Given the materials in the picture, design a mousetrap car that will carry the 200g (1) the greatest distance and (2) the fastest.
Timeline
21 May - Introduction / Research
23 May - Aint nobody here
27 May - Work
29 May - Work
31 May - Round 1 of Competition - Greatest Distance
Competition:
Round 1 - Greatest Distance
12 pts - 1 min video describing how your car is optimized for distance, using the physics principles described below.
12 pts - Distance competition
1st = 12 pts
2nd = 10 pts
3rd = 8 pts
4th-6th = 6 pts
Total Points WINS!!!
Objective: Students will understand and apply Newton's Laws of Motion to design and optimize their mousetrap cars. They will analyze the forces involved in starting, maintaining, and stopping the motion of the car.
Objective: Students will explore the concepts of energy transformation and conservation by analyzing the potential energy stored in the mousetrap and its conversion to kinetic energy to move the car.
Objective: Students will analyze the principles of rotational motion and the mechanics of the wheels to understand how they impact the car's movement and stability.
Objective 1: Design and Construct a Functional Mousetrap Car
Objective: Students will design and construct a functional mousetrap car using the given materials. They will apply principles of engineering design, including brainstorming, prototyping, testing, and iterating their designs to achieve optimal performance.
Objective 2: Optimize the Mousetrap Car for Distance and Speed
Objective: Students will optimize their mousetrap car for two different competitions: 1) to transport a 200g load over the greatest distance, and 2) to transport a 200g load 10meters in the shortest time. They will focus on improving the car's efficiency and performance through iterative testing and modifications.