Students learn energy constantly transforms while total amount stays constant through conservation principles. Through solving energy transformation mysteries or analyzing rollercoaster ride physics, conducting experiments with marbles and ramps measuring energy at different heights calculating potential-to-kinetic conversions, and engineering marble run contraptions maximizing energy transfers or designing amusement park rides, students discover how position and motion relate to energy.
- Lesson 1

Solve: Energy In a Music Video + Roller Coaster Mystery
Engineers at Kinetic Kars can't figure out why their new roller coaster won't complete its track. Students follow Mosa as she runs experiments to solve the engineering puzzle, discovering how potential energy (stored at height) converts to kinetic energy (motion) and why mass and speed matter. By the end, they can explain the relationship between the two energy types and predict what it takes to keep a coaster moving.
- Lesson 2

Make: Design and Conduct an Energy Investigation
The Alleycats bowling team needs championship-level advice: what height should they release the ball from, and should they use a heavier ball? Students build marble ramps, systematically test different heights and marble masses, measure how far the marble knocks an index card, and graph their data. The conclusion? Height and mass both affect kinetic energy—but one matters way more than you'd think.
- Lesson 3

Engineer: Engineer a Custom Roller Coaster
Design a roller coaster that maximizes energy transfer and delivers a marble into a cup at the finish line. Students use foam pipe insulation to engineer tracks with at least one loop, one banked curve, and enough initial potential energy to complete the entire run. They test, troubleshoot, adjust heights, and present their final designs—discovering firsthand why roller coaster engineers obsess over every inch of track elevation.



