This is a collection of Flash animations to make learning physics easier! They were created by myself and my students Jacquie Hui Wan Ching and Heather Welch, and Michael Timmins and Aris Stylianopoulos, in the summer of 2003.
Newton's Mountain: Newton imagined shooting a cannonball horizontally from a mountaintop above the atmosphere. With sufficient speed, it would circle the Earth..
Pythagoras: prove Pythagoras' Theorem fast by moving triangles around with your mouse.
A short movie of the Moon moving through the Earth's shadow, and how it appears from Earth.
Actually a slightly simplified version, just illustrating the basic epicycle motion.
Again, just the basic epicycle idea.
Earth-Mars Line of Sight in Two Models.: Viewing the motion of Mars against the starry background, showing how the Ptolemy model and the Copernicus model predict the same direction, hence the same identical path through the Heavens. (We slightly simplify--taking both models in the circular orbit approximation, as portrayed in Copernicus' illustration.
Kepler's Laws: construct your own planetary orbits and check Kepler's Laws!
Galileo's "Compound Motion"Galileo realized that the motion of a projectile was a compound of constant speed horizontal motion and constant acceleration vertical motion -- we give an animation of his diagram.
Try your skill at shooting a probe from the Earth to a close encounter with the Red planet.
Jupiter Slingshot Find out for yourself how a gravitational boost from a moving planet can get you to the far reaches of the Solar System.
The Carnot engine in action! You can slow it down to see what's going on, and choose other values of pressure and volume to vary the cycle.
An animation of the beautiful experiment to detect the aether that found nothing.
A clock bouncing light between two mirrors is animated, to show vividly why taking the speed of light the same in all inertial frames leads inevitably to time dilation.
Basic Young's Experiment without bells and whistles.
An animation that builds up the two-slit interference pattern by adding the two waves sequentially for a series of points on the screen.
Two strings of different linear densities are joined, a wave pulse is sent towards the join, the reflection/transmission is demonstrated.
Phases of Venus An animation of Venus in orbit, with the sunlit portion of the surface viewed from different perspectives.
Text is available under the Creative Commons Attribution/Share-Alike License.