Make Science Come Alive!
Have you ever wondered: How does that work? Why did it do that? What would happen if I changed it? These are the questions asked by scientists as they explore the world around us. Here’s your chance to meet your inner scientist as you explore electricity and magnetism; light and optics; motion and mechanics; sound and resonance; and more.
![Bridge of Fire](https://greatscience.com/sites/default/files/E-Spot-Science%20Phenomena%20Exhibit2%20-%20Colored.jpg)
Bridge of Fire
Climb onto the Bridge of Fire and see your hair stand on end!
![Plasma Ball](https://greatscience.com/sites/default/files/E-Spot-Science%20Phenomena%20Exhibit6%20-%20Colored.jpg)
Plasma Ball
Use your fingertips to make light dance under a plasma ball.
![Strange Attractions](https://greatscience.com/sites/default/files/E-Spot-Science%20Phenomena%20Exhibit1%20-%20Colored.jpg)
Strange Attractions
The closer magnets are to each other, the the stronger the force between them! Can you manipulate the magnets and predict where the pendulum will go?
![Hexagon Marbles](https://greatscience.com/sites/default/files/E-Spot-Science%20Phenomena%20Exhibit3%20-%20Colored.jpg)
Hexagon Marbles
No matter how many times you try, the balls will alwyas settle to the bottom in a hexagonal pattern. Why is this?
![Elliptical Pool Table](https://greatscience.com/sites/default/files/E-Spot-Science%20Phenomena%20Exhibit4%20-%20Colored.jpg)
Elliptical Pool Table
Can you figure out why the ball almost always rolls to the same place? Hint - it has something to do with the shape of the table!
![Chaotic Pendulum](https://greatscience.com/sites/default/files/E-Spot-Science%20Phenomena%20Exhibit5%20-%20Colored.jpg)
Chaotic Pendulum
This pendulum has smaller pendulums attached to its arm. Each pendulum affects the motion of the others. The resulting motion is appears unpredictable - and it is!