I can resolve launch velocity into components and describe how gravity changes each component.
Projectile Motion: Horizontal and Vertical Components
Focus question: How can one launch velocity be separated into independent horizontal and vertical motions?
Today’s Plan
A focused sequence that advances the mission-performance investigation.
What You Will Be Able to Do
Projectile component diagram and calculations
The component calculations use sine and cosine correctly and the top-of-flight explanation is physically accurate.
How the Lesson Moves
Each step builds the data, motion, or testing reasoning required for today’s deliverable.
1. Draw the velocity vector
Mark launch speed and angle.
2. Resolve components
Calculate horizontal and vertical initial velocity.
3. Follow the motion
Describe each component at launch, at the top, and during descent.
Resolve the Launch Velocity
Apply the lesson concept to a mission-performance scenario. Use the feedback to correct your reasoning before completing the main deliverable.
Launch Vector
Main Deliverable
Projectile component diagram and calculations
Create one focused engineering artifact that demonstrates today’s learning.
- Create a labeled component diagram and calculate initial vx and vy.
- Explain which component gravity changes in the ideal projectile model.
Mission Debrief
State the most important data-analysis or motion concept from today in your own words.
Name the measurement, calculation, graph feature, or test decision that supports your conclusion.
Identify one uncertainty, limitation, or next test that would strengthen the evidence.
Lesson Resources
Lesson 4.11 PowerPoint
Use the presentation to review the lesson concepts, examples, and activity directions.
Principles of Engineering
Return to the POE course hub for units, resources, certifications, and course information.
Mission Data Investigation
Use the integrated investigation context when connecting trial design, statistics, kinematics, graphs, and recommendations.
