Solves the spatial position of the membrane nodes through a linear system of equations, giving designers quick visual feedback on cable networks.
A major innovation in the 4000 series is the proprietary port and sealing technology.
In the realm of modern architecture and structural engineering, the demand for lightweight, aesthetically striking, and structurally sound buildings has grown exponentially. From iconic sports stadiums to intricate tensile canopies, these structures require specialized software to handle complex geometries and material behaviors. Among the industry-leading solutions, the stands out as a pioneering software, specifically developed for the form-finding and structural analysis of membrane structures. ixforten 4000
Form-finding is the process of defining an optimal spatial shape where the internal prestress forces of the fabric are in perfect equilibrium. Without proper form-finding, a membrane structure will wrinkle, sag, or fail prematurely under stress. ixForten 4000 utilizes multiple analytical algorithms to relax meshes into structurally viable shapes:
Think of ixForten 4000 as the "engineer's choice" for tensile structures. It was a highly specialized software platform used by architects, structural engineers, and fabricators worldwide to design, analyze, and pattern complex membrane and cable-net structures. Solves the spatial position of the membrane nodes
Adapts the calculations to represent physical materials more accurately, aligning the internal force vectors with the actual weave orientation of the textile.
is a highly specialized, foundational computer-aided engineering (CAE) and Finite Element Analysis (FEA) software environment explicitly developed for the professional design, shape form-finding, and structural analysis of tensile membrane structures . For over two decades, it served as an industry-standard specialized calculation engine for architects, tensile fabric engineers, and structural fabricators across the globe. From iconic sports stadiums to intricate tensile canopies,
A double-curved 3D surface cannot be flattened onto 2D rolls of material without distortion. The software converts these 3D geometries into optimized 2D panels ready for automated cutting plotters:
: Uses linear and non-linear Force Density Methods (FDM) to determine the optimal stable shape of a membrane under prestress.