ECTS
8 credits
Training structure
Faculty of Science
Time of year
Spring
Description
This course will cover the concepts of sequences and series of functions and various types of convergence. Entire series and Fourier series will also be discussed.
Objectives
Sequence of functions Simple convergence and uniform convergence of a sequence of functions
- Definitions and relationship between simple and uniform convergence of a sequence of functions
- Uniform Cauchy criterion
- Dini's theorems
- Stone-Weierstrass theorem using Bernstein polynomials
- Stability of continuity (resp. differentiability, integration) by uniform convergence
Series of functions
- Simple and uniform convergence
- Normal convergence
- Continuity, differentiability, and integrability of a series of functions
Complete series.
Definitions, radius of convergence, Hadamard formula, d'Alembert's rule.
Properties of the sum of the entire series: continuity, differentiability, integrability.
Functions that can be developed as entire series.
Applications to solving differential equations: solving using entire and exponential series of matrices.
Fourier series.
- Why Fourier series (issues and definitions)?
- Convergence (quadratic mean, simple, normal) of Fourier series
- Applications to calculations of certain series and differential equations
Teaching hours
- Analysis IV Function sequences, entire series, Fourier - TutorialTutorials39 hours
- Analysis IV Function sequences, entire series, Fourier - CMLecture39 hours
Mandatory prerequisites
HAX201X – Analysis II Sequences, series, limited developments
HAX302X: Analysis III: Integration and Elementary Differential Equations
Recommended prerequisites: L1 math
Additional information
Hourly volumes:
CM: 39 hours
Tutorial: 39 hours
TP:
Land: