Activez les alertes d’offres d’emploi par e-mail !
Mulipliez les invitations à des entretiens
Créez un CV sur mesure et personnalisé en fonction du poste pour multiplier vos chances.
An innovative international research institute is seeking a PhD Thesis Student to join their cutting-edge X-ray nano-probe group. This exciting opportunity involves collaboration with global experts in advancing science and tackling societal challenges. The role focuses on designing advanced microstructures for additive manufacturing, utilizing state-of-the-art techniques in nano-imaging and analysis. Located in the vibrant city of Grenoble, known for its stunning Alpine backdrop and commitment to sustainability, this position offers a unique chance to contribute to groundbreaking research while enjoying a high quality of life. If you're passionate about materials science and eager to make a difference, this could be your next professional adventure.
Social network you want to login/join with:
col-narrow-left
ESRF
Grenoble, France
Other
-
Yes
col-narrow-right
27796c02cb85
1
24.04.2025
08.06.2025
col-wide
Thesis subject: Synchrotron nano-imaging informed tailoring of additive manufacturing microstructures against strain localization.
Beamline ID16B is dedicated to hard X-ray nano-analysis, combining techniques such as X-ray fluorescence (XRF), X-ray absorption spectroscopy (XAS), X-ray excited optical luminescence (XEOL), X-ray diffraction (XRD), and 3D/4D X-ray nano-imaging (nano-CT). It enables world-leading research across disciplines like earth and environmental science, life science, and materials science. ID16B exploits a wide energy range from 6 to 33 keV, providing beamsizes down to 50 nm, and accommodates sample environments for in situ nano-analysis.
You will join a collaboration between ESRF and the SIMAP laboratory from the University Grenoble Alpes to tailor additive manufacturing microstructures against strain localization. Your tasks include designing microstructures of aluminum alloys via L-PBF, conducting in situ 3D nano-imaging tensile experiments, and developing AI-based numerical strategies for multi-scale correlation. The project aims to advance the design of Al alloys for laser powder bed fusion additive manufacturing with targeted mechanical properties.
Expected profile
Working conditions
The salary will be based on qualifications and experience.
If you see yourself in this description, apply now for your next professional adventure!
What we offer: