Find Academic Supervisors

Remi Chassagne is a Research Fellow at Grenoble Alpes University, affiliated with the Laboratory of Geophysical and Industrial Flows (LEGI), a joint research unit of CNRS, Grenoble INP, and Grenoble Alpes University, where he contributes to the MEIGE team. His research focuses on: Sediment Transport mechanics using mechanistic and granular approaches Vertical grain size segregation and diffusion remixing in sediment beds Eulerian-Eulerian two-phase flow modeling (SedFoam) Bridging particle-scale phenomena to continuum models Interactions between sediment particles of different sizes Chassagne's work integrates discrete element modeling (DEM) for particle-scale dynamics with continuum modeling to address sediment transport in geophysical contexts. His research emphasizes vertical grain size segregation, infiltration dynamics of small grains in coarse beds, and the development of numerical frameworks like SedFoam for multiphase flow simulation. This mechanistic approach connects micro-scale particle interactions to macro-scale sediment transport predictions. Analysis of his publication record (2016-2024) reveals consistent focus on sediment transport mechanics, with dominant themes in granular flow behavior, size segregation processes, and computational modeling advancements. Key contributions include frictional-collisional bedload models, sediment-vegetation interactions, and bi-disperse mixture mobility. His work demonstrates strong integration of computational methods with experimental validation through LEGI's hydrodynamic facilities. As part of LEGI's MEIGE team, Chassagne utilizes the laboratory's advanced infrastructure including hydrodynamic tunnels, wave channels, and rotating platforms to investigate geophysical flows relevant to river, coastal, and industrial applications.

• Sediment Transport
• Granular Flows
• Fluid Dynamics
• +3 more

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

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

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. 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

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

Professor Andrew J Hogg is a faculty member at the School of Mathematics, University of Bristol. He is affiliated with the Cabot Institute for the Environment, specializing in fluid mechanics and applied mathematics. His research spans environmental phenomena, including volcanic ash clouds, debris flows, and sediment transport in coastal regions. Education: M.A., Ph.D.(Cantab.) His research focuses on mathematical modeling of two-phase flows in natural environments. Key areas include: Volcanic ash dispersion and plume dynamics Granular segregation in industrial and geological settings Suspended sediment transport in rivers and coasts Viscoplastic material behavior in mudflows and debris flows Recent work examines coherent turbulent eddies, yield stress transitions, and environmental impacts of engineering structures. Publications highlight interdisciplinary approaches combining analytical, numerical, and experimental methods. Current projects address volcanic plume rise, viscoplastic slumps, and sediment transport models. He collaborates with earth science and engineering departments locally and internationally.

• Fluid Mechanics
• Geophysics
• Sediment Transport
• +5 more

Kit Windows-Yule is an Associate Professor in Chemical Engineering at the University of Birmingham, affiliated with the School of Chemical Engineering and the Positron Imaging Centre (PIC). He holds a Turing Fellowship and is a two-time Royal Academy of Engineering Industrial Fellow. His research focuses on multiphase systems, particulate dynamics, and the development of experimental and numerical methodologies such as Positron Emission Particle Tracking (PEPT), X-ray Tomography, and Discrete Element Method (DEM) modeling. He collaborates with industries like Johnson Matthey, AstraZeneca, and Mondelez to solve complex engineering challenges. Kit earned his MSci in Physics (2010) and PhD in Physics (2015) from the University of Birmingham. He has held postdoctoral positions at the University of Twente (Netherlands) and Friedrich-Alexander Universität Erlangen-Nürnberg (Germany), enhancing his expertise in numerical methods and additional experimental techniques. He returned to Birmingham in 2018 to assume his current academic role. His research interests include granular segregation, convection in fluidized systems, and the development of novel imaging algorithms for X-ray and optical systems. He is a core member of the Birmingham Plastics Network, an interdisciplinary initiative addressing global plastic sustainability through collaboration across engineering, environmental science, and social sciences. Kit’s publications span topics like granular energy dynamics, segregation mechanisms, and multi-phase flow modeling. His awards reflect his contributions to bridging academia and industry. His teaching includes modules on multiphase systems and foundational engineering skills. Key Collaborations: Johnson Matthey, AstraZeneca, IFPEN, and Granutools Labs/Teams: Positron Imaging Centre (PIC), Birmingham Plastics Network

• Multiphase Systems
• Granular Media
• Fluid Dynamics
• +3 more

Dr. Shahrzad Roshankhah serves as an Assistant Professor in the Department of Civil and Environmental Engineering at the University of Utah's College of Engineering since July 2021. Her academic journey includes a Ph.D. from Georgia Institute of Technology (2015), M.Sc. from Amirkabir University of Technology (2007), and B.S. from Semnan University (2003). She maintains professional licensure as a Professional Engineer in Utah and brings extensive industry experience from six years in engineering consulting prior to doctoral studies. B.S. in Civil Engineering, Semnan University (2003) M.Sc. in Civil and Environmental Engineering, Amirkabir University of Technology (2007) Ph.D. in Civil and Environmental Engineering, Georgia Institute of Technology (2015) Her research focuses on hydro-thermo-chemo-mechanical behavior of geomaterials under extreme conditions, with applications in sustainable geo-energy infrastructure and civil engineering. She employs advanced experimental techniques including neutron imaging and computational modeling to investigate fracture mechanics, thermal properties of porous media, and hydraulic fracturing processes. Her work bridges fundamental geomechanics with practical engineering challenges in energy transition and infrastructure resilience. Dr. Roshankhah's publication portfolio reveals strong emphasis on rock mechanics and geotechnical innovation, particularly in fracture analysis, thermal conductivity of granular materials, and advanced computational methods. Her recent work demonstrates increasing integration of machine learning with traditional geomechanical testing, while maintaining rigorous experimental validation. The research consistently addresses critical energy infrastructure challenges through fundamental material behavior studies. Emerging Leader (Offshore Technology Conference, 2024) Distinguished Early Career Service Award (American Rock Mechanics Association, 2023) Future Leader (American Rock Mechanics Association, 2020) Faculty Affiliate, Office of Undergraduate Research (University of Utah, 2022) She actively mentors graduate students through thesis research supervision in Ph.D. and Master's programs while teaching core courses including Geotechnical Engineering, Civil Engineering Materials, and Advanced Foundation Engineering. Her current CarbonSAFE Phase II grant from the U.S. Department of Energy focuses on carbon storage feasibility. Professional service includes committee leadership in ASCE, ARMA, and SPE, with specialization in rock mechanics, hydraulic fracturing, and diversity initiatives. Dr. Roshankhah maintains active collaboration networks across geomechanics communities and contributes to advancing experimental methodologies for extreme-condition material characterization. Her laboratory work integrates multiphysics testing with computational modeling to address pressing challenges in energy geotechnology and infrastructure resilience.

• Geotechnical Engineering
• Rock Mechanics
• Hydro-Thermo-Chemo-Mechanical Behavior of Geomaterials
• +5 more

Dr. François Bertrand is a Full Professor and Director of Research and Innovation Directorate at Polytechnique Montréal 's Department of Chemical Engineering . With academic credentials from Université Laval and INPL France, he has held multiple leadership roles including Interim General Director (2017-2018) and Chairman of Calcul Québec (2018). Expert in multiphase fluid flows and granular flow modeling Specializes in finite element , discrete element , and lattice Boltzmann methods Active in parallel algorithms and high-performance computing Recent publications focus on rarefied gas flows (2025), granular flow optimization with adaptive contact algorithms (2024), and multiscale modeling of industrial processes. Elected as Fellow by both the Canadian Academy of Engineering (2020) and Chemical Institute of Canada (2019), he has mentored 18 PhD and 21 master's students while contributing to research centers like CREPEC and CIRANO. 2020 - Fellow, Canadian Academy of Engineering 2019 - Fellow & Excellence Award, Chemical Institute of Canada 2010 - Teaching Excellence Award, Polytechnique As director of Polytechnique's Research and Innovation Directorate, he oversees 408+ research projects while maintaining active involvement in computational fluid dynamics research and industrial partnership programs.

• Transfer Processes
• Modeling and Simulation
• Multiphase Fluid Flows
• +7 more

Qinfu Hou is a Lecturer and Research Fellow in Monash University's Department of Chemical and Biological Engineering. His research develops multiscale modeling techniques to understand granular and multiphase flows for energy-efficient processes across chemical, metallurgical, and environmental applications. Research areas include heat/mass transfer in fluidized beds, multiphase flow dynamics, granular segregation, numerical method development, and cloud-based process optimization. With over 70 publications and A$2.5M+ in research funding, Hou has developed virtual reactor models and process scaling approaches adopted in metallurgy and materials processing. His work on solar evaporators and waste valorization demonstrates commitment to sustainable engineering solutions. Notable mentorship outcomes include students receiving the Fell Consulting Prize (Jannatul Azmir), JITRI Fellowship (Yongli Wu), and Best Engineering Thesis in Brazil (Lucas Massaro Sousa). His publications show consistent themes: 1) Computational modeling of industrial reactors, 2) Particle-fluid interaction mechanics, 3) Process intensification strategies, and 4) Sustainable resource recovery. Recent work advances solar desalination and biomass processing technologies.

• Heat and Mass Transfer
• Multiphase Flows
• Granular Flow Stability
• +2 more

Joseph J. McCarthy is the Provost and Senior Vice Chancellor at the University of Pittsburgh , overseeing academic strategy for over 5,900 faculty and 34,000 students across five campuses. He also holds the William Kepler Whiteford Professorship in the Swanson School of Engineering 's Department of Chemical and Petroleum Engineering . PhD in Chemical Engineering, Northwestern University (1998) BS in Chemical Engineering, University of Notre Dame (1993) McCarthy's research focuses on multi-scale and multi-phase transport phenomena , particularly in granular materials and catalyst preparation . His work integrates Discrete Element Method (DEM) simulations with multi-physics problems, including cohesive particle modeling and thermo-mechanical interactions . Publications span journals like Nature , PNAS , and Physical Review Letters , with an H-index of 32 and over 45 invited industry lectures . Key awards include: CASE US Professor of the Year Nominee (2015) Chancellor’s Distinguished Teaching Award (2015) Swanson School Outstanding Educator Award (2012) Carnegie Science Award for Higher Education (2008)

• Chemical Engineering
• Transport Phenomena
• Granular Materials
• +7 more