Polymer systems engineering
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Ongoing projects
- Projet COMASYS
- ANR PLARE
- RUSTINE (FUI) - Recyclage par extrUSion assisTée fluIde pour la valorisatioN de déchEts polymères
- INTERREG GRASS - Gazons aRtificiels Anti-feu Sûrs et durableS
- ANR MISMATCH -- MultIfunctional and Multi-sTimuli responsive Hydrogels
- ANR ECONOMICS
- ERC Advanced Grant FireBar-Concept, Multi-conceptual design of fire barrier, A systemic approach
- ANR CAPSPIN - Implants anti-adhérents et antimicrobiens pour la chirurgie viscérale élaborés par plasma froid atmosphérique et electrospinning
Topics
- Novel concept of antimicrobial packaging polymers
- Controlled Radical polymerizations
- Supramolecular Chimistry
- Functional polymeric systems
- Micro and nanoparticular systems for the sustained delivery of active molecules
- Cold plasma functionalization of biomaterials
- Elaboration of biomaterials for therapeutic applications

UMET - Polymer systems engineering
Responsable d'équipe: Serge BOURBIGOTMembres
Faculty and CNRS researchers:
S. BARRAU, K. BELKHIR, T. BENSABATH-PEREZ, C. BINET, F. BONNET, S. BOURBIGOT, J.-F. BRUN, F. CAZAUX, S. DEGOUTIN, T. DEPLANCKE, G. FONTAINE, D. FOURNIER, V. GAUCHER, J.-M. GLOAGUEN, L. JANUS, G. LE FER, J.-M. LEFEBVRE, J. LYSKAWA, B. MARTEL, J. POTIER, G. STOCLET, N. TABARY, K. VANDEN BROECK, P. WOISEL, C. ZOBRISTStaff:
C. CANDELIER, M. DERAEDT, A. DHENIN, M. EPINAT, A. MALFAIT, A. MARIN, J. SARAZIN, J.-N. STAELENS, J.-F. TAHON, V. TERNELPhD students:
R. ACHOUR, M. O. AUGé, L. AYADEN, R. BARON, M. BENATMANE, R. BENMAMMAR, B. BONTINCK, H. BOSSUT, M. CARON, B. GAUTHERON, M. GIRARDOT, K. HA, Z. HAREB, H. KAMENI, A. LAMANDé, L. MEUNIER, B. MIRANDA CAMPOS, T. MOREL, X. MOSCA, C. RIBEIRO, S. RITAINE, S. SABIR, P. SALAÜN, S. SAMSOEN, M. TANG, V. H. VO LE, Q. YANG, M. ZEMO FOTEUOrganization of the group ‘Engineering of Polymeric Systems’ (ISP)
Organization in 5 main topics and a scientific pluridisciplinary approach
- Pluridisciplinary group on the polymeric systems
- Balanced culture between applied and fundamental research
- Valorization of pluridisciplinarity

Reaction and resistance to fire >
Recycling and life cycle analysis >
The research developed in the field of recycling of polymer materials and organic matter concerns the overall problem of developing innovative processes to increase their recovery rate. In the field of chemical recovery, the catalytic pyrolysis process is mainly studied. On the other hand, processes such as reactive extrusion, fluid assisted extrusion, radiation treatments are developed with the aim of cleaning up the material and thus allow its use in a wider field of applications. Finally, the Life Cycle Analysis (LCA) represents a cross-cutting methodological axis to the different approaches presented.
Structure, plasticity, damage >
The research developed focuses on the influence of changes in macromolecular architecture on the mechanical response, in particular on the mechanisms of plastic deformation and the induced structural evolution of systems based on thermoplastic materials.
Stimulable polymeric systems >
Stimulating polymer systems are defined as systems undergoing significant physical or chemical changes in response to one or more stresses. Our global approach aims to combine principles derived from precision macromolecular chemistry, reversible supramolecular or covalent chemistry, or to develop bio-inspired or micro-electronic approaches, to scaffold macromolecular assemblages and/or create polymer materials or hybrid polymer systems whose physical-chemical properties in solution, mass or surface and/or physical properties (electric, mechanical...) can be modulated by the application of various external stimuli.
Polymers for biomedical >
The aim of this theme is to develop polymers with specific intrinsic biological properties as well as vectorization and release properties of active ingredients, and on the other hand to develop biomaterials used as medical devices capable of interacting with living tissues to facilitate their integration, combating post-operative or post-traumatic complications, and regenerating tissues (skin). bones, etc.).
Chemistry and physics of interfaces >
UMET - Unité Matériaux et Transformations CNRS UMR 8207 Université de Lille Bâtiment C6 59655 Villeneuve d'Ascq France Version 3.0 |
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