Five courses are proposed, and 14 hours of group discussions when exercises and labs will be given.
1. Scientific python
Marília Pires, PhD, University of Évora, Portugal
This practice presents the main features of a free software to solve mathematical equations derived from concrete problems.
This course is done on computer.
Presentation of python
Basics (number, characters, function) - Graphics
Linear and nonlinear systems
2. Finite difference methods for PDE
Noppadol Chumchob, PhD, Silpakorn University, Thailand
Brief overview of ordinary and partial differential equations
Elliptic PDE: 1D, 2D elliptic problems, Convergence theory
Parabolic PDE: 1D heat equation, Stability, Convergence theory for time-dependent problems
Image processing-image restoration
3. Exact solutions of smoothing PDE
Nabil Bedjaoui, PhD, University of Picardie, France
Separation of variables, Fourier series
Fourier transform
Fernando da Costa, PhD, University Aberta, Portugal
Convolution
Image restoration, Filtering
4. Hyperbolic PDE
Nabil Bedjaoui, PhD, University of Picardie, France
Linear and nonlinear models (transport, waves and optics, dissipation and dispersion)
Joaquim Correia, PhD, University of Évora, Portugal
Dynamics of image processing & parabolic-hyperbolic models
Image denoising and restoration & viscosity solutions, shock capturing
Characteristics, entropies, viscosity-dispersive solution(s)
Curves and signals & metrics, dynamic geometry and scales
5. Computer implementation of PDE
Youcef Mammeri, PhD HDR, University of Picardie, France
This lecture is dedicated to the implementation of methods presented in the other lectures. This course is done on computer.
1D Finite differences implementation
Fast Fourier Transform
2D implementation, Kronecker product
Examples of simple image processing
Scipy routines for image manipulation.