Superyacht Design / Naval Architecture
Naval Architecture
The structural engineering of hulls, decks, bulkheads, framing and supporting members, including load paths, strength, stiffness, fatigue considerations and rule-based scantlings.
The structural engineering of hulls, decks, bulkheads, framing and supporting members, including load paths, strength, stiffness, fatigue considerations and rule-based scantlings.
Guide
Finite element analysis allows naval architects to examine stresses, deformations and load paths in structural arrangements too complex for simple beam or plate formulas alone. Reliable FEA depends on appropriate idealisation, mesh quality, loads and engineering review.
Aug. 10, 2026
Guide
Classification scantlings convert design loads, material properties and structural geometry into required plate thicknesses and member sizes. Rule formulas, minimum dimensions, global strength checks and direct analysis work together during approval.
Aug. 10, 2026
Guide
Structural strength involves more than preventing material yield. Thin yacht plating and stiffeners can buckle, cyclic stresses can create fatigue cracks, and corrosion or stress concentrations can reduce the margins assumed in the original design.
Aug. 10, 2026
Guide
Yacht structures use plating supported by stiffeners, frames, girders and bulkheads to carry pressure and concentrated loads into larger structural systems. Member spacing, span, boundary conditions and connections determine how those load paths work.
Aug. 10, 2026
Guide
A yacht's hull acts globally as a beam while its plating, frames and internal structure carry local loads. Hull-girder strength connects weight and buoyancy distribution with shear force, bending moment, section modulus and structural stress.
Aug. 10, 2026