Department of Science & Technology (DST) for a three-year project on continuous recrystallisation in ultrafine-grained aluminium alloys and an additional ₹3.87 lakh DST-JSPS Indo-Japan project on nanostructured Al-Mg-Sc/Zr alloys. Laboratory & Facilities: He heads research activities within the Materials Science and Metallurgical Engineering block at IIT Hyderabad, leveraging facilities for high-resolution EBSD , TEM , severe plastic deformation (ARB, HPT), and thermo-mechanical processing to advance next-generation structural and functional materials.
Florian Feist is a researcher at the Institute for Vehicle Safety (VSI) at Graz University of Technology. His work focuses on automotive materials, battery crash safety, and sustainable lightweight composites. Research Interests: Automotive engineering, crash simulation, battery lifecycle analysis, and biomechanical modeling. Recent projects include wood-steel hybrid components , Li-ion battery crash behavior , and bio-based foam for helmets . Scientific Contributions: Key themes in his publications (2024-2025) include multiscale battery modeling , stitched wood composites , and dynamic material testing . His work bridges mechanical engineering , material science , and sustainable design .
Hadi Mohammadigoushki is an Associate Professor in the Department of Chemical and Biomedical Engineering at the FAMU-FSU College of Engineering. He also serves as NMR Staff at the National High Magnetic Field Laboratory as an affiliate. His research group, founded in August 2016, focuses on the intersection of Chemical Engineering, Mechanical Engineering, Material Science and Physics. Dr. Mohammadigoushki received his BS-MS from Amirkabir University of Technology in 2009, followed by a Ph.D. in Chemical Engineering from the University of British Columbia, Canada in 2014. He completed his postdoctoral training at UC Berkeley in 2016 before joining the FAMU-FSU College of Engineering faculty. His research primarily centers on soft matter physics and complex fluid dynamics , with specific expertise in rheology, flow-induced instabilities, locomotion in complex environments, NMR spectroscopy, and interfacial science. His laboratory combines experimental and theoretical approaches including Rheometry, Digital Particle Image Velocimetry, Particle Tracking Velocimetry, Fluorescence Microscopy, NMR diffusometry, and MR Velocimetry to investigate the connection between molecular and macroscale properties of soft materials. His work has significant applications in energy, oil & gas, and biotechnology sectors. Analysis of Dr. Mohammadigoushki's recent publications reveals a strong focus on understanding the behavior of complex fluids, particularly wormlike micellar solutions and yield stress fluids. His research spans fundamental investigations of shear banding phenomena, locomotion dynamics in non-Newtonian fluids, and advanced characterization techniques using NMR spectroscopy. There's a clear progression toward increasingly complex systems and applications, including biological interfaces and magnetic field effects on fluid behavior. 2021: Nominated for Outstanding Teaching Award, Florida State University 2020: CAREER award, National Science Foundation 2017: Young Faculty Award, Florida State University 2013: John Grace Graduate Award, University of British Columbia, Canada Dr. Mohammadigoushki has mentored numerous students at various levels, including current PhD candidates, undergraduate researchers, and past students who have gone on to successful careers in academia and industry. His research group actively participates in outreach programs to encourage female and underrepresented students to pursue STEM fields, including the Florida Young Scholar Program, Family STEM nights, and laboratory visits for middle and high school students. The Mohammadigoushki Research Group operates state-of-the-art facilities for studying soft matter and complex fluids, with particular emphasis on rheological characterization and flow visualization techniques. The group maintains strong collaborations with the National High Magnetic Field Laboratory and other research institutions, enabling cutting-edge investigations at the interface of multiple scientific disciplines.
Sang-Joon Lee is an Associate Professor in the Department of Mechanical Engineering at San José State University. His research focuses on microfluidics for biomedical engineering and electronic displays, with emphasis on fabrication processes and fluid-structure interaction. He teaches courses in dynamics, fluid mechanics, microfluidics (ME 168), MEMS (ME 169), and biomechanics (ME 267). Education: Ph.D. and M.S. in Mechanical Engineering from MIT, B.S. from Stanford Industry Experience: Semiconductor systems engineering at Applied Materials, micro fuel cell research at Stanford His lab (http://www.sjsu.edu/mems/) explores multiphysics interactions in materials, focusing on microscale prototyping and experimental validation . Research advisees typically commit 16+ weekly hours including on-campus lab work. He previously served as Director of the Microscale Process Engineering Laboratory and Associate Director of the Materials Characterization and Metrology Center.
Liming Huang is a Postdoctoral Researcher at the Department of Building Technology within Chalmers University of Technology, Sweden. His work focuses on advancing sustainable cementitious materials through experimental and simulation-based studies. Institution: Chalmers University of Technology Department: Building Technology Research areas include: Hydration mechanisms of Portland cement with chemical additives Moisture and ion transport in blended cement Characterization of pore structures and hydration products Carbonation propagation in low-CO 2 concretes Activation of volcanic/clay materials as SCMs Project collaborations involve Swedish Research Council (VR) , Formas , SBUF , and European Commission , with co-authorships across institutions like Lund University and MIT.
Dr. Joseph Domblesky, P.E. is an Associate Professor in the Mechanical Engineering Department at Marquette University's College of Engineering. His research focuses on advanced manufacturing processes and materials behavior. Education Ph.D. , 1994, Industrial and Systems Engineering, Ohio State University M.S. , 1987, Industrial and Management Systems Engineering, Pennsylvania State University B.S. , 1983, Industrial and Management Systems Engineering, Pennsylvania State University Research Interests Process simulation methodologies for industrial systems Advanced metal forming techniques and analysis Material joining technologies including welding and adhesive processes Selected Publications (2019) demonstrate expertise in computational modeling of thermal barriers, friction stir welding metallurgy, and fatigue analysis in railway components. Contact Information : joseph.domblesky@marquette.edu , Haggerty Hall, 229, Marquette University, Milwaukee, WI 53201
Sylvain Martin is a Lecturer and Researcher at MINES Saint-Étienne's Centre for Chemical Engineering, affiliated with the Powder Science and Technology (PMMG) department. His academic background includes a PhD and Engineering degree in Chemical Engineering from Université de Technologie de Compiègne. His research focuses on numerical simulation of granular and porous media using particle methods: DEM : Simulating dry powders and mixing processes SPH : Modeling free-surface flows and atomization LBM : Analyzing reactive flows in porous materials Dr. Martin teaches core engineering subjects including Fluid Mechanics, Heat Transfer, and Computational Methods. His recent publications demonstrate consistent focus on advancing simulation methodologies for industrial applications like powder mixing optimization, sintering validation, and granular material characterization. Research frequently involves interdisciplinary collaboration with materials scientists and process engineers.
Professor Jesús Cintas serves as Catedrático de Universidad in the Department of Materials and Transport Engineering Science at the University of Seville's School of Engineering. He leads the Advanced Materials Engineering Research Group (TEP-971) and directs multiple national and international research projects focused on powder metallurgy and advanced materials processing. His research interests center on electrical resistance sintering techniques , mechanical alloying processes , and nanomaterials development , particularly for aluminum-based composites and magnetic materials. Professor Cintas has pioneered medium-frequency electrical resistance sintering (MF-ERS) methods and ammonia gas flow milling techniques for in-situ reinforcement formation. Analysis of his recent publications reveals strong focus on powder consolidation mechanisms , microstructure-property relationships in sintered materials , and computational modeling of sintering processes . His work bridges fundamental materials science with industrial applications in automotive, energy, and cultural heritage sectors. Professor Cintas maintains active supervision of graduate students and has directed five PhD theses between 2013-2015. His laboratory infrastructure has been significantly enhanced through multiple competitive grants (EQC, IE) between 2017-2024, establishing state-of-the-art capabilities in advanced microscopy and electrical sintering. His research group maintains strong industrial collaborations with companies including Atlantic Copper and participates in European research networks. Professor Cintas has developed significant educational resources including textbooks and virtual microscopy tools used in engineering education.
