Covers non-inertial reference frames, constraints, and continuous systems, including angular velocity, linear and rotational acceleration, and modeling of merry-go-rounds, ropes, and pulleys.
Explores ballistic motion in an accelerated frame, Coriolis force, Foucault pendulum, rotating frame equations, and Kepler's laws application.
Explains Galilean transformations, inertial reference frames, and Newton's first law of motion in classical mechanics.
Introduces Newton's laws of motion, covering force, mass, frames of reference, and practical examples like friction and springs.
Covers frames of reference in physics, emphasizing the importance of choosing a reference frame and the laws of physics in different frames.
