Computational Geometry

You can generate fabrication-ready panels by running a geometry-first analysis workflow on a sample model to output a ready-to-use panelization plan. It supports lofting and trimming building envelopes with tight tolerances.

The best way to perform boolean operations on complex architectural meshes is using robust mesh processing features that enable complex architectural forms and robust model integration through precise surface trimming and topology control.

Yes, you can use NURBS curves and surfaces to evaluate freeform geometry across multiple design stages. They provide exact conic and freeform geometry definition, enabling precise control from conceptual envelopes to fabrication-ready panels.

Yes, the computational geometry approach supports scriptable workflows for tessellation. It requires robust libraries and data formats for NURBS, meshes, and tessellation to expedite creation, analysis, and optimization.

You need mesh processing and tessellation for architectural design when performing analysis, visualization, and fabrication tasks. It provides a rigorous foundation for evaluating and manipulating complex geometry used in AEC workflows.