
Explore advanced classical mechanics concepts, including conservation laws, Lagrangian dynamics, and multi-particle systems, in this comprehensive graduate-level physics course.

This introductory course on Classical Mechanics covers the following topics: Euler Lagrange Equations, Small Oscillations, Central Force Problem, Rigid Body Motion.

Comprehensive exploration of analytical dynamics, covering Lagrangian mechanics and 3D rigid body motion. Extends knowledge beyond undergraduate level, focusing on deriving equations of motion and analyzing system behavior.

Explore advanced physics concepts, from equations of motion to Lagrangian mechanics, using mathematical language to develop authentic physicist thinking skills.

Explore phase portraits, bifurcations, and constraint forces in dynamical systems. Learn graphical methods, analyze system behavior changes, and understand Lagrangian mechanics with practical applications.

Explore Lagrange's equations for conservative and non-conservative forces, rigid body systems, and phase space analysis. Learn to solve and classify motions using advanced analytical dynamics techniques.

Comprehensive introduction to Lagrangian mechanics, covering generalized coordinates, constraints, and degrees of freedom. Explores holonomic and nonholonomic constraints, with examples including the intriguing shopping cart instability.

Explora los fundamentos y aplicaciones avanzadas de la mecánica clásica en este taller de investigación dirigido por el experto Santiago Chaves.

Explora los fundamentos y aplicaciones avanzadas de la mecánica clásica en este taller de investigación dirigido por el experto Santiago Chaves.

Explora los fundamentos y aplicaciones avanzadas de la mecánica clásica en este taller de investigación dirigido por el experto Santiago Chaves.

Explore LAGHOST, a Lagrangian high-order solver for tectonic simulations. Learn about its features, benchmarks, and applications in modeling geological processes like normal fault evolution.

Explore Emmy Noether's groundbreaking theorem linking symmetry and conservation in physics, explained by Brian Greene through accessible mathematics and engaging storytelling.

Explore Feynman's path integral formulation of quantum mechanics, understanding how classical mechanics emerges from quantum principles and the significance of the path of stationary action.

Explore 3-D spherical coordinates through a marble rolling in a bowl. Learn Lagrangian mechanics with interactive GlowScript and Jupyter examples in this engaging physics tutorial.

Explore spring pendulum dynamics using Jupyter, focusing on energy conservation and competing forces. Includes GlowScript and Jupyter implementations for rich phase space visualization.

Explore spring pendulum dynamics using GlowScript, examining energy conservation and competing forces through rich phase space views and Lagrangian mechanics.

Explore pendulum motion using Jupyter and Lagrangian mechanics. Create graphs to visualize equations of motion and gain insights into classical physics analysis.

Explore pendulum motion through experimental analysis and Lagrangian mechanics, uncovering surprising insights into classical physics principles.

Explore structure-preserving learning for high-dimensional Lagrangian and Hamiltonian systems, focusing on reduced-order models in mechanics, robotics, and wave propagation for enhanced stability and predictive accuracy.

Explore Lagrangian mechanics through a frictionless bead on a tilting wire, with Python modeling and visualization.

Solve the equation of motion for a half Atwood machine using Lagrangian mechanics, exploring advanced physics concepts.