Abstract:
This research project aims to design and fabricate a 3D printed unmanned
surface vessel model, incorporating Fibre Reinforced Plastic (FRP) for
improved structural integrity. The methodology, outlined in a step-by-step
approach, begins with establishing mission requirements and conducting a
comprehensive literature search. Key stages include hull form development,
hydrostatic calculations, general arrangement, weight estimation, equilibrium,
stability analysis, fabrication techniques, 3D printing, assemble part, FRP
lamination, outfitting, watertightness test and surface finishing. The hull form
is tailored to meet mission requirements, with hydrostatic calculations ensuring
buoyancy and stability. Fabrication involves 3D printing of components and
reinforcement through FRP lamination. Surface finishing techniques, such as
sanding and coating, enhance the vessel's appearance. The final product
undergoes watertightness tests to validate its performance. The research
demonstrates the feasibility of integrating 3D printing and FRP lamination for
unmanned surface vessel fabrication. Driven by mission requirements and
informed by literature, the methodology provides a systematic approach.
Validated results confirm the model's performance and integrity, paving the
way for future advancements in unmanned surface vessel technology.
