Lectures related to H-dropping

Explores examples of absorbing chains in discrete-time Markov chains, focusing on transition probabilities.

Covers quantum eigenfunctions and the importance of A and B commuting for the same set of eigenfunctions.

Covers momentum, energy, and angular momentum in various scenarios.

Covers the Runge-Kutta method for approximating solutions of differential equations.

Covers the theory of time-independent perturbations and the harmonic oscillator.

Covers the fundamentals of quantum physics, focusing on Hamiltonians, Schrödinger's equation, and magnetic resonance.

Covers the quantization of energy levels in quantum chemistry.

Covers the analysis of continuous-time stochastic processes in the context of linear systems.

Explores momentum, energy, and angular momentum through practical examples.

Explores the joint equidistribution of CM points and their properties in ergodic theory and homogeneous dynamics.

Covers perturbation theory for time-independent cases, explaining non-degenerate scenarios and energy level perturbations.

Explores the physics of bungee jumping, focusing on energy conservation and impulse.

Explores quantum mechanics, emphasizing particles, interactions, spin, and wave functions.

Explores the definition and properties of derivatives, including slopes of tangent lines and differentiability conditions.

Explores quantum mechanics through observables, eigenvalues, and operators.

Explores Conformal Transformations, emphasizing scale transformations and correlation functions.

Explores smooth manifolds through diffeomorphisms and embedded submanifolds in a linear space.

Explores pairwise independence in hashing to avoid collisions and achieve load balancing.

Explores oscillations, equilibrium, forces, resonance, and conservation of energy in mechanical systems.

Explores the Poincaré - Friedrichs theorem and kernel inequality in constant conditions and boundary uniqueness.