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Dr. Joshua Dijksman is a Visiting Professor at the Institute of Physics (IoP WZI) within the Faculty of Science at the University of Amsterdam. His research focuses on granular matter, soft matter physics, rheology, and tribology, with interdisciplinary applications in biophysics and ecology. He explores phenomena such as particle dynamics in complex fluids, frictional regimes in model systems, and phase separation mechanics in biomaterials. His work integrates advanced experimental techniques like MRI-based rheology and particle imaging to study microstructural behavior in materials ranging from food dispersions to hydrogel networks. Recent contributions include studies on predator-prey ecosystem dynamics and the rheological properties of feed materials relevant to agricultural engineering. Publications span topics from granular flow characterization to biomimetic fastener mechanics, demonstrating a strong emphasis on both fundamental physics and applied material science. His research often bridges macroscopic observations with microscopic mechanisms to explain emergent phenomena in complex systems.

• Granular Matter
• Soft Matter Physics
• Rheology
• +4 more

Prof. Jasper van der Gucht is a Professor of Physical Chemistry and Soft Matter at Wageningen University & Research. He leads an interdisciplinary group focused on understanding the microscopic mechanisms governing the mechanical properties and functionality of soft materials, particularly biopolymers and colloidal systems. His research combines experimental characterization, theoretical modeling, and computer simulations to address topics like polymer materials based on electrostatic interactions, structure formation in drying films, and fracture mechanics of biopolymer networks. Education & Teaching: He teaches courses in Advanced Soft Matter, Colloid Science, General Chemistry, and Winter School Physical Chemistry. He supervises MSc and BSc theses in Physical Chemistry, Biotechnology, and Molecular Life Sciences. Research Interests: His work spans biopolymer mechanics, colloidal science, rheology, and material design. Key themes include the mechanics of soft granular materials, phase segregation in pastes, and sustainable materials for food applications. He employs advanced techniques like laser speckle imaging and microfluidics. Ancillary Activities: He serves as a representative of WUR in the Dutch Physics Council (2023–2026), coordinates postgraduate courses, and is Chief Editor of the Soft Matter section in Frontiers in Physics (2017–present). Labs & Teams: His lab integrates experimental and computational approaches to study soft matter phenomena, collaborating on projects like developing sustainable plastics and understanding plant-pathogen interactions through hyphal mechanics.

• Physical Chemistry
• Soft Matter Physics
• Biopolymer Mechanics
• +3 more

János Kertész is a Professor and Head of the Department of Network and Data Science at the Central European University (CEU), currently based in Vienna. He is also an elected member of the Hungarian Academy of Sciences. Previously, he held professorial and research positions at the Budapest University of Technology and Economics and the Hungarian Academy of Sciences, where he served as Director of the Institute of Physics. His research lies at the intersection of statistical physics and social sciences, with major contributions to network science, econophysics, computational social science, and algorithmic fairness. He investigates systemic risks in economic networks, opinion dynamics in algorithmically biased environments, poverty mapping using big data, and the role of automation in online extremism. The most recent articles highlight a strong trend in applying complex systems methodologies to real-world socioeconomic problems—particularly through large-scale network analysis, multimodal data integration, and policy-relevant modeling in inequality, supply chains, and digital fairness. His collaborative work spans institutions like the Complexity Science Hub (CSH) in Vienna. Elected member of the Hungarian Academy of Sciences He has advised numerous researchers and contributed to major interdisciplinary grants, particularly in complexity science and data-driven social science. His leadership in organizing NetSci 2023, the largest network science conference, underscores his role in fostering global scientific collaboration. He is central to projects involving high-resolution poverty mapping, economic systemic risk, and ethical AI applications. He is actively involved with the Complexity Science Hub (CSH), where CEU is a partner institution, and contributes to interdisciplinary teams working on economic modeling, social network analysis, and crisis preparedness using granular supply chain and VAT data.

• Network Science
• Computational Social Science
• Econophysics
• +7 more

Nico Gray is a Professor of Applied Mathematics at the University of Manchester, affiliated with the Department of Mathematics and the Manchester Centre for Nonlinear Dynamics. He holds a PhD from Cambridge University and a Habilitation from the Technical University of Darmstadt. His research focuses on granular flows, including geophysical phenomena like snow avalanches, debris flows, and industrial processes such as silo and conveyor belt dynamics. He has held prestigious fellowships from EPSRC and the Royal Society, and leads projects on particle segregation and avalanche dynamics. Gray's educational background includes a first-class degree from the University of Manchester (1988) and a PhD in sea-ice dynamics from Cambridge (1992). He has been at Manchester since 1998, advancing through roles to full professorship in 2006. His work combines theory, computation, and experiments to study nonlinear systems, particularly shock waves and segregation patterns in granular materials. Research interests include particle segregation in avalanches, levee formation in granular flows, and rheology modeling. His recent projects involve NERC grants on self-organized mass flows and EPSRC funding on segregation dynamics. He has over 100 publications and collaborates internationally. Gray advises on PhD projects related to granular flows and has received awards such as the Inaugural ‘Outstanding Reviewer’ for Journal of Fluid Mechanics .

• Granular Flows
• Geophysical Flows
• Industrial Processes
• +3 more

Dr. Joana Fonseca is a Senior Lecturer in Geotechnical Engineering at City St George's, University of London, within the Department of Civil Engineering in the School of Mathematics, Computer Science and Engineering. She holds a PhD from Imperial College London and has extensive research experience in multiscale geomechanics, image-based characterization, and granular media behavior. Her research interests include: Multiscale mechanics Image-based geotechnics using X-ray tomography and microscopy Experimental geomechanics of soils and rocks Micromechanics of granular media Centrifuge modelling Localized deformation and grain breakage Characterization of semi-solid alloys Her recent publications focus on advanced imaging techniques to understand soil fabric evolution, particle-scale interactions in sand-rubber mixtures, and microstructural modeling of carbonate sands for offshore foundations. These works span disciplines from geotechnical engineering to materials science, emphasizing computational and experimental integration. Scientific honors include: Chartered Member, Portuguese Institution of Engineers Principal Investigator on EPSRC-funded MuMShell project (2016) Associate Editor, Canadian Geotechnical Journal Member, Advisory Panel of Géotechnique She has advised several research students including Sadegh Nadimi, Deqiong Kong, and Ciaran Kennedy. She teaches core civil engineering courses such as Soil Mechanics (CV2401), Geotechnical Engineering (CV3401), and the Major Project (CVM412). She also serves as Guest Editor for special issues on image-based geotechnics and women in the built environment. Her research lab integrates advanced imaging, computational modeling, and experimental techniques to study geomaterials across scales, with applications in offshore engineering, sustainable construction, and materials science.

• Geotechnical Engineering
• Multiscale Mechanics
• Image-Based Geotechnics
• +11 more

Mario Caironi is a faculty member at Politecnico di Milano, affiliated with the Department of Electronics, Information, and Bioengineering (DEIB). His research focuses on advancing printed, flexible, and sustainable electronic technologies, with applications ranging from edible electronics to environmental restoration. His research interests include: Printed and Organic Electronics Flexible and Wearable Devices Biodegradable and Transient Electronics Chitosan-based and Food-safe Electronic Systems Thermoelectric Materials on Flexible Substrates Perovskite Photodetectors and Energy Devices Recent publications highlight a strong trend toward sustainable and bio-integrated electronics, with interdisciplinary applications in marine biology (e.g., coral reef restoration) and food technology (e.g., edible logic circuits). His work combines advanced materials synthesis, device fabrication, and characterization of electronic performance under real-world conditions. Notable scientific contributions are published in top-tier journals including Advanced Materials , Advanced Functional Materials , and ACS Applied Materials & Interfaces . While specific awards are not listed, his consistent high-impact output suggests recognition in the field of materials and electronic engineering. Mario Caironi leads a research group involved in multiple collaborative projects, supervising students and working with international partners such as the University of Manchester and University of Colorado Boulder. His lab focuses on developing next-generation electronic materials that are not only high-performing but also environmentally responsible. Funding likely comes from EU research programs and national grants supporting sustainable technology innovation.

• Printed Electronics
• Flexible Electronics
• Organic Semiconductors
• +7 more

Dr. Jie Guo is an Adjunct Senior Lecturer at the University of Newcastle ’s School of Engineering (Mechanical Engineering) , affiliated with the Center for Bulk Solids and Particulate Technologies . She completed her PhD in 2014 under Emeritus Profess Alan Roberts and holds a Bachelor’s degree in Thermal Energy and Power Engineering from Central South University (2009). Education: Bachelor: Central South University (2005-2009) PhD: University of Newcastle (2010-2014) Professional Appointments: Honorary Senior Lecturer (2024-2026), School of Engineering, University of Newcastle Conjoint Senior Lecturer (2020-2023), Faculty of Engineering and Built Environment, University of Newcastle Her research focuses on Bulk Solids Handling , Coal Self-Heating , and Moisture Migration in industrial systems, with expertise in DEM Modelling , Eccentric Loading in silos, and Transportable Moisture Limit (TML) for coal. Recent work includes studying vacuum dewatering for iron ores and cenosphere separation from fly ash. Key trends in her publications include: 2025 : Stockpile capacity modeling for maritime logistics 2022 : Hopper/feeder stress analysis and vibrational dewatering 2019-2022 : Coal moisture migration, concrete pressure loss, and chutes wear testing 2018-2019 : Eccentric discharge DEM studies and cenosphere separation Scientific Awards 2022: Best Practice in Safety, Bulk Handling 2019: Future Women Leaders Conference Award 2019: FEBE Award for Health and Safety Excellence 2019: FEBE Award for ECR and Innovation Excellence Grants and Funding Over 23 grants totaling $2,939,611 from AMIRA International, NSW Department of Industry, BHP Billiton, and others. Major projects: ACARP Maritime Regulation Project for Coal Self-Heating ($1.8M, 2017-2023), Iron Ore Oscillatory Dewatering System ($288k, 2019-2020), and Techno-Economic Assessment for Biomass Handling ($110k, 2019-2022). Supervision Co-supervisor for PhD students in topics like Vibration-Assisted Dewatering (2019), Multi-Hearth Furnace Optimization (2024), and Erosive Wear in Mining (2023). Current PhD supervision on Biomass Feedstock Relaxation Properties (2025).

• Bulk Solids Handling
• Coal Transportation
• Self-Heating of Coal
• +6 more

D.L. Schott serves as a Professor in the Department of Mechanical Engineering, Transport Engineering and Logistics at Delft University of Technology, specializing in computational modeling of granular systems and transport infrastructure. His research integrates Discrete Element Method (DEM) simulations with emerging AI techniques to solve complex engineering challenges in offshore energy, material handling, and maritime operations. His primary research focuses on particle-scale mechanics in industrial and marine environments, with significant contributions to scour protection systems for offshore wind foundations, hopper discharge dynamics, and metamaterial design. Recent work demonstrates a strategic shift toward AI-enhanced simulation frameworks, particularly using transfer learning for multi-component segregation modeling and dual-regime approaches for time consolidation phenomena. This reflects growing industry demand for computationally efficient solutions in bulk material processing and offshore construction. Professor Schott maintains active industry collaborations, evidenced by 19 datasets on hopper discharge mechanics and press coverage of innovative grab unloader designs with Nemag. His 12 supervised student projects and 26 recent activities—including 22 conference presentations in 2025—highlight sustained engagement in geotechnical and transport engineering communities. Current research trajectories emphasize resilient maritime systems and AI-driven optimization of industrial material flows.

• Discrete Element Method
• Granular Materials
• Transport Engineering
• +5 more

Dr. Lukasz Laniewski-Wollk serves as an Honorary Fellow at the School of Mechanical and Mining Engineering, The University of Queensland, where he conducts advanced research in computational fluid dynamics and optimization methodologies. His work bridges theoretical development with practical applications in energy systems and resource extraction. His primary research domains encompass: Computational Fluid Dynamics Lattice Boltzmann Methods Aerodynamic Optimization Multiphase Flow Fracture Mechanics Particle Transport Analysis of his 2020-2025 publications reveals a concentrated effort on developing high-fidelity computational frameworks for complex fluid phenomena, particularly in multiphase systems and fractured media. His methodologies demonstrate strong interdisciplinary integration between fluid mechanics, materials science, and petroleum engineering, with significant contributions to lattice Boltzmann variants for non-Newtonian fluids and fracture permeability quantification. Collaborative patterns indicate sustained partnerships with UQ's computational mechanics group and international energy research consortia.

• Computational Fluid Dynamics
• Lattice Boltzmann Methods
• Aerodynamic Optimization
• +3 more

Dr Jefferson Gomes , Senior Lecturer at the University of Aberdeen since 2023, is a computational physicist specializing in multi-fluid dynamics and nuclear engineering. His research spans energy technologies, environmental hazards, and geophysical systems. Education: PhD (Imperial College London, 2004), MSc (State University of Rio de Janeiro, 1999), BSc in Chemical Engineering (Federal University of Rio de Janeiro, 1996) Research Interests: Focus on computational multi-fluid dynamics (CMFD) and multi-physics modeling, with applications in nuclear reactor safety, unconventional shale gas, CO₂ migration, and geothermal energy. Expertise in finite element methods (FEM), machine learning, and reduced-order models. Recent Publications: 2025 work on multifluid reactor dynamics and shale gas adsorption; 2024 studies on CO₂ sequestration and corium flow during accidents. Earlier work includes nuclear reactor design optimization and granular flow modeling. Awards: Fellow of the Higher Education Academy (FHEA). Teaching: Offers courses in Chemical Thermodynamics, Process Engineering, and Computational Fluid Dynamics at undergraduate and postgraduate levels. Collaborations: Partnerships with Imperial College London, Federal University of Rio de Janeiro, and industry projects for BNFL, BP, and JAEA.

• Computational Multi-Fluid Dynamics (CMFD)
• Multi-Physics Modelling
• Finite Element Methods (FEM)
• +5 more

Professor Santanu Misra is an Associate Professor in the Department of Earth Sciences at the Indian Institute of Technology Kanpur (IITK), where he has been serving since February 2019, having previously held positions as Assistant Professor (2015-2019). His academic journey includes significant international experience as Senior Scientist at GNS Science and Guest Lecturer at Victoria University of Wellington in New Zealand (2013-2015), and as Lecturer and Postdoctoral Research Scientist at ETH Zurich, Switzerland (2009-2012). Dr. Misra's research primarily focuses on understanding the mechanical response (rheology) of composite rock systems across brittle to ductile deformation regimes. His work bridges deformation and metamorphic processes to explain deep-crustal phenomena such as partial melting and melt migration. His research spans structural geology, tectonics, petrology, and geodynamics, with particular emphasis on strain localization mechanisms and deformation processes during lithospheric plate movements. He employs experimental rock deformation under elevated pressure-temperature conditions, field investigations, and analytical and numerical modeling as his primary research methodologies. Analysis of his recent publications reveals a consistent focus on rock deformation mechanisms, particularly examining how partial melting interacts with deformation in crustal rocks. His work spans multiple scales, from microstructural analysis of deformed rocks to large-scale tectonic implications. Key themes include the rheology of melting/crystallizing systems, fault zone processes, and the mechanics of layered rock deformation. His most recent work (2015) has increasingly focused on melt production and migration in metamorphic systems and carbonate deformation in thrust settings. Young Scientist Medal, Indian National Science Academy (INSA), India (2010) Professor N. N. Chatterjee Memorial Medal for important contribution in Geology (2007) Multiple Swiss National Fond Research Fellowships (2007-2012) CSIR Senior Research Fellowship (2005) West Bengal Government State Research Fellowships (2002-2004) Dr. Misra's research program demonstrates strong international collaboration, particularly with Swiss and New Zealand institutions. His work combines laboratory experimentation with field observations and theoretical modeling to address fundamental questions in crustal deformation. His teaching focuses on Structural Geology, Microstructure, Experimental Rock Deformation, Rock Physics, Rheology and Deformation Mechanisms, and Earth System Processes. His laboratory facilities at IIT Kanpur support high-pressure, high-temperature rock deformation experiments that complement his field-based research in the Himalayas and other tectonically active regions.

• Structural Geology
• Tectonics
• Rock Physics
• +5 more

Dr. Colin Hare is a Visiting Senior Lecturer in Chemical Engineering at the University of Surrey's School of Chemistry and Chemical Engineering. He holds an MEng (2006) and PhD (2010) from the University of Leeds, and a Graduate Certificate in Learning and Teaching (2018) from the University of Surrey. Roles: Visiting Senior Lecturer, Research Fellow (2010–2016 at University of Leeds), and Co-Investigator in Marie-Curie ITN 'Mathegram' Affiliations: Member of EPSRC Early Career Forum in Manufacturing Research, Secretary/Treasurer of IChemE Particle Technology SIG His research focuses on powder flowability , particle breakage , and Discrete Element Method (DEM) -based modeling. Key projects include flowability assessment of weakly consolidated powders (funded by IFPRI) and predicting size reduction in ribbon milling (Procter & Gamble collaboration). He has pioneered methods like ball indentation for powder flow measurement and DEM modeling of impact breakage. Publications span Chemical Engineering Science , Powder Technology , and International Journal of Pharmaceutics , emphasizing granular dynamics, segregation, and industrial applications. Awards include the 2012 UK Particle Technology Forum Young Researcher Award and 2015 IChemE Nicklin Medal. Grants: £IFPRI grants (2014, 2017), Corning Inc. funding (2010s) Students: Supervises research on powder flow, heat generation, and CFD-DEM modeling Lab affiliations include collaborations with Procter & Gamble and the University of Leeds' Institute of Particle Science & Engineering.

• Powder flowability
• Particle breakage
• Discrete Element Method (DEM)
• +3 more

Jiawei Hu is a Research Fellow at the University of Surrey's School of Chemistry and Chemical Engineering, specializing in computational modeling and thermal engineering. Their work focuses on advanced energy storage systems, granular flow dynamics, and electrostatic interactions in particulate systems. Research interests include thermal management of all-solid-state batteries, heat conduction in composite materials, and discrete element method (DEM) modeling for granular and pharmaceutical systems. Recent studies explore the impact of microstructural parameters on thermal conductivity, as well as electrostatic phenomena in silo and rotating drum environments. Publications highlight trends in interdisciplinary research at the intersection of energy storage, materials science, and computational physics. Key contributions include DEM-CFD coupled models for particle systems and investigations into friction-induced heating mechanisms. No academic awards or grants are explicitly listed in the provided materials. Advising records are unavailable, though affiliations with Surrey's Chemistry and Chemical Engineering School suggest involvement in collaborative research initiatives.

• Thermal Engineering
• Materials Science
• Computational Modeling
• +3 more

Richard Katz is a Professor of Geodynamics at the University of Oxford's St Anne's College. His research focuses on understanding the physics of liquid–solid systems in terrestrial and planetary settings, emphasizing quantitative predictions through applied mathematics, numerical simulations, and scaling analysis. Key research areas include granular media mechanics, tidal dynamics in planetary bodies, mud volcano formation, ice shelf fracture, and magma dynamics. He leads a collaborative research group integrating observational and experimental data with theoretical models. His teaching includes advanced courses on vector calculus, continuum mechanics, and mantle convection for Earth Sciences undergraduates. He has also contributed to educational initiatives at the African Institute for Mathematical Sciences, focusing on fluid dynamics. Recent work explores topics such as tidal heating in icy moons, melt transport in lithospheric systems, and dislocation dynamics in olivine. His textbook The Dynamics of Partially Molten Rock (Princeton University Press, 2022) synthesizes magmatic theory across Earth and planetary sciences.

• Geodynamics
• Planetary Science
• Glaciology
• +6 more

Dr. Benjy Marks is a Senior Lecturer in Geomechanics at the School of Civil Engineering, University of Sydney. He holds a BEng/BSc (Hons I) and PhD in Civil Engineering. His research focuses on granular materials, including landslides, avalanches, and industrial processes, with applications in geotechnical engineering, pharmaceuticals, and construction. He leads the Immersive Learning Laboratory, integrating VR technology into engineering education. Education: BEng/BSc (Hons I), PhD in Civil Engineering (University of Sydney). Research interests include granular segregation, material behavior under stress, and computational modeling. He collaborates with international institutions like Université Grenoble Alpes and the University of Oslo. His work bridges fundamental granular physics and practical engineering solutions, such as landslide mitigation and fiber-reinforced concrete analysis. Recent articles highlight machine learning for grain classification, VR educational tools, and granular flow dynamics. Grants include studies on extreme wear of geotechnical machinery and earthquake mechanics. He supervises projects like 'Understanding the Student Response to Learning Empathy in Australian Engineering Courses.' Labs/Teams: Immersive Learning Laboratory, SciGEM, and collaborations with global partners in granular mechanics.

• Granular Mechanics
• Geomechanics
• Landslide Modeling
• +3 more