Multiscale modeling of microstructure growth during solidification of alloys
Ref. num. SOL-RA01
IMDEA Materials (Madrid Institute for Advanced Studies of Materials) is a non-profit, independent research institute, promoted by the Regional Government de Madrid (Spain), to carry out research in Materials Science and Engineering. IMDEA Materials Institute is committed to excellence in research by attracting talent from all over the world and to foster technology transfer to the industrial sector in a truly international environment. More information about the activities of the Institute can be found at: http://www.materials.imdea.org
IMDEA Materials Institute (Madrid, Spain) is looking for a Research Assistant (MSc Degree or equivalent in Materials Science and Engineering, Computational Physics, or related fields) to carry out a PhD in Computational Materials Science and Engineering.
The research will focus on multiscale modeling of microstructure growth during the solidification of alloys (such as in casting, welding, or additive manufacturing processes). These microstructures and their morphologies strongly affect the thermomechanical properties of technological components. Hence, they occupy a central role in developing innovative alloys and processing routes for next generations of high-performance structural materials. Specifically, the project will address the effect of fluid flow on the selection of dendritic microstructures.
The candidate will develop computational codes to model dendritic crystal growth, based on a newly introduced multiscale modeling approach. The candidate will gain knowledge and skills in thermodynamics and kinetics of phase transformations, computational fluid dynamics, fluid-particle interactions, and high-performance parallel computing. Research activities will also explore coupling pathways with models applicable at other length and time scales, such as phase-field, molecular dynamics, and continuum approaches.
While the PhD project is focused on computational modeling, international collaborators will provide experimental measurements that will be crucial to the validation of the developed model. The model will, in turn, be used to simulate and provide original interpretations to experimental observations and measurements.
The candidate should hold a Master's degree in Materials Science and Engineering, Computational Physics, or a related discipline, with excellent academic credentials. Candidates with knowledge in numerical simulation of materials (e.g. computational fluid dynamics, thermomechanics, thermodynamics, kinetics) as well as experience and a strong interest in scientific programming (such as C, C++) are strongly encouraged to apply.
Full proficiency in English, oral and written, is mandatory. No knowledge of Spanish is required (free classes offered on site).
Interested candidates should submit their Curriculum Vitae, academic records, and a cover letter addressing their motivation and scientific interests.