Lectures related to Inertial Equilibration: Inertial Invariance

Explores the calculation of moment of inertia for rotating objects using examples of wheels and discs.

Explores angular momentum, rotational dynamics, and moment of inertia for solids.

Explores rotational motion, moment of inertia, torque, and static equilibrium in rigid bodies.

Covers the determination of inertia tensor for rotating objects and the concept of non-principal axes.

Covers frames of reference in physics, emphasizing the importance of choosing a reference frame and the laws of physics in different frames.

Covers the falling of a bar and a physical pendulum, discussing forces, pivot points, equations of motion, and numerical resolution.

Explores kinematics and dynamics of rigid bodies, including Euler angles and transfer theorems.

Explores gyroscopic effects, solid dynamics, inertia tensors, and ball motion.

Covers rigid body rotation, moment of inertia, torque, and angular velocity.

Explains how external forces modify angular velocity and how to calculate moments of inertia for different shapes.

Explores kinematics and dynamics of rigid bodies, including Euler angles and moment of inertia.

Explores the dynamics of objects in motion through Newton's laws and their applications.

Covers rigid body mechanics, defining positions, velocities, and accelerations of solid points.

Explores inertia tensor, Euler equations, and angular momentum in rigid bodies, using practical examples like a dumbbell and a yoyo.

Explores inertia tensor, Euler equations, and angular momentum in rigid bodies.

Explains the inertia tensor, main axes, principal moments, and balancing of rotating solids.

Covers angular momentum, Kepler's laws, and conservation principles in rotational motion and planetary dynamics.

Covers the equations of Euler for the motion of a solid.

Explains rotational motion, moments of inertia, and theorems of König.

Delves into mechanics, exploring the symmetrical top problem, degrees of freedom, and conservation of energy.