Lectures related to Galilean Transformation: Examples

Circular Motion: Uniform Circular Motion in a Train

Covers uniform circular motion, airplane dynamics, and Mars retrogradation.

Explains Galilean transformations, inertial reference frames, and Newton's first law of motion in classical mechanics.

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

Coordinate Systems: Spherical Coordinates

Explores spherical coordinates, trajectory equations, and circular motion in different reference frames.

Mechanics: Galilean Transformation

Explores the Galilean transformation, inertial reference frames, extensive and intensive quantities, and Newton's laws in mechanics.

Transformation of Speeds and Dynamics

Explores laws of transformation of speeds and dynamics in various frames of reference, including projectile deflection and Earth's dynamics.

Circular Motion: Reference Frames and Accelerations

Explores circular motion reference frames, accelerations, and trajectory equations.

Circular Motion in a Train: Mechanics

Explores circular motion in a train, discussing position, velocity, and acceleration in different frames of reference.

Newton's Laws: Motion Study

Explores motion study in different reference frames, focusing on Galileo's transformation and Newton's laws.

Projectile Motion: Free Fall

Explores free fall, projectile motion, Earth's rotation effects, and reference frames.

Uniform Rotation and Inertial Reference Frames

Covers examples of uniform rotation, inertial frames, forces in acceleration, and Newton's laws.

Rotational Motion in Cylindrical Coordinates

Explores rotational motion in cylindrical coordinates, constraints, and bonding forces in various scenarios.

Dynamics in Non-Inertial Frames: Coriolis Effect

Covers dynamics in non-inertial frames, focusing on the Coriolis effect and transformation of velocities and accelerations.

Inertial Forces and Reference Frames

Explores inertial forces, reference frames, Newton's laws, and apparent weight in an accelerated elevator.

Velocity and Acceleration in Cylindrical Coordinates

Explores velocity, acceleration, constraints, and harmonic oscillators in cylindrical coordinates and physics applications.

Circular motion: Concepts and Calculations

Explores circular motion concepts, centripetal force, velocity, and acceleration in different coordinate systems, with a focus on auto racing and Formula 1 tire physics.

Motion in Three Dimensions

Explores non-Cartesian coordinates, dynamics of a point particle, and motion in three dimensions.

Terrestrial Dynamics

Explores terrestrial dynamics, including laws of transformation, pendulum dynamics, and gravity field applications.

Principle of Relativity: Inertia Frames and Coordinate Transformations

Covers Galileo's principle of relativity, inertia frames, and Lorentz transformations in electromagnetism.

Coordinate Systems: Polar and Spherical

Covers polar and spherical coordinate systems, position vectors, equations of motion, and Frenet frame concepts.