Finite Element Analysis & Sizing
Our structural engineering division is tasked with ensuring safety, stability, and efficiency. We run rigorous computational simulations to test foundations, columns, beams, and slabs under extreme loads. Whether evaluating wind vortex vectors on high-rises or modeling non-linear seismic behavior on arch bridges, we design systems that exceed regulatory code requirements.
By linking finite element modeling (FEM) with architectural layout configurations, we optimize concrete and steel ratios. This data-driven sizing prevents over-reinforced zones, saving materials while maintaining absolute structural capacity limits.
Constructing localized volumetric discretization blocks and constraining joints against foundational anchors using advanced solid mesh equations.
Simulating high-velocity cross-wind profiles and dynamic shear stresses at variable architectural elevations to evaluate structural resonance.
Applying real-world earthquake acceleration waves to model stress responses and size optimal tuned mass dampers and bracing arrays.
Iteratively running design algorithms to optimize steel reinforcement ratios and reduce structural mass without compromising safety limits.
Our design tools combine industry FEA software with automated limit-state code checkers: