Automated Translation of High Order Complex Geometry from a Cad Model into a Surface Based Combinatorial Geometry Format
a combinatorial geometry and automatic translation technology, applied in the field of computer implemented techniques for translating high-order complex geometry, can solve the problems of time-consuming and error-prone, laborious, and time-consuming to translate high-order complex geometry from computer aided design (cad) models to sbcg formats, and avoid human errors
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ProE CAD Model to TART Format
[0082] The exemplary process of FIG. 10 is one instantiation of a complete translation scheme to produce combinatorial geometry in TART format from ProE CAD part data. The first step is to extract from ProE (step 400) the IGES file (Part.igs) 402 representing the part geometry. This data includes the trimmed bounding surface data for the part. The ProMechanica package of ProE can be used to discretize the part and the space around the part (step 404). These two meshes are stored in ANSYS format as Part.ans 406 and Part-.ans 408 respectively.
[0083] The next step is to run the IGESread routine (step 410). This accepts as input the IGES file part.igs, and produces as output the boundary surface primitives for the part in file part.sur 412. The Ambisurf routine is executed (414) to compute the candidate ambiguity surface primitives. The output file Part.zsr 416 is a combined listing of boundary and ambiguity surface primitives.
[0084] The Midnode routine t...
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