Collect useful data
Plan repeatable tests with variables, controlled conditions, measurement tools, and enough trials to support a claim.
POE Unit 4
Use repeated trials, graphs, statistics, and kinematics to explain how aerospace systems move and perform.
Unit Purpose
Unit 4 focuses on using data to understand motion and defend engineering decisions.
Plan repeatable tests with variables, controlled conditions, measurement tools, and enough trials to support a claim.
Use graphs, central tendency, variation, probability, speed, acceleration, and projectile calculations to explain what happened.
Turn measurements into conclusions about reliability, consistency, accuracy, and possible design improvements.
Daily Lesson Map
Each lesson builds toward a data-supported aerospace motion investigation.
| Lesson | Title | Your Objective | Deliverable | Page |
|---|---|---|---|---|
| 4.1 | Unit Launch: Mission Performance and Test Data | I can distinguish weak observations from repeatable evidence in an aerospace performance investigation. | Mission performance evidence map | Open Lesson PowerPoint |
| 4.2 | Variables, Measurement, and Trial Design | I can identify independent, dependent, and controlled variables and select enough trials for a useful test. | Controlled launch-test plan | Open Lesson PowerPoint |
| 4.3 | Probability and Reliability in Aerospace Testing | I can calculate empirical success and failure probabilities from repeated tests and interpret risk. | Reliability calculation and risk statement | Open Lesson PowerPoint |
| 4.4 | Frequency Distributions and Histograms | I can sort numerical mission data into intervals and describe the shape of a histogram. | Frequency table and histogram | Open Lesson PowerPoint |
| 4.5 | Mean, Median, Mode, and Range | I can calculate mean, median, mode, and range and choose the statistic that best supports a question. | Central tendency calculation sheet | Open Lesson PowerPoint |
| 4.6 | Standard Deviation and Design Consistency | I can compare the variation of two designs and connect lower standard deviation to greater consistency. | Consistency comparison using standard deviation | Open Lesson PowerPoint |
| 4.7 | Data Displays and Engineering Claims | I can select a graph type, assign variables to axes, and write a claim supported by the displayed data. | Graph and claim-evidence-reasoning response | Open Lesson PowerPoint |
| 4.8 | Distance, Displacement, Speed, and Velocity | I can distinguish scalar and vector motion quantities and calculate average speed and velocity. | Motion quantities practice set | Open Lesson PowerPoint |
| 4.9 | Acceleration and Motion Graphs | I can calculate acceleration and connect it to the shapes and slopes of motion graphs. | Motion graph analysis | Open Lesson PowerPoint |
| 4.10 | Free Fall and Gravity Drop Testing | I can use height and time data to estimate g and calculate percent error. | Free-fall calculation and error analysis | Open Lesson PowerPoint |
| 4.11 | Projectile Motion: Horizontal and Vertical Components | I can resolve launch velocity into components and describe how gravity changes each component. | Projectile component diagram and calculations | Open Lesson PowerPoint |
| 4.12 | Launch Angle, Range, and Mission Requirements | I can use projectile patterns to select a launch condition and explain tradeoffs in accuracy and range. | Launch-angle prediction table | Open Lesson PowerPoint |
| 4.13 | Energy Transfer in Launch and Mission Systems | I can trace energy storage, transfer, transformation, and dissipation through a mission system. | Energy transfer diagram | Open Lesson PowerPoint |
| 4.14 | Design Brief: Mission Data Investigation | I can classify criteria, constraints, functional requirements, evidence, and deliverables in the Unit 4 brief. | Problem statement and investigation plan | Open Lesson PowerPoint |
| 4.15 | Test Plan and Prediction Development | I can sequence a test procedure, define a data table, and make a justified prediction. | Test plan, data table, and prediction | Open Lesson PowerPoint |
| 4.16 | Build, Setup, and Calibration Workday | I can identify measurement offset, apply a correction, and decide whether equipment is ready for testing. | Setup evidence and calibration record | Open Lesson PowerPoint |
| 4.17 | Mission Testing, Data Collection, and Iteration | I can calculate early performance statistics and use them to decide whether a revision improves consistency. | Official test data and iteration record | Open Lesson PowerPoint |
| 4.18 | Final Data Analysis and Performance Review | I can synthesize investigation evidence into a qualified design recommendation. | Final mission-performance review | Open Lesson PowerPoint |