Math 2.0

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Matrix Computation and its applications HDXYBF0DMW

URIm2://res/HDXYBF0DMW
Kindcourse
CreatorsMani Mehra (instructor), Vivek Kumar Aggarwal (instructor)
Date2021-07-21
Scopein
Idscourse 049tgcd06:111102152

Expressions

e1: edition

Languageen
Date2021-07-21
Contents
  • part 1: Week 1
  • session 1: Binary Operation and Groups
  • session 2: Vector Spaces
  • session 3: Some Example of Vector Spaces
  • session 4: Some Example of Vector Spaces (contd.)
  • session 5: Subspace of a Vector Space
  • session 6: Spanning Set
  • part 2: Week 2
  • session 7: Properties of Subspace
  • session 8: Properties of Subspace (contd.)
  • session 9: Linearly independent and dependent vectors
  • session 10: Linearly independent and dependent vectors (contd.)
  • session 11: Properties of linearly independent and dependent vectors
  • session 12: Properties of linearly independent and dependent vectors (contd.)
  • part 3: Week 3
  • session 13: Basis and Dimension of a Vector Space
  • session 14: Examples of Basis and standard basis of a vector space
  • session 15: Linear Functions
  • session 16: Range space of a matrix and row reduced echelon form
  • session 17: Row equivalent matrices
  • session 18: Row equivalent matrices (contd.)
  • part 4: Week 4
  • session 19: Null Space of a Matrix
  • session 20: Four subspaces associated with a given matrix
  • session 21: Four subspaces associated with a given matrix (contd.)
  • session 22: Linear Independence of the rows and columns of a matrix
  • session 23: Application of diagonal dominant matrices
  • session 24: Application of Zero Null space: Interpolating polynomial and wronskian matrix
  • part 5: Week 5
  • session 25: Characterization of basis of a vector space and its subspaces
  • session 26: Coordinate of a vector with respect to ordered basis
  • session 27: Examples of different subspaces of a vector space of polynomials having degree less than or equal to 3
  • session 28: Linear transformation
  • session 29: Properties of linear transformation
  • session 30: Determining linear transformation on a vector space by its value on the basis element
  • part 6: Week 6
  • session 31: Range space and null space of a linear transformation
  • session 32: Rank and nuility of a linear transformation
  • session 33: Rank-nuility theorem
  • session 34: Application of rank-nuility theorem and inverse of a linear transformation
  • session 35: Matrix associated with linear transformation
  • session 36: Matrix representation of a linear transformation relative to ordered bases
  • part 7: Week 7
  • session 37: Matrix representation of a linear transformation relative to ordered bases (contd.)
  • session 38: Linear map associated with a matrix
  • session 39: Similar matrices and diagonalisation of matrix
  • session 40: Orthonormal bases of a vector space
  • part 8: Week 8
  • session 41: Gram-Schmidt orthogonalisation process
  • session 42: QR factorisation
  • session 43: Inner Product Spaces
  • session 44: Inner product on different real vector spaces and basis of complex vector space
  • part 9: Week 9
  • session 45: Inner product on complex vector spaces and Cauchy-Schwarz inequality
  • session 46: Norm of a vector
  • session 47: Matrix norm
  • session 48: Sensitivity analysis of a system of linear equations
  • part 10: Week 10
  • session 49: Orthogonality of the four subspaces associated with a Matrix
  • session 50: Best approximation : Least square method
  • session 51: Best approximation : Least square method (contd.)
  • session 52: Jordan-Canonical Form
  • part 11: Week 11
  • session 53: Some examples on the Jordan form of a given matrix and generalised eigenvectors
  • session 54: Singular value decomposition (SVD) theorem
  • session 55: Matlab / Octave code for solving SVD
  • part 12: Week 12
  • session 56: Pseudo-inverse/Moore-Penrose inverse
  • session 57: Householder transformation
  • session 58: Matlab/Octave code for Householder transformation

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