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TRIUMPH - Research project
Time-Resolved Inference of friction Using Machine-learning informed by a Physical model
PhD student: Abd El Illeh Boulefrakh Khalef
ABSTRACT
Dry friction is at the heart of several technological and societal concerns: a large amount of energy is needed to overcome it (24% of the energy produced globally), and it produces wear particles which have an impact on human health. In order to improve our understanding and our control of mechanical contacts, the TRIUMPH project will be devoted to the construction of two parallel and independent tools for the prediction of friction based on surface morphologies acquired by microscopic imaging (SEM). The first one will be purely empirical (interpretable Deep Learning model trained on a database of experimental images), and the second one will be physical (dialog between experimental images and particle-based simulations though topographic descriptors). The combination of both approaches will make it possible to improve both our understanding and our prediction of dry friction.
No publication available yet.
ABOUT the TRIUMPH project
RESEARCH AXES
Axis #2
KEYWORDS
Tribology, Friction, SEM Imaging, Deep Learning, Particle-based Simulations, Topographic Descriptors
DURATION - STATUS
04/11/2024 – 03/01/2027
PhD STUDENT
Abd El Illeh Boulefrakh Khalef (LaMCoS)
PROJECT COORDINATOR
Guilhem MOLLON (LaMCoS)
COORDINATING LABORATORY
LaMCoS lab
PARTNER LABORATORIES
Georges Friedel lab (LGF)
PARTNER RESEARCHERS
Sylvie Descartes, Alizée Bouchot, Yann Gavet
Axis #2
KEYWORDS
Tribology, Friction, SEM Imaging, Deep Learning, Particle-based Simulations, Topographic Descriptors
DURATION - STATUS
04/11/2024 – 03/01/2027
PhD STUDENT
Abd El Illeh Boulefrakh Khalef (LaMCoS)
PROJECT COORDINATOR
Guilhem MOLLON (LaMCoS)
COORDINATING LABORATORY
LaMCoS lab
PARTNER LABORATORIES
Georges Friedel lab (LGF)
PARTNER RESEARCHERS
Sylvie Descartes, Alizée Bouchot, Yann Gavet