
Simulate 2D collisions using Python and fake forces. Learn a simplified approach to modeling object interactions in programming.

Explore angular momentum principles, torque, cross products, and related concepts in physics through clear explanations and examples.

Explore Hamiltonian mechanics for projectile motion using polar coordinates, with Python code implementation for practical understanding.

Explore particle motion on a frictionless cylinder under external force using Hamilton's equations and Python simulation.

Analyze collisions between masses and rods using conservation of momentum and angular momentum principles. Develop problem-solving skills in physics.

Explore coupled oscillator normal modes using rotating vectors, with hands-on Python code for interactive learning and visualization.

Explore oscillation patterns of three masses connected by four springs in one dimension, including visual modeling techniques.

Explore oscillation normal modes using varying vectors, with code examples and animations to visualize complex physical concepts.

Explore weakly coupled oscillators, their behavior when normal mode frequencies are similar, and analyze the system using provided code and related concepts.

Model electric fields between parallel plates using Python and 20,000 points, avoiding calculus for a clear visualization.

Explore electric current, circuits, resistance, and power concepts. Master loop and junction rules, resistor configurations, and capacitor applications in electrical systems.

Solve four challenging Atwood machine problems to enhance your understanding of physics principles and problem-solving skills.

Derive the electric field for charged plates and parallel capacitors through step-by-step explanations and calculations.

Explore electromagnetic waves, Maxwell's equations, wave properties, spectrum, refraction, energy, light intensity, polarization, and Doppler effect.

Explore key concepts of light behavior including reflection, refraction, and mirror types. Learn to analyze light ray diagrams and understand optical phenomena.

Explore rotational dynamics, including kinetic energy, moment of inertia, torque, and angular momentum principles in physics.

Derive the center of mass using torque and equilibrium principles in physics. Gain insights into fundamental concepts of mechanics and force analysis.

Create an animated electromagnetic wave visualization using Web VPython, enhancing understanding of EM field behavior through interactive coding.

Analyze a viral video of a cop's high-speed slide exit, calculating final velocity and friction coefficient using physics principles.

Animate wave interference using phasors and Python, exploring amplitude addition through rotating vectors.

Solve the Schrödinger equation for a one-dimensional infinite square well, exploring quantum mechanics fundamentals and wave function behavior.