✓Lesson Snapshot
Student Objective
I can explain how aerospace control systems use logic, feedback, sensors, and actuators to complete mission tasks.
Main Activity
Analyze rover, spacecraft, aircraft, and ground-support control examples, then preview the Unit 3 mission challenge.
Deliverable
Aerospace control system map
Tools / Materials
Notebook, website, example systems, VEX rover platform examples, VEX examples
1ProblemUnderstand the challenge and why it matters.
An aerospace system can only complete a mission if its controls are predictable, testable, and safe. A rover, payload bay, launch gate, or ground support system must coordinate commands, sensors, actuators, and feedback to produce the intended behavior.
2ConceptLearn the engineering idea or skill.
A control system includes inputs, processing logic, outputs, and feedback. Engineers use these parts to describe how a system senses conditions, makes decisions, and acts on the environment.
3ApplyUse the skill in a guided task.
Choose one aerospace system and identify its inputs, outputs, control decisions, sensors, actuators, and possible failure points.
4DocumentRecord your evidence and decisions.
Create a labeled system map titled “Autonomous Aerospace Systems.” Include at least one open-loop action and one possible feedback-based improvement.
5ReviewCheck quality and identify your next step.
Your map should show that control systems are engineered around decisions, not just motion.
Lesson Resources
Use these files and shared website resources when they support today’s work.
Engineering Graph Paper
Use for flowcharts, system diagrams, calculations, mission layouts, and design sketches.
Open ResourceMeasurement Data Sheet
Use for rover trials, actuator tests, timing data, accuracy measurements, and observations.
Open ResourceEngineering Resource Library
Templates, reference sheets, sketch paper, and course support files.
Open Resource