Materials Chemistry

Program Overview

The curriculum of the Academic Master’s in Materials Chemistry offers a multidisciplinary program focused on an in-depth understanding of the relationships between the structure, processing, and properties of materials. The course is built around a solid fundamental core, primarily including solid-state chemistry, phase diagrams, electrochemistry, and the physical chemistry of surfaces. Special emphasis is placed on modern synthesis methods, such as soft chemistry, sol-gel, and hydrothermal processes, as well as advanced characterization techniques including X-ray Diffraction (XRD), electron microscopy (SEM/TEM), and thermal analysis. The program stands out through the integration of cutting-edge digital skills, notably via modules dedicated to Artificial Intelligence (Machine Learning)applied to materials and molecular modeling (using software such as LAMMPS, FullProf, and VESTA). In addition to nanosciences and functional materials (energy storage, semiconductors), the training includes transversal courses on sustainability, recycling, and entrepreneurship, thus preparing students for current technological and environmental challenges.

Teaching Language : Français

Curriculum Highlights

Core Courses

These modules provide the essential theoretical foundation for understanding matter in the solid state:

·Solid State Chemistry: Study of crystal structures, bonding, and defects within crystals.

·Phase Diagrams: Understanding thermodynamic equilibria and state transformations of materials.

·Electrochemistry: Fundamental principles of charge transfer reactions (essential for corrosion and batteries).

·Synthesis Methods (Level 1): Learning classical techniques for synthesizing powders and ceramics.

·Characterization Techniques (Level 1): Introduction to X-Ray Diffraction (XRD) and X-Ray Fluorescence.

Advanced Topics

These modules prepare students for cutting-edge technologies, the digital world, and current industrial challenges:

·AI & Machine Learning (Dedicated Modules): Application of digital tools to predict material properties (S1 and S2).

·Molecular Modeling and Simulation: Use of industry-standard software (such as LAMMPS, VESTA) to simulate atomic behavior.

·Nanomaterials and Nanotechnologies: Study of specific properties of matter at the nanometric scale for sustainable development.

·Physical Chemistry of Surfaces and Interfaces: Study of surface phenomena, crucial for catalysis and functional materials.

·Supramolecular Applications: Study of complex frameworks (MOFs, COFs) for gas storage or health applications.

·Entrepreneurship and Innovation: Advanced module for transforming scientific skills into economic projects or startups.

·Materials for Energy: Specialization in semiconductors and energy storage devices.

Materials Chemistry

Program Overview

Curriculum Highlights

Core Courses

These modules provide the essential theoretical foundation for understanding matter in the solid state:

·Solid State Chemistry: Study of crystal structures, bonding, and defects within crystals.

·Phase Diagrams: Understanding thermodynamic equilibria and state transformations of materials.

·Electrochemistry: Fundamental principles of charge transfer reactions (essential for corrosion and batteries).

·Synthesis Methods (Level 1): Learning classical techniques for synthesizing powders and ceramics.

·Characterization Techniques (Level 1): Introduction to X-Ray Diffraction (XRD) and X-Ray Fluorescence.

Advanced Topics

These modules prepare students for cutting-edge technologies, the digital world, and current industrial challenges:

·AI & Machine Learning (Dedicated Modules): Application of digital tools to predict material properties (S1 and S2).

·Molecular Modeling and Simulation: Use of industry-standard software (such as LAMMPS, VESTA) to simulate atomic behavior.

·Nanomaterials and Nanotechnologies: Study of specific properties of matter at the nanometric scale for sustainable development.

·Physical Chemistry of Surfaces and Interfaces: Study of surface phenomena, crucial for catalysis and functional materials.

·Supramolecular Applications: Study of complex frameworks (MOFs, COFs) for gas storage or health applications.

·Entrepreneurship and Innovation: Advanced module for transforming scientific skills into economic projects or startups.

·Materials for Energy: Specialization in semiconductors and energy storage devices.

Admissions Information

Bachelor's Degree in:

- Fundamental Chemistry

- General Chemistry

- Physical Chemistry

- Organic Chemistry

- Materials Chemistry

- Inorganic Chemistry

- Macromolecular Chemistry

- Environmental Chemistry

- Applied Chemistry

- Polymer Chemistry