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Quality & Testing · Prototype
ML for Engineering / Deep Learning on Geometry
3D defect detection on prototype scans
Live Core high effect
Core capability
The system helps teams find similar parts, detect geometric issues, and work more effectively with large 3D datasets used in inspection, reuse, and engineering search.
How it works
The system turns each 3D shape into a compact digital fingerprint, making it possible to quickly compare new parts or scans against large databases and identify matches, anomalies, or likely defects.
Application here
AI compares 3D scans of prototype parts against expected shapes and flags geometric deviations and surface defects.
Business impact
This catches deviations faster and more consistently than manual inspection, shortening prototype evaluation cycles.
Limitations
It needs good scan data and a well-labeled defect library. It can detect anomalies in geometry, but it cannot determine whether a deviation is functionally important.
In production
This is already useful for avoiding duplicate parts, speeding up inspection, and making large geometry libraries easier to search and reuse.
Research
The frontier is a more universal 3D intelligence layer that understands shape broadly enough to support many tasks with far less custom retraining for each new use case.
Examples
GOM (Zeiss) uses 3D scanning + deep learning for automatic defect detection on prototype parts: scan-to-CAD comparison identifies shape deviations down to 0.01 mm (GOM product documentation). Hexagon Manufacturing Intelligence offers a similar solution — .
https://www.zeiss.com/metrology/products/systems/optical-3d.html