This is a simulation for chemical kinetics and equilibrium including a simulation modeling the dependence of a one-way reaction as an introduction, a simulation showing chemical kinetics conversions, and a simulation showing chemical equilibrium conve . . .

This is a "drop and drag" activity that lets you discover the organization of the periodic table and observe periodic table trends.

This AIM resource is an exemplar tutorial on how to create accessible online tutorials. Utilizing Adobe Connect, this AIM offers a behind the scenes tour on how to create online tutorials while adhering to common accessibility practices. Essentially, . . .

This is a simulation for chemical kinetics and equilibrium including a simulation modeling the dependence of a one-way reaction as an introduction, a simulation showing chemical kinetics conversions, and a simulation showing chemical equilibrium conve . . .

This is a "drop and drag" activity that lets you discover the organization of the periodic table and observe periodic table trends.

This AIM resource is an exemplar tutorial on how to create accessible online tutorials. Utilizing Adobe Connect, this AIM offers a behind the scenes tour on how to create online tutorials while adhering to common accessibility practices. Essentially, . . .

This animation is very similar to the previous one. It allows you to explore Snell's law again, only now you can shine the laser beam from any direction you like. You are free to select the media for the upper and lower part of space from the drop-dow . . .

The eye is basically a hollow globe with a radius of a little less than an inch that is covered with a tough white coating, the sclera. Light rays entering the eye first go through the cornea, a transparent tissue, and the anterior chamber which is fi . . .

This is a collection of three animations detailing the concept of the magnifying glass.

Let's now construct the principal ray diagram for a concave, i.e., a diverging lens. The idea is the same as for the convex lens: we will consider how the three particular rays for which we know what happens are refracted by the concave lens: The ray . . .