Every now and then, we get projects that blend engineering challenge with creative problem-solving. The Cessna Pod, Bracket, and Jacket build was one of them — a 3D-printed model designed to hold electronics inside, made for a client’s school thesis.
The client came prepared with a detailed model, but there was one catch: it was too large for standard print beds. Instead of scaling it down and losing proportion, we took a more technical route — slicing the model into multiple sections for seamless printing and assembly.
Breaking It Down
To keep structural integrity while staying true to the original form, we divided the Cessna pod into print-friendly parts.
Each piece was printed in gray and white filament, chosen for their clean contrast and easy post-processing.
Cessna Pod: 16 hours and 19 minutes of print time
Bracket and Jacket: 2 days, 10 hours, and 5 minutes
Every section had to align perfectly once reassembled — a true test of precision printing and calibration.
Why It Matters
Projects like this show how 3D printing bridges design limitations. Even when models exceed printer dimensions, they can be reconstructed with smart segmentation and strong adhesion.
It’s not just about printing — it’s about engineering for assembly.
For FlareLab, this project reinforced what we love about the process: turning digital concepts into tangible, functional results — one carefully planned layer at a time.
Materials Used
Gray PLA+ Filament
White PLA+ Filament
Final Thoughts
The Cessna Pod, Bracket, and Jacket project highlights how collaboration, design adaptation, and reliable materials come together to make prototypes possible. Whether it’s for academic research or professional development, precise 3D printing brings every concept to life — detail by detail.