Transform physical components into precision digital assets. We specialize in converting 3D scan data into fully parametric, high-fidelity CAD models for aerospace, automotive, and manufacturing.
Precision execution from cloud point to native CAD.
Reverse Engineering is essential for maintaining legacy systems and analyzing competitor products. When original blueprints are lost or parts become obsolete, our team uses advanced 3D scanning and metrology techniques to reconstruct exact digital replicas.
Our engineering experts go beyond simple copy-pasting. We analyze design intent, correct manufacturing defects, and optimize for modern production methods. Whether you need to repair legacy parts or foster innovation through competitive benchmarking, our engineering team delivers editable, high-precision CAD models ready for manufacturing.
Comprehensive solutions for your engineering challenges.
Restore obsolete components for which no digital data exists. We create manufacturing-ready drawings and models for spare parts production.
Enhance existing designs by identifying failure points. We utilize Finite Element Analysis (FEA) to propose geometric modifications that increase durability.
Deconstruct competitor products to understand their manufacturing techniques, material choices, and assembly methods to reduce your own development costs.
Convert raw STL mesh data into fully parametric, history-based 3D CAD models (SolidWorks, CATIA, NX). We provide native files and universal .STP formats suitable for modification and tooling.
Post-RE patent support using various CAD formats (.dwg, .step, .sldasm). We create precise technical illustrations and engineering drawings for patent applications.
Tangible representation of your digital models. We handle the entire process from STL/3MF generation to final post-processing and functional evaluation.
Class-A surfacing, vintage restoration, and aftermarket part design.
MRO (Maintenance, Repair, Overhaul) tooling, turbine blade analysis, and legacy fit-checks.
Replacement of broken gears, castings, and housings to minimize downtime.
Ergonomic fitting and replicating generic equipment components.
From concept to reality.
Understanding requirements, timeline, and execution plan.
Applying the DFM (Design for Manufacturability) strategy, we establish precise dimensions for sheet metal, including corner reliefs, bend angles, and radii, while raising RFIs for technical clarity.
Development of 3D solid models with comprehensive Bill of Materials (BOM) for sub-assemblies, validated through tolerance analysis and analytical tools (FEA/CFD).
Rigorous multi-stage inspection and dispatch of 3D models and 2D drawings incorporating detailed component drawings with proper GD&T annotations.