
Derive motion equations for objects with velocity-proportional drag, excluding gravity. Includes numerical modeling and Python code for practical application.

Discover the optimal angle for maximum acceleration when pulling a sled, using physics principles and Python code to solve this real-world problem.

Analyze Simone Biles' jump height using video analysis techniques and explore the physics behind her impressive gymnastics performance.

Solve a physics problem involving a disk rolling down an incline, calculating its velocity using energy conservation and rotational motion principles.

Explore work-energy principles for accelerating vehicles, calculating internal energy changes, frictional forces, and static friction coefficients.

Explore yo-yo physics: calculate velocity, angular velocity, and motion duration using principles of mechanics and energy conservation.

Discover how to calculate maximum and minimum speeds for cars navigating banked turns with friction, building on previous car-turning concepts.

Explore the gravitational impact of Earth on an asteroid's momentum over time through a detailed physics problem analysis.

Learn to apply the quadratic formula for solving projectile motion problems, enhancing your physics problem-solving skills.

Analyze a viral video of DK Metcalf's incredible catch using physics principles and video tracking software to determine its authenticity.

Analyze the MythBusters rocket car's momentum, contact time, and forces during a ramp jump using physics principles and estimations.

Explore work-energy principles through an exciting blob jump scenario, calculating launch heights using conservation laws.

Solve a physics problem involving work, energy, and power for a skier climbing uphill, considering gravitational force and air resistance.

Analyze Boeing Starliner's launch acceleration using Vernier and Tracker video analysis tools, comparing results and techniques.

Learn vector addition through a practical hiking scenario, solving for displacement using component form or magnitude and direction.

Explore projectile motion and determine the optimal launch angle for maximum range using Python simulations and physics principles.

Solve a projectile motion problem involving a soccer ball's trajectory to determine its initial launch speed.

Calculate jump heights from hang times using physics principles. Explore the relationship between time in the air and vertical displacement.

Explore fundamental concepts of motion: position, velocity, acceleration, and kinematics equations. Gain insights into falling objects and practical applications.

Solve a physics problem involving colliding clay pendulum balls using conservation of energy and momentum principles.

Explore circular motion concepts including centripetal acceleration, angular kinematics, and rolling wheels. Gain insights into forces and motion in curved paths.