Student research opportunities
Image-Based Car Damage Detection (ICAR)
Project Code: CECS_666
This project is available at the following levels:
Engn4200, Honours, Masters
Keywords:
computer vision; image processing; pose estimation; 2D-3D registration; segmentation; interactive tool.
Supervisors:
Dr Stephen GouldProfessor Marcus Hutter
Outline:
Today experts judge car damages on-site and from photos. This is expensive, slow and subjective. A (semi)automatic estimation of the repair-costs is desirable. Under idealized conditions of normalized full-scale car images, a mapping and comparison of broken to unbroken cars would allow an automatic estimation of car body damages. Under real conditions, this is a very challenging task. The project aims at developing a (semi)automatic support for damage evaluation. It involves various hard computer vision [FP02] and image processing [GW07] problems: Full pose estimation by automatically registering a 3D model to high accuracy onto a single 2D photo from an uncalibrated camera in an unknown location and lighting condition [HB09,JHB10], segmenting a car into its panels, detecting damage on shiny panels that mirror the environment, and others.
Goals of this project
- integrate existing algorithms into one interactive tool
- develop and add (some smaller/feasible) additional functionality
- do extensive experimentation and testing and interpretation of results
- write a tutorial and a user manual
Requirements/Prerequisites
- excellent software development skills, in C(++)
- ideally experience with computer vision libraries and GUI toolkits
- good writing skills
Student Gain
- getting acquainted with modern computer vision algorithms
- handling a complete project from specification to implementation to testing to documentation
Background Literature
- [FP02] D. A. Forsyth and J. Ponce.
Computer Vision: A Modern Approach.
Prentice Hall, 2002.
- [GW07] R. C. Gonzalez and R. E. Woods.
Digital Image Processing.
Prentice Hall, 3rd edition, 2007.
- [HB09] M. Hutter and N. Brewer.
Matching 2-d ellipses to 3-d circles with application to vehicle pose estimation.
In Proc. 24th Conf. on Image and Vision Computing New Zealand (IVCNZ'09),
pages 153--158, Wellington, New Zealand, 2009. IEEE Xplore.


