
Explore quantum mechanics through a 2D particle in a box, from theory to Python visualization. Master concepts like time dependence, normalization, and degeneracy with step-by-step explanations.

Explore numerical solutions for the hydrogen atom's radial Schrödinger equation using Python and the shooting method. Gain insights into quantum mechanics and computational physics.

Model free charges in a metal sphere using Python. Learn electric forces, momentum principles, Euler method, and Python coding for particle interactions and drag forces.

Explore frictionless ladder physics, determining the angle at which it loses wall contact using Euler method and ball-spring simulations in Python.

Explore Python modeling of the Tri-Solar Syzygy from "The 3 Body Problem," simulating stable orbits and planetary positions in a three-star system.

Derive the electric field of a charged rod using calculus and Python, enhancing understanding through numerical calculations.

Derive the electric field of a uniformly charged plate using charged ring principles. Explore parallel plate capacitors and Monte Carlo calculations.

Explore the physics of grappling hooks through differential equations and Python modeling, inspired by a commercial. Dive into challenges and potential solutions for simulating rope dynamics.

Explore the damped harmonic oscillator, including analytical and numerical solutions using Python, with practical examples and homework.

Explore the physics of the 3-body problem, its significance in "The Three-Body Problem" media, and learn computational methods to solve it.

Model wave pulses on strings using finite difference method and Python with Web VPython. Gain hands-on experience in computational physics and wave mechanics.

Explore Faraday's Law, Lenz's Law, and Maxwell's Equations. Understand inductors, transformers, and magnetic field energy density. Gain insights into electromagnetic principles and applications.

Explore key concepts of calculus-based physics, covering second semester topics from Matter and Interactions textbook in a concise overview.

Explore 2D kinematics: vectors, graphical representations, components, vector operations, and applications to motion, including projectiles and relative velocity.

Explore three approaches to solving a complex 4-mass oscillator problem: energy analysis, Python simulation, and Lagrangian mechanics using SymPy.

Explore electric potential and fields, from basic concepts to advanced applications like capacitors. Gain a comprehensive understanding of electrostatics and its practical implications.

Explore fundamental concepts of forces, motion, and Newton's laws. Learn to analyze interactions, measure forces, and understand key principles shaping classical mechanics.

Explore magnetism fundamentals: fields, forces, bar magnets, Earth's field, circular motion, Hall effect, EMF, wire interactions, coils, solenoids, and DC motors.

Explore circular motion, gravity, and related concepts like angular velocity, centripetal force, and Kepler's Laws. Gain insights into fundamental physics principles governing orbital mechanics and rotational dynamics.

Explore electromagnetic induction, Faraday's Law, and related concepts. Learn about electric generators, power production, and applications like transformers and RL circuits.

Explore fundamental concepts of work and energy in physics, including kinetic and potential energy, conservation laws, and practical applications.