Aerospace Component Requirements Review
Define the mission need, interfaces, criteria, constraints, process route, material plan, and inspection strategy for the capstone component.
Why This Matters
The capstone component is a lightweight UAV payload sensor mounting bracket or another teacher-approved non-flight-critical prototype. Teams must pass a requirements review before creating the final CAD model.
Aerospace Application Boundary
This component is an educational manufacturing prototype. It is not approved for installation on a crewed aircraft, operational aircraft, or flight-critical system. Any real aerospace application would require additional engineering analysis, material certification, process control, inspection, documentation, and regulatory approval.
Milestones
Mission and interface definition
Concept generation and process planning
Requirements review and approval
Learn Before You Build
Complete these steps in order. Record the requested notes or evidence before moving to the graded activity.
1. Review the capstone mission
Read the Aerospace Component Mission Brief and highlight the mission need, required interfaces, measurable requirements, and educational-prototype limitation.
2. Convert needs into requirements
Follow the teacher model for writing measurable requirements using a value, unit, tolerance or limit, verification method, and source.
3. Plan the manufacturing route
Use the manufacturing process map and process-selection matrix to define the path from stock to inspected component.
4. Prepare for a formal review
Organize evidence so another manufacturing team can determine whether the concept is ready for detailed CAD development.
Complete the Aerospace Component Requirements Review
- 1Write the mission statement and component function in language that clearly identifies the need, user, system, and intended outcome.
- 2Create a requirements table. Each requirement must be measurable and include a verification method.
- 3Create the interface-control sketch showing all mounting patterns, payload or sensor location, cable path, fastener access, clearances, and datums.
- 4Document criteria, constraints, assumptions, and non-flight-critical application boundaries.
- 5Select the approved material or compare the teacher-provided material options using mass, machinability, cost, and availability.
- 6Define the starting stock dimensions and calculate preliminary utilization, mass, and tolerance limits.
- 7Develop at least two concepts and label how each concept satisfies the required interfaces.
- 8Use a weighted decision matrix to select the concept that will proceed to detailed design.
- 9Create the preliminary manufacturing route, tool list, workholding concept, inspection plan, and estimated operation order.
- 10Complete a preliminary risk table covering design, CAM, setup, machining, inspection, and schedule risks.
- 11Prepare a concise requirements-review presentation with the mission, interfaces, requirements, concept comparison, process plan, calculations, risks, and requested approval.
- 12Record reviewer feedback and classify every item as accepted, revised, deferred, or rejected with a reason.
- 13Submit the revised requirements package and obtain the design-gate approval before Activity 4.3.1.
Stop and Verify Before Moving On
Gate 1 — Requirements ready
Requirements are measurable and each includes a verification method.
Gate 2 — Concept selected
Interfaces, calculations, decision matrix, and manufacturing route support the selected concept.
Gate 3 — Review closed
Feedback is resolved and the concept is approved for CAD.
Required Operating Habits
Before You Submit
What You Submit
Official References and Videos
Use these resources for learning and verification. Machine operation must still follow the classroom procedure and teacher direction.
NASA Advanced Manufacturing Career Context
Connect CNC programming, CAD/CAM, precision measurement, and advanced manufacturing careers to NASA systems.
NASA Armstrong Machine Shop
See how aerospace technicians connect CAD, CAM, CNC machining, fabrication, and inspection to produce flight-research hardware.
