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📄 Abstract
Abstract: Computer-Aided Design (CAD) plays a foundational role in modern manufacturing
and product development, often requiring designers to modify or build upon
existing models. Converting 3D scans into parametric CAD representations--a
process known as CAD reverse engineering--remains a significant challenge due
to the high precision and structural complexity of CAD models. Existing deep
learning-based approaches typically fall into two categories: bottom-up,
geometry-driven methods, which often fail to produce fully parametric outputs,
and top-down strategies, which tend to overlook fine-grained geometric details.
Moreover, current methods neglect an essential aspect of CAD modeling:
sketch-level constraints. In this work, we introduce a novel approach to CAD
reverse engineering inspired by how human designers manually perform the task.
Our method leverages multi-plane cross-sections to extract 2D patterns and
capture fine parametric details more effectively. It enables the reconstruction
of detailed and editable CAD models, outperforming state-of-the-art methods
and, for the first time, incorporating sketch constraints directly into the
reconstruction process.
Authors (6)
Ahmet Serdar Karadeniz
Dimitrios Mallis
Danila Rukhovich
Kseniya Cherenkova
Anis Kacem
Djamila Aouada
Submitted
October 27, 2025
Key Contributions
MiCADangelo presents a novel approach to CAD reverse engineering that reconstructs constrained parametric CAD models from 3D scans. By leveraging multi-plane cross-sections to extract 2D patterns and capture fine parametric details, it overcomes limitations of existing methods that struggle with full parametric outputs or neglect sketch-level constraints, mimicking human design processes.
Business Value
Streamlines product development and modification by enabling efficient conversion of scanned physical objects into editable CAD models, reducing design time and costs.