Lectures related to Quantum Field Theory: Noether Currents and Lorentz Symmetry

Covers EM Field and Discrete Symmetries, emphasizing the importance of symmetries in quantum field theory.

Explores symmetries, conservation laws, and their role in physics.

Explores the dynamical consequences of symmetry, emphasizing conservation laws and the role of Noether currents.

Explores conservation laws and symmetries in physics, focusing on Lorentz invariance and its implications on energy and momentum.

Explores the Lorentz covariant formulation of Newtonian mechanics, including 4-vectors and relativistic Newton's second law.

Covers the transformation properties of vector fields and their representation in Lorentz tensors.

Covers Lorentz transformations, Maxwell equations, and charge conservation in Lorentz invariant physics.

Covers the conservation laws in plasma physics, highlighting entropy, energy, and momentum conservation.

Explores the Lorentz transformation in Quantum Theory, emphasizing Fock space representation and momentum concepts.

Covers the most general representation of Lorentz group on spinorial fields.

Explores conservation of momentum and kinetic energy in collisions, emphasizing the importance of understanding collision outcomes.

Explores momentum, impulse, work, energy, and angular momentum in advanced physics.

Explores Lorentz transformations, covariant tensors, rotational invariance, and linear transformations in vector spaces.

Introduces special and general relativity, Einstein equations, and gravitational dynamics.

Explores Einsteinian relativity, the Lorentz group, and Poincaré transformations, emphasizing proper and non-orthochronous components.

Covers the global conservation laws related to energy, momentum, and helicity.

Explores the connections between quantum and classical dynamics, focusing on conservation laws and quantum-classical relationships.

Explores the Hamiltonian formalism, conservation laws, preserved quantities, and differential equations in classical physics.

Covers the electromagnetic (EM) field in Quantum Field Theory II, discussing gauge transformations, symmetry principles, and field quantization.