An academic investigation into whether 3D printed materials can replicate the acoustic properties of traditional wooden violins — combining material testing, retopology, and custom test rig fabrication.
TypeHonors Thesis
RoleSolo Researcher
Output3 Printed Violins + Test Rig
ToolsBlender, FDM Printing, MATLAB
Hero image — all three printed violins
Replace with a photo of the three finished violins side by side
01 — Problem & Goal
Can 3D printing replace wood in acoustic instruments?
✏️ Write this section yourself
What drew you to this question? What gap in research or personal curiosity drove the thesis? What were your specific hypotheses — about stiffness, density, damping, resonance? What would it mean if it worked?
02 — My Role
How you approached it independently
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This was a solo thesis. Describe how you scoped the project, found your methodology, and managed it from start to finish. What mentorship or resources did you draw on? What decisions were fully yours to make?
03 — Process & Methods
Material testing, model prep, and iteration
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Walk through your process in stages: (1) material testing on printed samples — what properties did you measure and how? (2) retopology of the 3D model in Blender — what challenges did the geometry present? (3) how you iterated across three violin designs based on findings. Describe the impact hammer test rig you designed and built — how it works and what data it captured.
Violin 1
Violin 2
Violin 3
Replace with photos of each printed violin iteration
04 — Outcome & Results
What the data showed
✏️ Write this section yourself
What did the frequency response data reveal? How did the 3D printed violins compare to wooden ones acoustically? What correlations did you find between material properties and sound output? What were the limitations of your study and what future work would you recommend?
Frequency response graph / test rig photo
Material TestingAcoustic AnalysisBlender RetopologyFDM 3D PrintingImpact Hammer TestingMATLAB