✓Lesson Snapshot
Student Objective
I can explain how stored energy transforms into motion in a launch or mission system.
Main Activity
Analyze energy transfer in a glider launch, rubber-band launch, ramp launch, rover takeoff, or projectile system.
Deliverable
Energy transfer diagram
Tools / Materials
Notebook, calculator, example systems, graph paper
1ProblemUnderstand the challenge and why it matters.
Motion performance depends on how energy enters the system and how much is lost to friction, drag, impact, or vibration.
2ConceptLearn the engineering idea or skill.
Stored energy can convert into kinetic energy, gravitational potential energy, thermal energy, sound, or deformation. Not all input energy becomes useful motion.
3ApplyUse the skill in a guided task.
Create an energy transfer diagram for an aerospace motion system and identify useful energy output and energy losses.
4DocumentRecord your evidence and decisions.
Include labels for input, output, losses, and one design change that could improve efficiency or consistency.
5ReviewCheck quality and identify your next step.
Your diagram should show that motion is part of an energy system.
Lesson Resources
Use these files and shared website resources when they support today’s work.
Engineering Graph Paper
Use for graphs, calculations, motion diagrams, data displays, and design sketches.
Open ResourceMeasurement Data Sheet
Use for repeated trials, rover-distance data, timing data, accuracy measurements, and observations.
Open ResourceEngineering Resource Library
Templates, reference sheets, sketch paper, and course support files.
Open Resource