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AccueilCPIS3 · BATIMENT-ENERGIE
E2CP3B6

Math for BE

FR EN ⬇ PDF
RéférentKamal EL OMARI
ECTS1
CM / TD / TP8 / 12 / 0
Typematiere

Viable
Viable100%
Complète79%
Manque pour « complète »
  • Bibliographie
  • Supports
  • Version EN relue

But du cours

  • Double integrals: definition, Fubini’s theorem, change of variables, Jacobian, polar coordinates; applications: center of mass, moment of inertia, area calculation, volume under a surface
  • Triple integrals: definition and applications, cylindrical and spherical coordinates, change of variables with the Jacobian, practical applications
  • Curves and line integrals: curves and parametric equations, polar coordinates, definition and calculation of line integrals, applications to vector fields and curve length calculations
  • Fundamental theorems: Green–Riemann theorem, Ostrogradski’s and Stokes’ theorems, gradient and curl theorems, calculation of the flux of a vector field

Acquis d'apprentissage visés

  • Formulate and evaluate double and triple integrals in Cartesian coordinates
  • Formulate and evaluate line integrals in various geometric configurations
  • Perform change of variables in multiple integrals (polar, cylindrical, and spherical coordinates)
  • Apply multiple integrals to physics and engineering problems (volume, center of mass, moment of inertia calculations, etc.)
  • Apply line integrals to physics problems (curve length, work done by a force, flux of vector fields, etc.)
  • Use the Green–Riemann theorem and other fundamental theorems to solve physical and geometric problems

Prérequis

  • Differentiation and integration of single-variable functions
  • Multivariable functions and partial derivatives
  • Vector calculus
  • Calculation of the determinant of a 3×33 \times 3 matrix

Programme

  1. Double and triple integrals in Cartesian coordinates: definition, geometric interpretation, calculation over simple domains.
  1. Change of variables in multiple integrals: introduction to polar, cylindrical, and spherical coordinates, practical applications.
  1. Line integrals: definition, orientation, calculation over parameterized curves in various geometric contexts.
  1. Applications in physics and engineering: volume, center of mass, moment of inertia, work of a force, flux of fields calculations.
  1. Fundamental theorems: Green–Riemann theorem and introduction to Stokes and Gauss for solving concrete problems.

Modalités d'évaluation

2 Written exams (2h/2h)