Gravity Simulator - Poincare Maps in Phase Space - Episode 5
Explore Poincare maps in phase space plots with cool animations, enhancing understanding of gravitational systems through visual representations.
Gravity Simulator - Exploring Motion in Phase Space - Episode 4
Explore phase space plots in gravity simulations, offering deeper insights into system behavior beyond real-space animations. Includes VPython code examples and references to Stephen Hawking.
Traffic Light Dilemma - Exploring Physics with Code - Episode 2
Explore the physics behind the yellow light dilemma through coding. Learn to develop a program that simulates this common traffic scenario using VPython.
Drag Force Simulation Using VPython for Physics 1
Learn to simulate drag force using VPython, enhancing your understanding of physics concepts through interactive coding and visualization techniques.
Projectile Motion with Lift Force - Part 13
Explore advanced projectile motion by incorporating lift forces, enhancing 3D simulations with drag, wind, and realistic physics modeling using VPython.
Projectile Motion with Drag - Lecture 11
Explore projectile motion with drag forces, using VPython to simulate and visualize realistic trajectories in 3D, enhancing understanding of physics concepts.
Projectile Motion in Soccer Goal Scoring - Part 8
Explore projectile motion through soccer goal scoring, using VPython to simulate and analyze trajectories. Learn practical applications of physics in sports.
Projectile Motion - Shooting Over Walls and Into Pits
Explore projectile motion simulations involving walls and pits using VPython. Learn to code physics scenarios and visualize trajectories in this hands-on tutorial.
Projectile Motion - Simple Gravity Simulation
Explore the basics of projectile motion simulation using the Euler-Cromer method in VPython, focusing on simple gravity and its effects on object trajectories.
Drude Circuit 3 - Infinite Conga Line of Electrons
Explore current flow in a wrapped wire using a visual simulation, enhancing understanding of electron behavior in circuits through interactive coding and visualization.
Drude Circuit Simulation - Many Electrons
Explore electron behavior in circuits with a multi-electron simulation, enhancing understanding of electrical conductivity and current flow.
Drude Circuit Model - Resolving Contradictions Between Newton's Second Law and Ohm's Law
Explore the apparent contradiction between Newton's Second Law and Ohm's Law through coding, using the Euler-Cromer Method to simulate electron collisions in a Drude circuit model.
Roller Coasters in VPython - Energy Analysis and Simulation
Simulate roller coasters using VPython and energy analysis. Learn to create dynamic physics simulations and gain insights into roller coaster mechanics and energy principles.
Beyond Your Wildest Imagination - Van der Pol Oscillator - Lecture 5
Explore the van der Pol oscillator, a complex physics system beyond simple harmonic motion. Learn to apply oscillator tools to study non-linear systems and their fascinating behaviors.
Beyond Springs - Exploring Non-Linear Oscillations
Explore oscillating systems beyond Hooke's law using animation code. Discover complex behaviors in non-simple harmonic motion while applying familiar tools from simple harmonic oscillators.
Quantum and Classical Probability Distributions - Computational Quantum Mechanics Lecture 10
Explore the transition from quantum to classical mechanics through probability distributions, using computer animations to visualize quantum behaviors in VPython.
Harmonic Oscillator Potential in Quantum Mechanics - Lecture 8
Explore quantum behavior of harmonic oscillators through computer animations. Visualize spring force in the quantum world and learn to build coherent states using VPython.
Potential Wells and Barriers in Computational Quantum Mechanics - Lecture 7
Simulate quantum mechanics with VPython, visualizing electron behavior in potential wells and barriers through computer animations.
Calculating Expectation Values in Computational Quantum Mechanics - Lecture 6
Explore computational methods for calculating quantum expectation values, visualizing wave functions, and understanding the connection between quantum and classical mechanics.
Building Wave Functions with Fourier - Computational Quantum Mechanics Lecture 5
Learn to construct and deconstruct wave functions using Fourier's method in computational quantum mechanics. Visualize quantum behaviors through computer animations with VPython.
Measurement and Wave Function Collapse in Computational Quantum Mechanics - Part 3
Explore quantum measurement and wave function collapse through computer animations, visualizing the dramatic changes in a particle's state during measurement.