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MA5L017 Masters (Mathematics) · Generally offered: Autumn

Advanced Matrix Theory

L 3 T 0 P 0 Credits 3 Hours 3
Eigenvalues, eigenvectors and similarity, Unitary equivalence and normal matrices, Schur’s theorem, Spectral theorems for normal and Hermitian matrices; Jordan canonical form, Application of Jordan canonical form, Minimal polynomial, Companion matrices, Functions of matrices; Variational characterizations of eigenvalues of Hermitian matrices, Rayleigh-Ritz theorem, Courant-Fischer theorem, Weyl theorem, Cauchy interlacing theorem, Inertia and congruence, Sylvester's law of inertia; Matrix norms, Location and perturbation of eigenvalues Gerschgorin disk theorem; Positive semidefiniteness, Singular value decomposition, Polar decomposition, Schur and Kronecker products; Positive and nonnegative matrices, Irreducible nonnegative matrices.
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1 question tagged to this course

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Rank–nullity for infinite-dimensional spaces; where does it break?

The finite-dimensional proof leans on a basis argument. What's the right replacement when $V$ is not finite-dimensional?