Lectures related to Linear Algebra: Quantum Mechanics

Explores basis transformation, eigenvalues, and linear operators in inner product spaces, emphasizing their significance in Quantum Mechanics.

Explores the application of linear algebra in Quantum Mechanics, emphasizing its importance in understanding materials properties.

Explores vector spaces, linear transformations, matrices, eigenvalues, inner products, and operators.

Explores the matrix representation of operators and basis transformation in linear algebra.

Covers the application of linear algebra concepts to Quantum Mechanics, including spectral theorem and Brillouin zone.

Covers diagonalization of matrices, eigenvectors, linear maps, and least squares method.

Covers orthogonality, scalar products, orthogonal bases, and vector projection in detail.

Explores matrix operations, linear systems, solutions, and the span of vectors in linear algebra.

Covers the properties and operations of vector spaces, including addition and scalar multiplication.

Covers fundamental concepts in linear algebra, including linear equations, matrix operations, determinants, and vector spaces.

Covers fundamental concepts in quantum mechanics, including vector spaces, superposition, observables, and inner product.

Explores characteristic polynomials, similarity of matrices, and eigenvalues in linear transformations.

Covers linear independence, bases, and coordinate systems with examples and theorems.

Covers Dirac's notation in linear algebra and the tensor product concept in Hilbert spaces.

Covers the representation of signals in vector spaces and inner product spaces, including the Projection Theorem.

Covers determining vector spaces, calculating kernels and images, defining bases, and discussing subspaces and vector spaces.

Explains the diagonalization of linear transformations using eigenvectors and eigenvalues to form a diagonal matrix.

Explores matrices, change of bases, eigenvectors, eigenvalues, and vector spaces.

Covers electronic structure calculations using quantum mechanics and introduces fundamental concepts in computational quantum chemistry.

Explains linear independence, bases, and dimension in vector spaces, including the importance of the order of vectors in a basis.