Lectures related to Energy–momentum relation

Explores the use of momentum in gradient descent to enhance speed and stability.

Explores momentum, impulse, and conservation principles in dynamic systems.

Analyzes Coulomb collisions between charged particles and the conservation of energy, momentum, and angular momentum.

Covers drag, momentum, and center of mass, emphasizing conservation laws and force applications.

Explores the two-fluid model in plasma physics, focusing on linearization and equilibrium conditions.

Explores drag, momentum, impulse, and center of mass, emphasizing the application of forces and the conservation of momentum.

Explores the quantum effective action, its role in perturbation theory, and the organization of correlators in momentum space.

Explores the wave-particle duality in quantum chemistry, covering interference phenomena and energy quantization.

Covers correlation functions in loop models and the role of degenerate fields in conformal field theory.

Explores momentum, work, energy, and angular momentum in physics fundamentals.

Covers the derivation of Einstein equations and the Schwarzschild metric.

Covers plasma resistivity, Coulomb collisions, and momentum equation in plasma.

Explores quantities of movement, impulse, work, energy, and momentum, including Newton's laws and technical equation solutions.

Explores wave-particle duality in quantum physics, covering interference, matter waves, and energy quantization.

Covers the definition of conservation laws and known laws related to momentum, energy, and helicity.

Discusses the properties of light waves and photons, focusing on their characteristics and applications in optical detectors.

Covers the fundamentals of rocket physics, including center of mass, momentum, and rocket speed.

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

Covers the equation of motion for a relativistic charged particle and Lorentz transformations, along with tensors and electrodynamics.

Covers spherical coordinates, friction forces, impulse, momentum, work, kinetic energy, and potential energy.