A kindergarten-level introduction to mice, covering their growth process, behaviors, the backyard habitats they call home, and such defining features as their hairless tails.

Have you always wanted to learn more about how roller coasters work? I’m not talking about the basic “roller coasters use gravity!” descriptions you’re used to. I’m talking about learning in-depth about the nitty gritty engineering details, like: How do roller coaster engineers know what size motor is needed to pull the train to the top of the lift hill and how much will it cost to operate it? What material are the wheels made out of and how does it affect the performance of the ride? What is the difference between LIM and LSM propulsion? How does the control system on a racing or dueling coaster time up the near collision moments perfectly every single time? All of these questions and more are answered in the latest edition of Coasters 101: An Engineer’s Guide to Roller Coaster Design. “I thought it was great. It was a good first look at roller coaster design. It also gave great information and details about roller coasters in general.” - Adrina from Goodreads “Thanks for writing a very good book. I could not put it down. Lot's of great information. I am a technology and engineering teacher and the information I found here is very helpful in trying to get students more excited about engineering.” -Amazon reviewer

Introduction -- The height requirement -- Secure your shoulder harness -- Fuel for the motor -- Filling your empty seats -- Riding in the front seat -- Picking up speed -- Hands in the air -- Smile for the camera -- Epilogue -- Final word -- Acknowledgements -- Additional resources.

Pearl and Pascal take their coding adventures to the amusement park in this follow-up picture book from our Girls Who Code program! Pearl and her trusty rust-proof robot, Pascal, are enjoying a day out at the amusement park. Spinning teacups, ice cream, and of course: rollercoasters! Through the use of code, Pearl and Pascal can keep track of their ride tokens and calculate when the line is short enough to get a spot on the biggest ride of them all--the Python Coaster. Variables, if-then-else sequences, and a hunt for a secret hidden code make this a humorous, code-tastic day at the amusement park!

People have been riding thrilling roller coasters since the 1800s. Gravity and kinetic energy make these rides exciting. But roller coasters aren’t just found at theme parks. Smaller versions can be made at home! Hills give energy to the car as it speeds along the track. Learn how to make a roller coaster by using materials such as plastic cups, marbles, and tape. Watch as your roller coaster zooms over hills and around loops!

Imagine someone gave you a sackful of money and told you to build a roller coaster. You'd definitely want it to be the best roller coaster in the world. But how do you go about designing THAT? Armed with your own imagination and some smart research, find out how you can transform a fantasy design into an actual dream product. You'll apply real-world design considerations to your ideas, refining your design to make it workable and achievable as it takes shape.

In this engaging title, young readers learn about different forms of energy! Different forms of energy such a potential and kinetic are explained, as are gravity, acceleration, velocity, g-forces, and centripetal force. These properties are illustrated by the design and operation of roller coasters. Colorful infographics make joules and shifting energy easily accessible, and prominent contributors such as LaMarcus Thompson are featured. A fun experiment with potential and kinetic energy brings the science of energy to life! Aligned to Common Core Standards and correlated to state standards. Checkerboard Library is an imprint of Abdo Publishing, a division of ABDO.