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Math for Deep Learning
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Module 2
Matrix Decompositions for Model Analysis
1
Singular Value Decomposition and Eigenvalues
Derive the singular value decomposition (SVD) and relate singular values to the eigenvalues of Aáµ€A.
2
SVD for Matrix Analysis and Subspace Geometry
Apply SVD to analyze matrix properties like rank, condition number, and the geometry of the four fundamental subspaces.
3
Truncated SVD and LoRA for Neural Network Compression
Utilize truncated SVD for low-rank approximation and connect it to neural network compression techniques like LoRA.
4
Eigen-intuition: Decomposing Geometry and Loss Landscape Curvature
Interpret eigendecomposition geometrically and connect Hessian eigenvalues to the curvature of the loss landscape.
5
Spectral Theorem for Symmetric Matrices in Statistical Applications
Apply the spectral theorem to symmetric matrices arising as covariance matrices, kernel matrices, and the Fisher information matrix.
6
PCA: Variance Maximization and the Spectral Theorem
Derive Principal Component Analysis (PCA) from the spectral theorem on the covariance matrix and interpret components as variance-maximizing directions.
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Geometric Linear Algebra for Deep Learning
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Vector Calculus for Automatic Differentiation