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Division of AI, Big data and Block chain
1. Journal Articles
Stereo vision-based vehicle detection using a road feature and disparity histogram
Lee, Chung-Hee
;
Lim, Young-Chul
;
Kwon, Soon
;
Lee, Jong-Hun
Division of Mobility Technology
Advanced Radar Tech. Lab
1. Journal Articles
Division of AI, Big data and Block chain
1. Journal Articles
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Title
Stereo vision-based vehicle detection using a road feature and disparity histogram
Issued Date
2011-02
Citation
Lee, Chung-Hee. (2011-02). Stereo vision-based vehicle detection using a road feature and disparity histogram. Optical Engineering, 50(2). doi: 10.1117/1.3535590
Type
Article
Author Keywords
vehicle detection
;
stereo vision
;
road feature extraction
;
disparity histogram
Keywords
Criteria Parameters
;
Depth Map
;
Disparity Histogram
;
Feature Extraction
;
Frequent Values
;
Graphic Methods
;
Gray Image
;
OBSTACLE
;
Obstacle Segmentation
;
Real Traffic
;
Recall Rate
;
Road Feature Extraction
;
Roads and Streets
;
Stereo Vision
;
SYSTem
;
TRACKING
;
Traffic Situations
;
Vehicle Detection
;
Vehicles
;
Vision-Based Vehicle Detection
ISSN
0091-3286
Abstract
This paper presents stereo vision-based vehicle detection approach on the road using a road feature and disparity histogram. It is not easy to detect only vehicles robustly on the road in various traffic situations, for example, a nonflat road or a multiple-obstacle situation. This paper focuses on the improvement of vehicle detection performance in various real traffic situations. The approach consists of three steps, namely obstacle localization, obstacle segmentation, and vehicle verification. First, we extract a road feature from v-disparity maps binarized using the most frequent values in each row and column, and adopt the extracted road feature as an obstacle criterion in column detection. However, many obstacles still coexist in each localized obstacle area. Thus, we divide the localized obstacle area into multiple obstacles using a disparity histogram and remerge the divided obstacles using four criteria parameters, namely the obstacle size, distance, and angle between the divided obstacles, and the difference of disparity values. Finally, we verify the vehicles using a depth map and gray image to improve the performance. We verify the performance of our proposed method by conducting experiments in various real traffic situations. The average recall rate of vehicle detection is 95.5%. © 2011 Society of Photo-Optical Instrumentation Engineers (SPIE).
URI
http://hdl.handle.net/20.500.11750/5397
DOI
10.1117/1.3535590
Publisher
SPIE
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