PHYS-314: Quantum physics II

Lectures in this course (79)

Covers the basics of time-dependent perturbation theory in quantum mechanics.

Explores time-dependent perturbation theory and path integrals in quantum mechanics.

Covers the continuation of path integrals, focusing on complex functions and their applications.

Explores the theory of representation of groups and the concept of complete reducibility.

Explores systems of multiple particles and the Hartree-Fock method in quantum mechanics.

Covers the Hartree-Fock method and second quantization in quantum mechanics for systems with multiple particles.

Explores second quantization in quantum mechanics, emphasizing creation and annihilation operators in Hilbert and Fock spaces.

Delves into second quantification in quantum mechanics and its applications in particle physics.

Covers the Bose-Hubbard model and density matrix formalism.

Covers the formalism of quantum density matrices and their applications in quantum mechanics.

Covers the basics of quantum information, communication, and computation, including quantum bits and algorithms.

Explores quantum teleportation, computation, and communication, focusing on qubits and quantum algorithms.

Covers the fundamentals of quantum information, communication, and computing, including qubits and quantum algorithms.

Explores Schur Lemmas, group representations, and stability properties in group theory.

Explores the application of Schur's Lemmas in physics, emphasizing operator properties and vector actions.

Explores orthogonality, irreducible representations, and symmetry properties in physics and group theory.

Explains orthogonality and characters in group representations, including equivalence classes and vector space dimensions.

Explores the concepts of orthogonality and characters in vector spaces.

Discusses Dirac's character and projectors in high-dimensional spaces with matrices and vectors.

Page 4 of 4