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Traffic Sign Board Detection for Advanced Driver Assistance Systems and Autonomous Vehicles

Y. D. Chincholkar, Ayush Kumar

Abstract


The basic idea for the ADAS system to analyse live road situations with a camera which will be placed on the vehicle and a processing unit on board that will assist the driver while they are driving in different traffic conditions on the road to avoid accidents. As autonomous vehicles, such as Google’s ‘self-driving car has become more prominent recently because of the ability to detect and recognise informational road. A majority of existing approaches to traffic sign recognition separate the task into two phases designed to capitalize on these advantages The first phase, known as the “segmentation phase,” determines which regions of an image are likely to yield traffic signs, and the second phase is known as the “classification phase,” determines what kind of sign (if any) is contained in this region. Here, we describe a new approach to the “segmentation” phase. This paper shows a programmed street sign detection and acknowledgment framework that depends on a computational model of human visual acknowledgment handling. The tangible analyser removes the spatial and worldly data of enthusiasm from video arrangements. The removed limit data at that point fills in as the contribution to region Analyzer, which at that point looks for specific shapes in the picture. Later these recognized items are encouraged into a neural system. Potential highlights of street signs are then removed from the question regions comparing to the concentrations, and the neural system perceived activity signs and recognized sign board is shown to the driver.


Keywords


ADAS (Advanced Driver Assistance Systems), CNN (Convolutional Neural Network), Real-Time Image Processing, Autonomous Vehicle

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References


Zhihui Zheng, Hanxizi, Bo Wang and Zhifeng Gao, “Robust Traffic Sign Recognition and tracking for Advanced Driver Assistance Systems,” in 15th International IEEE Conference on Intelligent Transportation System Anchorage, Alaska, USA, September 16-19,2012, pp.704-709.

Seokwoo Jung, Unghui Lee, Jiwon Jung and David Hyunchul, “Real-Time Traffic Sign Recognition System with Deep Convolutional Neural Network,” in 13th International Conference on Robotics and Ambient Intelligence (URAI) August 19-22,2016 at Sofitel Xian Renmin Xian, China, pp.31-34.

Rafael C. Gonazalez, Richard E. Woods, Digital Image Processing, 2Nd Edition; Pearson education, 2004.

F. Moutarde, A. Bargeton, A. Herbin and L. Chanussot (2007). “Modular traffic signs recognition applied to on-vehicle-time visual detection of American and European speed limit signs. “ In IEEE Intelligent Vehicles Symposium Proc., pp. 1122-1126, Istanbul (Turkey).

Angela Tam, Hua Shen, Liu and Xiaoou Tang (2003). “Quadrilateral signboard detection and text extraction”. CISST, pp. 708-713.

N. Barnes and G. Loy (2004). “Fast shape-based road sign detection for a driver assistance system. Intelligent Robots and systems”, pp. 70-75, vol. 1 Stockholm, Sweden.

N. Barnes and A. Zelinsky (2004). “Real-time radial symmetry for speed sign detection”. In IEEE Intelligent Vehicles Symposium (IV), pp. 566–571Parma, Italy.

M. K. Hu (1962). “Visual pattern recognition by moment invariants”. IRE Trans. Information Theory, volume 8, issue 2, pp. 179-187

F. Zernike, Physica, Vol. 1. P. 689, 1934.

Juan J. Rodriguez, Cesar Garcia-osorio and Jesus Maudes (2008). “License plate number recognition – New Heuristics and a Comparative Study of Classifiers”. International Conference on Informatics in Control, Automation and Robotics – ICINCO, pp. 268-273 Automation and Robotics – ICINCO, pp. 268-273.

Hsien-Chu WU, Chwei-Shyong TSAI, and Ching-Hao LAI (2004). “A License Plate Recognition System in E-Government. Information and Security”. An International Journal, Vol. 15, No. 2, pp. 199-210.

F. Martín, M. García, J. L. Alba, (Jun. 2002). “New Methods for Automatic Reading of VLP's (Vehicle License Plates)”. IASTED International Conference Signal Processing, Pattern Recognition, and Applications.

K.K.Kim K.I.Kim J.B.Kim H. J.Kim (2000). “Learning-Based Approach, for License Plate Recognition”. In Proc. IEEE Signal Processing Society Workshop, Neural Networks for Signal Processing, Volume 2, pp. 614 - 623.

P. Comelli, P. Ferragina, M.N. Granieri, F. Stabile (1995). “Optical recognition of motor vehicle license plates”. IEEE Trans. On Vehicular Technology, volume 44, No. 4, pp. 790-799.

Yo-Ping Huang, Shi-Yong Lai and Wei-Po Chuang (2004). “A Template-Based Model for License Plate Recognition”. In Proc. IEEE Int. Conf. on Networking, Sensing & Control, pp. 737-742.

Tran Duc Duan, Tran Le Hong Du, Tran Vinh Phuoc, Nguyen Viet Hoang (2005). “Building an Automatic Vehicle License-Plate Recognition System”. In Proc. Intl. Conf. in Computer Science (RIVF), pp. 59-63.

A. Broumandnia, M. Fathy (Dec. 2005). “Application of pattern recognition for Farsi license plate recognition”. ICGST International Conference on Graphics, Vision and Image Processing (GVIP-05).

Shyang-Lih Chang, Li-Shien Chen, Yun-Chung Chung, and Sei-Wan Chen (2004). “Automatic License Plate Recognition. IEEE Trans. on Intelligent Transportation Systems”, Volume 5, No. 1, pp. 42-53.

J. R. Parker and Pavol Federl (1995). “An approach to license plate recognition”. Laboratory for Computer Vision, Computer Graphics Laboratory, University of Calgary.




DOI: http://dx.doi.org/10.36039/AA062018004.

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