Core Courses
The program is structured into several fundamental blocks:
1- Core Curriculum
i-Advanced Functional Analysis: Sobolev spaces, compact operators, fundamental theorems.
ii-Theory of linear PDEs: Variational methods, distributions, regularity of solutions.
iii-Numerical methods for PDEs: Finite elements, finite differences, error analysis.
iv-Calculus of variations and optimisation: Variational problems and applications to PDEs.
V- Applications and Modelling
VI-PDEs in physics and engineering: Fluid mechanics (Navier-Stokes equations), electromagnetism (Maxwell).
V-DEs in Biology and Ecology: Diffusion-Reaction Models, Wave Propagation in Living Media.
Advanced Topics
In the second year, specialised courses and research topics are offered:
I-Nonlinear PDEs: Viscosity Solutions, Viscosity Schemes, Entropic Methods.
II-Fractional Laplacian and Nonlocal Operators: Applications in Mechanics of Heterogeneous Media.
III-Boundary Value Problems and Fine Regularity: De Giorgi, Nash, and Moser Techniques.
VI-Optimal Control and applications.
VII-PDEs of hyperbolic type.
Career Opportunities
1- Academic Research: PhD in Mathematical Analysis, Mathematical Physics, or Scientific Computing.
2- Industry and Engineering: Numerical Modeling in Fluid Mechanics, Image Processing, and Biomathematics.
3- Finance and Insurance: Stochastic Calculus and Option Pricing.
4- Data Science & AI: Applications of PDEs in Machine Learning.
- Conclusion
The Master's in PDEs and Applications is a demanding and exciting program, combining theoretical rigour with modern applications. It prepares students for both research and the professional world.