Cover
Copyright
Table of Contents
Chapter 1
1.1 Vectors and Linear Combinations
1.2 Lengths and Dot Products
1.3 Matrices
Chapter 2
2.1 Vectors and Linear Equations
2.2 The Idea of Elimination
2.3 Elimination Using Matrices
2.4 Rules for Matrix Operations
2.5 Inverse Matrices
2.6 Elimination = Factorization: A = LU
2.7 Transposes and Permutations
Chapter 3
3.1 Spaces of Vectors
3.2 The Nullspace of A: Solving Ax= 0 and Rx=0
3.3 The Complete Solution to Ax = b
3.4 Independence, Basis and Dimension
3.5 Dimensions of the Four Subspaces
Chapter 4
4.1 Orthogonality of the Four Subspaces
4.2 Projections
4.3 Least Squares Approximations
4.4 Orthonormal Bases and Gram-Schmidt
Chapter 5
5.1 The Properties of Determinants
5.2 Permutations and Cofactors
5.3 Cramer's Rule, Inverses, and Volumes
Chapter 6
6.1 Introduction to Eigenvalues
6.2 Diagonalizing a Matrix
6.3 Systems of Differential Equations
6.4 Symmetric Matrices
6.5 Positive Definite Matrices
Chapter 7
7.1 Image Processing by Linear Algebra
7.2 Bases and Matrices in the SVD
7.3 Principal Component Analysis (PCA by the SVD)
7.4 The Geometry of the SVD
Chapter 8
8.1 The Idea of a Linear Transformation
8.2 The Matrix of a Linear Transformation
8.3 The Search for a Good Basis
Chapter 9
9.1 Complex Numbers
9.2 Hermitian and Unitary Matrices
9.3 The Fast Fourier Transform
Chapter 10
10.1 Graphs and Networks
10.2 Matrices in Engineering
10.3 Markov Matrices, Population, and Economics
10.4 Linear Programming
10.5 Fourier Series: Linear Algebra for Function
10.6 Computer Graphics
10.7 Linear Algebra for Cryptography
Chapter 11
11.1 Gaussian Elimination in Practice
11.2 Norms and Condition Numbers
11.3 Iterative Methods and Preconditioners
Chapter 12
12.1 Mean, Variance, and Probability
12.2 Covariance Matrices and Joint Probabilities
12.3 Multivariate Gaussian and Weighted Least Squares
MATRIX FACTORIZATIONS
Index
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B
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D
E
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