Evaluation of Camera Recognition Performance under Blockage Using Virtual Test Drive Toolchain
Author:
Son Sungho12ORCID, Lee Woongsu1, Jung Hyungi1, Lee Jungki1, Kim Charyung1, Lee Hyunwoo1ORCID, Park Hyungwon1, Lee Hyunmi3ORCID, Jang Jeongah3ORCID, Cho Sungwan4, Ryu Han-Cheol2ORCID
Affiliation:
1. Department of Future Vehicle Research, Korea Automobile Testing and Research Institute, Hwaseong 18247, Republic of Korea 2. Department of Artificial Intelligence Convergence, University of Sahmyook, Seoul 01795, Republic of Korea 3. TOD Based Transportation Research Center, University of Ajou, Suwon 16499, Republic of Korea 4. Department of Advanced Development, Techways, Yongin 16942, Republic of Korea
Abstract
This study is the first to develop technology to evaluate the object recognition performance of camera sensors, which are increasingly important in autonomous vehicles owing to their relatively low price, and to verify the efficiency of camera recognition algorithms in obstruction situations. To this end, the concentration and color of the blockage and the type and color of the object were set as major factors, with their effects on camera recognition performance analyzed using a camera simulator based on a virtual test drive toolkit. The results show that the blockage concentration has the largest impact on object recognition, followed in order by the object type, blockage color, and object color. As for the blockage color, black exhibited better recognition performance than gray and yellow. In addition, changes in the blockage color affected the recognition of object types, resulting in different responses to each object. Through this study, we propose a blockage-based camera recognition performance evaluation method using simulation, and we establish an algorithm evaluation environment for various manufacturers through an interface with an actual camera. By suggesting the necessity and timing of future camera lens cleaning, we provide manufacturers with technical measures to improve the cleaning timing and camera safety.
Funder
Korea Agency for Infrastructure Technology Advancement
Subject
Electrical and Electronic Engineering,Biochemistry,Instrumentation,Atomic and Molecular Physics, and Optics,Analytical Chemistry
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