Relations Process - Structure - Physical properties of polymer films, fibres and nanofibers, nanocomposites, multilayer films and fibers, functional films and fibers, fibers and films polymer structures for biomedical applications.
Applied and computational solid mechanics, Advanced composite materials, Multiphysics and multiscale simulation, Multifunctional materials, Cellular solids, Macro/microscale heat and mass transfer, Green energy, sustainable design
- Computational Fluid Dynamics (CFD);
- Fundamental and applied fluid mechanics;
- Process Intensification;
- Multiphysics modeling;
- Granular flows;
- Multiphase flows;
- Discrete Element Method (DEM);
- Additive manufacturing;
- Topology optimization;
- High Performance Computing;
- Open source software development
SELF- HEALABLE CONDUCTING POLYMERS STRETCHABLE ELECTRONICS IN VIVO ORGANIC BIOELECTRONICS PATTERNING AND PRINTING FOR FLEXIBLE ELECTRONICS METAL OXIDE ELECTRONICS MIXED IONIC ELECTRONIC TRANSPORT IN ORGANIC DEVICES CARBON BASED ELECTRODES FOR ORGANIC THIN FILM TRANSISTORS
Bio-based composites (bio-organic and bio-inorganic), Environmentally-friendly devices, Materials engineering, Biotechnology, Synthetic Biology, Bioelectronics and bio-energy, Biopolymers, Biomaterials and bioengineering.
3D printing, design for additive manufacturing, topology optimization, mass customization, CAD/CAM, advanced/traditional manufacturing, geometric and solid modeling, robotics, computer vision, image processing, machine learning, and medical devices
Centre Technologique en Aérospatiale (CTA)
- Virtual & adaptive manufacturing of composites; - Integrated Computational Materials Engineering for composite applications; - Multiphysics simulation covering geometric forming/shaping of composites; - Process-induced defects in composite parts; - Material characterization & modeling for manufacturing simulation; - Workflow integration of CAD-meshing-process modeling - Processing–microstructure–properties relationship
- Developing nanomaterials as sensors for food safety. Electrospun nanofabrics have very large surface area to volume ratio and excellent pore-interconnectivity. It is easy to incorporate the sensing and reacting compounds in the nanostructure to achieve the quickly starting signaling pathway and fast treatment.
- Developing ‘smart’ biomaterials for functional food, which allow the controlled release of several incorporated compounds in the desired sequence to achieve synergistic functionalities.
- Developing environmentally compatible materials with high performance for replacement of petroleum based plastics and foams, and enabling a better understanding of their microstructure and bulk features (mechanical strength, permeability, degradation, etc.).