Covers the basics of statistical field theory, focusing on Ising models and the Ginsburg-Landau theory.
Explores Soft de Sitter Effective Theory, In-In perturbation theory, scalar fields, power counting interactions, and dynamical dimensional regularization.
Covers the Gupta-Bleuler quantization method in Quantum Field Theory, focusing on redundancy in the electromagnetic field and the recovery of Maxwell equations.
Covers the quantization of spin in Quantum Field Theory, focusing on induced representations and unitary irreps.
Covers the electromagnetic (EM) field in Quantum Field Theory II, discussing gauge transformations, symmetry principles, and field quantization.
Discusses the application of action principles in classical field theory, focusing on Lagrange and Hamiltonian formulations.
Explores analog-to-digital conversion, neural signal optimization, multichannel architectures, and on-chip compression techniques in neuroengineering.
