Adaptive visual tracking system using artificial intelligence

Author(s):  
K. Kalirajan ◽  
M. Sudha ◽  
V. Rajeshkumar ◽  
S. Syed Jamaesha
Author(s):  
Muhammad Rizwan Khokher ◽  
L. Richard Little ◽  
Geoffrey N Tuck ◽  
Daniel V. Smith ◽  
Maoying Qiao ◽  
...  

Electronic monitoring (EM) is increasingly used to monitor catch and bycatch in wild capture fisheries. EM video data is still manually reviewed and adds to on-going management costs. Computer vision, machine learning, and artificial intelligence-based systems are seen to be the next step in automating EM data workflows. Here we show some of the obstacles we have confronted, and approaches taken as we develop a system to automatically identify and count target and bycatch species using cameras deployed to an industry vessel. A Convolutional Neural Network was trained to detect and classify target and bycatch species groups, and a visual tracking system was developed to produce counts. The multiclass detector achieved a mean Average Precision of 53.42%. Based on the detection results, the visual tracking system provided automatic fish counts for the test video data. Automatic counts were within two standard deviations of the manual counts for the target species, and most times for the bycatch species. Unlike other recent attempts, weather and lighting conditions were largely controlled by mounting cameras under cover.


2005 ◽  
Vol 37 (3) ◽  
pp. 453-463 ◽  
Author(s):  
Zia Khan ◽  
Rebecca A. Herman ◽  
Kim Wallen ◽  
Tucker Balch

2009 ◽  
Author(s):  
Zai Jian Jia ◽  
Tomás Bautista ◽  
Antonio Núñez ◽  
Cayetano Guerra ◽  
Mario Hernández

2020 ◽  
Vol 10 (21) ◽  
pp. 7780
Author(s):  
Dokyeong Kwon ◽  
Junseok Kwon

In this study, we present a novel tracking system, in which the tracking accuracy can be considerably enhanced by state prediction. Accordingly, we present a new Q-learning-based reinforcement method, augmented by Wang–Landau sampling. In the proposed method, reinforcement learning is used to predict a target configuration for the subsequent frame, while Wang–Landau sampler balances the exploitation and exploration degrees of the prediction. Our method can adapt to control the randomness of policy, using statistics on the number of visits in a particular state. Thus, our method considerably enhances conventional Q-learning algorithm performance, which also enhances visual tracking performance. Numerical results demonstrate that our method substantially outperforms other state-of-the-art visual trackers and runs in realtime because our method contains no complicated deep neural network architectures.


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