Physics Lecture: Force and Motion II - Chapter 6
Explore advanced concepts in force and motion, including friction, air drag, terminal velocity, and circular motion. Learn to model projectile motion with air drag using Python.
Moment of Inertia for a Ring About an Axis in the Plane of the Ring
Derive the moment of inertia for a ring rotating about an axis in its plane, with Python code implementation included.
Solving the Brachistochrone Problem with Random Numbers
Discover the fastest path for a frictionless bead using random numbers to solve the Brachistochrone problem in physics.
Finding the Path of Shortest Time for Three Different Velocities
Explore optimal path-finding across surfaces with varying travel speeds using Python and random number generation.
Orbital Motion in Polar Coordinates - Differential Equations and Numerical Solutions
Explore orbital motion using polar coordinates, deriving equations and implementing numerical calculations in Python to visualize and analyze celestial mechanics.
Sketching a Phase Space Plot for a Simple Harmonic Oscillator
Explore phase space plots for simple harmonic oscillators through hands-on coding and visualization techniques.
Classical Mechanics: Central Force Problem with Python - Problem 25
Solve a central force problem in classical mechanics using Python, focusing on effective potential, energy analysis, and trajectory plotting.
Physics Problem: Spacecraft Deflection due to an Asteroid
Explore spacecraft deflection by an asteroid using physics principles and Python code to calculate momentum changes.
Lagrangian Forces of Constraint - Will a Block Sliding Down a Parabola Ever Fall Off?
Explore the dynamics of a block sliding on an inverted parabola, analyzing forces and determining when it loses contact with the surface.
Using Average Velocity to Find the Future Position of a Puck - Python Bonus Included
Learn to calculate a puck's future position using average velocity, with a bonus Python implementation for predicting multiple positions.
Lagrange Multipliers: Force of Constraint for a Pendulum
Explore Lagrange Multipliers to determine pendulum constraint force, utilizing Python for numerical solutions and work-energy verification.
Review of Lagrangian Mechanics with Examples - Projectile Motion and Driven Spring Oscillation
Explore Lagrangian mechanics through projectile motion and driven spring oscillation examples, including numerical calculations and Python implementation.
Matter and Interactions: Interactions and Motion - Chapter 1
Explore fundamental physics concepts: Newton vs. Aristotle, vectors, motion, momentum. Learn to implement vectors in Python for practical applications.
Lagrangian Mechanics - Spring Mount Pendulum with Python and SymPy
Explore Lagrangian mechanics through a spring-mounted pendulum, deriving equations of motion and utilizing Python with sympy for analysis and visualization.
Lagrangian - Bead on a Driven Hoop vs. Bead on a Free Hoop
Explore the motion dynamics of beads on rotating hoops through Lagrangian mechanics, comparing driven and free rotation scenarios.
Lagrangian Mechanics: The Jiggle Pendulum
Explore Lagrangian mechanics through a unique oscillating pendulum model, using Python to simulate and analyze its motion.
Bead on a Spinning Wire Hoop: Lagrangian Mechanics
Explore Lagrangian mechanics through a bead on a spinning wire hoop problem. Learn coordinate systems, energy calculations, differential equations, and Python modeling.
Lagrangian Mechanics: Swinging Atwood Machine
Explore the motion of a swinging Atwood machine using Lagrangian mechanics and Python simulation.
Lagrangian Mechanics - Block on a Movable Wedge
Solve a complex physics problem using Lagrangian mechanics to analyze the motion of a frictionless mass on a movable wedge.
Plotting Damped Harmonic Oscillator with Initial Conditions
Explore damped harmonic oscillator plots with initial conditions, covering over-damped and under-damped scenarios. Gain insights into position vs. time and phase space representations.
Projectile Motion in Spherical Coordinates - Just Because It's Fun
Derive and model projectile motion using spherical coordinates, exploring acceleration vectors and implementing Python code for accurate simulations.