The MAGIS Master 2 program offers a high-level international education in materials mechanics. It aims to equip students with the tools to understand, develop, and apply models that link materials, their microstructure, phase changes, damage, and cracking to their mechanical properties—whether or not these are coupled with other physical properties—for advanced industrial applications. Students are trained in microstructural analysis methodologies (electron microscopy, spectral analysis, tomography, diffraction), field measurements enabling the inverse identification of properties, the modeling of deformation, damage, and cracking mechanisms and the couplings between the various physical phenomena at work, as well as tools for simulating nonlinear mechanical behavior, including methods using artificial intelligence. This approach applies to a wide variety of materials (metals, ceramics, glasses, composites, polymers, foams, shape-memory alloys, etc.) subjected to complex loads (3D, quasi-random, anisothermal, multiphysical: thermal, electrical, magnetic, chemical, etc.).