Abstract
We present our research efforts toward the deployment of 3-D sensing technology to an under-vehicle inspection robot. The 3-D sensing modality provides flexibility with ambient lighting and illumination in addition to the ease of visualization, mobility, and increased confidence toward inspection. We leverage laser-based range-imaging techniques to reconstruct the scene of interest and address various design challenges in the scene modeling pipeline. On these 3-D mesh models, we propose a curvature-based surface feature toward the interpretation of the reconstructed 3-D geometry. The curvature variation measure (CVM) that we define as the entropic measure of curvature quantifies surface complexity indicative of the information present in the surface. We are able to segment the digitized mesh models into smooth patches and represent the automotive scene as a graph network of patches. The CVM at the nodes of the graph describes the surface patch. We demonstrate the descriptiveness of the CVM on manufacturer CAD and laser scanned models.
| Original language | English |
|---|---|
| Article number | 033008 |
| Journal | Journal of Electronic Imaging |
| Volume | 15 |
| Issue number | 3 |
| DOIs | |
| State | Published - Jul 2006 |
| Externally published | Yes |
Funding
We would like to thank Umayal Chidambaram and Santosh Katwal for their time and effort in helping us with the data acquisition. This work was supported by the University Research Program in Robotics under grant DOE-DE-FG02- 86NE37968, by the DOD/RDECOM/NAC/ARC Program, R01-1344-18, by the U.S. Army under grant Army-W56HC2V-04-C-0044, and by FAA/NSSA Program, R01-1344-48/49.
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