Math 2.0

Resources / course

Numerical Analysis YK4M0KCQ4A

URIm2://res/YK4M0KCQ4A
Kindcourse
CreatorsS. Baskar (instructor)
Date2023-01-14
Scopein
Idscourse 02qyf5152:111101165

Expressions

e1: edition

Languageen
Date2023-01-14
Contents
  • part 1: week-01
  • session 1: Week 1 : Lecture 1 : Introduction
  • session 2: Week 1 : Lecture 2 : Mathematical Preliminaries: Taylor Approximation
  • session 3: Week 1 : Lecture 3 : Mathematical Preliminaries: Order of Convergence
  • session 4: Week 1 : Lecture 4 : Arithmetic Error: Floating-point Approximation
  • session 5: Week 1 : Lecture 5 : Arithmetic Error: Significant Digits
  • session 6: Week 1 : Lecture 6 : Arithmetic Error: Condition Number and Stable Computation
  • part 2: week-02
  • session 7: Week 2 : Lecture 7 : Tutorial Session - 1: Problem Solving
  • session 8: Week 2 : Lecture 8 : Python Coding: Introduction
  • session 9: Week 2 : Lecture 9 : Linear Systems: Gaussian Elimination Method
  • session 10: Week 2 : Lecture 10 : Linear Systems: LU-Factorization (Doolittle and Crout)
  • session 11: Week 2 : Lecture 11 : Linear Systems: LU-Factorization (Cholesky)
  • part 3: week-03
  • session 12: Week 3 : Lecture 12 : Linear Systems: Operation Count for Direct Methods
  • session 13: Week 3 : Lecture 13 : Tutorial Session - 2: Python Coding for Naive Gaussian Elimination Method
  • session 14: Week 3 : Lecture 14 : Tutorial Session - 3: Python Coding for Thomas Algorithm
  • session 15: Week 3 : Lecture 15 : Matrix Norms: Subordinate Matrix Norms
  • session 16: Week 3 : Lecture 16 : Matrix Norms: Condition Number of a Matrix
  • part 4: week-04
  • session 17: Week 4 : Lecture 17 : Iterative Methods: Jacobi Method
  • session 18: Week 4 : Lecture 18 : Iterative Methods: Convergence of Jacobi Method
  • session 19: Week 4 : Lecture 19 : Iterative Methods: Gauss-Seidel Method
  • session 20: Week 4 : Lecture 20 : Iterative Methods: Convergence Analysis of Iterative Methods
  • session 21: Week 4 : Lecture 21 : Iterative Methods: Successive Over Relaxation Method
  • part 5: week-05
  • session 22: Week 5 : Lecture 22 : Tutorial Session - 4: Python implementation of Jacobi Method
  • session 23: Week 5 : Lecture 23 : Eigenvalues and Eigenvectors: Power Method (Construction)
  • session 24: Week 5 : Lecture 24 : Eigenvalues and Eigenvectors: Power Method (Convergence Theorem)
  • session 25: Week 5 : Lecture 25 : Eigenvalues and Eigenvectors: Gerschgorin's Theorem and Applications
  • session 26: Week 5 : Lecture 26 : Eigenvalues and Eigenvectors: Power Method (Inverse and Shifted Methods)
  • part 6: week-06
  • session 27: Week 6 : Lecture 27 : Nonlinear Equations: Overview
  • session 28: Week 6 : Lecture 28 : Nonlinear Equations: Bisection Method
  • session 29: Week 6 : Lecture 29 : Tutorial Session - 5: Implementation of Bisection Method
  • session 30: Week 6 : Lecture 30 : Nonlinear Equations: Regula-falsi and Secant Methods
  • session 31: Week 6 : Lecture 31 : Nonlinear Equations: Convergence Theorem of Secant Method
  • part 7: week-07
  • session 32: Week 7 : Lecture 32 : Nonlinear Equations: Newton-Raphson's method
  • session 33: Week 7 : Lecture 33 : Nonlinear Equations: Newton-Raphson's method (Convergence Theorem)
  • session 34: Week 7 : Lecture 34 : Nonlinear Equations: Fixed-point Iteration Methods
  • session 35: Lecture 35:Nonlinear Equations: Fixed-point Iteration Methods (Convergence)&Modified Newton's Method
  • session 36: Week 7 : Lecture 36 : Nonlinear Equations: System of Nonlinear Equations
  • part 8: week-08
  • session 37: Week 8 : Lecture 37 : Nonlinear Equations: Implementation of Newton-Raphson's Method as Python Code
  • session 38: Week 8 : Lecture 38 : Polynomial Interpolation: Existence and Uniqueness
  • session 39: Week 8 : Lecture 39 : Polynomial Interpolation: Lagrange and Newton Forms
  • session 40: Week 8 : Lecture 40 : Polynomial Interpolation: Newton’s Divided Difference Formula
  • session 41: Week 8 : Lecture 41 : Polynomial Interpolation: Mathematical Error in Interpolating Polynomial
  • part 9: week-09
  • session 42: Week 9 : Lecture 42 : Polynomial Interpolation: Arithmetic Error in Interpolating Polynomials
  • session 43: Week 9 : Lecture 43 : Polynomial Interpolation: Implementation of Lagrange Form as Python Code
  • session 44: Week 9 : Lecture 44: Polynomial Interpolation: Runge Phenomenon & Piecewise Polynomial Interpolation
  • session 45: Week 9 : Lecture 45 : Polynomial Interpolation: Hermite Interpolation
  • session 46: Week 9 : Lecture 46 : Polynomial Interpolation: Cubic Spline Interpolation
  • part 10: week-10
  • session 47: Week 10 : Lecture 47 : Polynomial Interpolation: Tutorial Session
  • session 48: Week 10 : Lecture 48 : Numerical Integration: Rectangle Rule
  • session 49: Week 10 : Lecture 49 : Numerical Integration: Trapezoidal Rule
  • session 50: Lecture 50 : Numerical Integration: Simpson's Rule
  • session 51: Week 10 : Lecture 51 : Numerical Integration: Gaussian Quadrature Rule
  • part 11: week-11
  • session 52: Week 11 : Lecture 52 : Numerical Integration: Tutorial Session
  • session 53: Week 11 : Lecture 53 : Numerical Differentiation: Primitive Finite Difference Formulae
  • session 54: Lecture 54 : Numerical Differentiation: Method of Undetermined Coefficients and Arithmetic Error
  • session 55: Week 11 : Lecture 55 : Numerical ODEs: Euler Methods
  • session 56: Week 11 : Lecture 56 : Numerical ODEs: Euler Methods (Error Analysis)
  • part 12: week-12
  • session 57: Week 12 : Lecture 57 : Numerical ODEs: Runge-Kutta Methods
  • session 58: Week 12 : Lecture 58 : Numerical ODEs: Modified Euler's Methods
  • session 59: Week 12 : Lecture 59 : Numerical ODEs: Multistep Methods
  • session 60: Week 12 : Lecture 60 : Numerical ODEs: Stability Analysis
  • session 61: Week 12 : Lecture 61 : Numerical ODEs: Two-point Boundary Value Problems
  • part 13: Live Session
  • session 62: Live Session 21-02-2024
  • session 63: Live Session 06-03-2025

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