Research and Conceptual Design
Initial knowledge: (Day 1)
Introduction to the physics of mousetrap cars: potential and kinetic energy, work, power, friction, torque, rotational motion, and basic kinematics.
Discuss the concept of mechanical advantage in linear and rotational systems.
Show examples of successful and unsuccessful mousetrap car designs, analyzing the principles at play. (You tube video)
Facilitate brainstorming sessions on different car designs, focusing on how to maximize energy transfer and minimize losses.
Activities: (Day 2-3)
Research: Students research existing mousetrap car designs, focusing on the relationship between lever arm length, wheel size, axle diameter, and performance. They should analyze the trade-offs involved in different designs.
Conceptual Design: Students individually or in small teams develop 2-3 initial design concepts, sketching their ideas and outlining the key features and materials they plan to use.
Mechanical Advantage Analysis (Initial): For each concept, students should analyze how they intend to leverage mechanical advantage to achieve the project goal.
Resources:
Online resources (videos, website, competition guidelines).
Physics textbooks covering energy, motion, and friction.
Examples of mousetraps and basic car components (wheels, axles, string, bushings).
Feedback: (Day 4)
Review of initial design concepts, providing feedback on feasibility, potential challenges, and the understanding of mechanical advantage principles.