Creative Projects
08. Creative Projects — Aerospace Portfolio Development
James Kowalski, your creative project strategy should center on proving that you think and build like an aerospace engineer — combining analytical modeling, design iteration, and performance validation. The committee highlighted your potential for an independent aerospace design project and emphasized the importance of documenting your process rigorously. You have not provided details about existing technical projects, so this section outlines how to create one quickly and present it effectively before your application deadlines.
1. Core Project Theme — “Applied Aerospace Design”
Given your intended major in Aerospace Engineering and strong academic foundation (GPA 3.76, SAT 1450), your creative portfolio should show how you translate theory into design. You can choose one of the following focused builds — each feasible within a few weeks, using accessible software and materials:
- Propulsion Simulation: Build a simple numerical model of thrust generation for small-scale rocket or jet engines. Use Python or MATLAB to simulate nozzle efficiency, fuel burn rate, and thrust-to-weight ratio. The goal is not to produce hardware, but to demonstrate analytical depth through clean code and clear documentation.
- Drone Airframe Design: Use Fusion 360 or SolidWorks to model a lightweight quadcopter frame optimized for aerodynamic efficiency. Run basic CFD (Computational Fluid Dynamics) simulations to visualize airflow and drag reduction. Even without physical fabrication, digital validation is valuable.
- CAD Prototype for Micro-Satellite Component: Design a structural module (e.g., a payload bay or antenna deployment mechanism) for a CubeSat. Demonstrate how you would minimize mass while maintaining rigidity. Include stress analysis using built-in simulation tools.
Each of these projects aligns with the committee’s guidance: independent aerospace design, modeling, data analysis, and performance validation. Choose one as your anchor project — ideally the one you can complete and document before your first deadlines (University of Michigan EA or Purdue Regular).
2. Technical Stack and Tools
To ensure your project reflects genuine engineering depth, structure your workflow around professional-grade tools commonly used in aerospace design:
- CAD/Simulation: Fusion 360, SolidWorks, or Onshape for 3D modeling and stress analysis.
- Programming: Python with packages like NumPy, Matplotlib, and SciPy for propulsion or flight dynamics simulations.
- Data Visualization: Jupyter Notebook for documenting simulation results and design iterations.
- Version Control: GitHub for public documentation, version tracking, and technical write-ups.
Keep all code and design files organized under a single repository titled something like “AerospaceDesignPortfolio-JKowalski”. Include a README file explaining your rationale, methods, and key findings. Admissions reviewers appreciate clarity and reproducibility.
3. Documentation & Portfolio Presentation
The committee emphasized the importance of a small research or design portfolio documenting rationale, process, and results. Treat this as your digital engineering notebook. Include:
- Project Overview: One-page summary describing your goal, design constraints, and expected outcomes.
- Methodology: Screenshots or diagrams showing your simulation setup, equations used, and data collection methods.
- Results & Validation: Graphs or model outputs (e.g., thrust curves, stress maps, airflow visualizations). Add commentary explaining what the data means and how it validates your design.
- Iteration Log: Document how you refined the design — for instance, improving efficiency or reducing structural stress.
- Reflection: Conclude with what you learned about aerospace design principles, problem-solving, or trade-off analysis.
This portfolio can be hosted on GitHub, linked in your Common App or supplemental materials, and cited in your Purdue or Embry-Riddle application sections that invite technical evidence of interest.
4. GitHub Strategy — Building a Public Engineering Identity
GitHub is not just a code repository; it’s a professional showcase. Structure your profile to emphasize technical maturity and process transparency:
- Repository Layout: Create one main folder per project with subfolders for CAD files, code, and documentation.
- Commit History: Use meaningful commit messages (e.g., “Added CFD mesh refinement for drone wing” rather than “update”). This shows iterative thinking.
- README Depth: Include diagrams, equations, and data visualizations directly in Markdown format. Add links to any simulation videos or renderings.
- Version Tags: Label major milestones (v1.0 – initial concept, v2.0 – validated design). This gives reviewers a clear sense of progression.
- Documentation Folder: Store PDFs of your project reports, presentation slides, or summaries that could double as supplemental uploads.
Admissions officers at Purdue and Michigan often value applicants who demonstrate technical independence. A well-organized GitHub portfolio signals readiness for hands-on design courses and lab collaboration.
5. Deliverable Specifications — What You Should Have Before Deadlines
By the time you submit your applications, aim to have:
| Deliverable | Description | Purpose in Application |
|---|---|---|
| CAD Model or Simulation Code | Functional design or analysis demonstrating aerospace principles. | Shows technical proficiency and initiative. |
| Documentation PDF (2–3 pages) | Summarizes rationale, methods, data, and conclusions. | Serves as supplemental material or essay reference. |
| GitHub Repository Link | Publicly accessible with README and visuals. | Provides evidence of authentic engineering engagement. |
| Short Reflection Paragraph | Discusses what you learned and how it connects to aerospace studies. | Can be quoted in your essays (see §06 Essay Strategy). |
6. Monthly Action Plan — Rapid Execution Timeline
| Month | Key Actions | Target Outcomes |
|---|---|---|
| September |
|
Project framework and repository live. |
| October |
|
Working prototype or simulation validated by data. |
| November |
|
Portfolio complete and integrated into applications. |
7. Strategic Impact on Target Schools
Each of your target programs values hands-on technical engagement:
- Purdue University: Known for its experiential engineering education. Your project demonstrates readiness for design-build-test environments.
- University of Michigan: Strong emphasis on research and simulation. A propulsion or CFD-based project aligns perfectly with their aerospace labs.
- Embry-Riddle Aeronautical University: Prioritizes applied aerospace design. A drone or CubeSat prototype directly mirrors their project-based curriculum.
Because Michigan offers Early Action, consider submitting your EA application there — this timeline ensures your portfolio is complete by that deadline. You can then refine and extend the same materials for Purdue and Embry-Riddle regular submissions.
8. Final Recommendation
James, your creative project should not attempt to mimic large-scale research; instead, focus on clarity, documentation, and validation. Admissions readers respond to disciplined engineering thinking — not just ambition. A well-executed, modest aerospace design project with transparent modeling and results will distinguish you as a future problem-solver ready for rigorous design labs.
Keep every decision traceable, every assumption documented, and every result visualized. That precision — more than scale — will make your portfolio credible and memorable.