Publications• Sorted by Date • Classified by Publication Type • Classified by Research Category • Maximizing the Probability of Arriving on Time: A Practical Q-Learning MethodZhiguang Cao, Hongliang Guo, Jie Zhang, Frans Oliehoek, and Ulrich Fastenrath. Maximizing the Probability of Arriving on Time: A Practical Q-Learning Method. In Proceedings of the Thirty-First AAAI Conference on Artificial Intelligence (AAAI), pp. 4481–4487, February 2017. DownloadAbstractThe stochastic shortest path problem is of crucial importancefor the development of sustainable transportation systems.Existing methods based on the probability tail model seekfor the path that maximizes the probability of arriving at thedestination before a deadline. However, they suffer from lowaccuracy and/or high computational cost. We design a novelQ-learning method where the converged Q-values have thepractical meaning as the actual probabilities of arriving ontime so as to improve accuracy. By further adopting dynamicneural networks to learn the value function, our method canscale well to large road networks with arbitrary deadlines.Experimental results on real road networks demonstrate thesignificant advantages of our method over other counterparts. BibTeX Entry@inproceedings{Cao17AAAI, title = {Maximizing the Probability of Arriving on Time: A Practical Q-Learning Method}, author = {Zhiguang Cao and Hongliang Guo and Jie Zhang and Frans Oliehoek and Ulrich Fastenrath}, booktitle = AAAI17, year = {2017}, month = feb, pages = {4481--4487}, url = {https://www.aaai.org/ocs/index.php/AAAI/AAAI17/paper/view/14308}, abstract = { The stochastic shortest path problem is of crucial importance for the development of sustainable transportation systems. Existing methods based on the probability tail model seek for the path that maximizes the probability of arriving at the destination before a deadline. However, they suffer from low accuracy and/or high computational cost. We design a novel Q-learning method where the converged Q-values have the practical meaning as the actual probabilities of arriving on time so as to improve accuracy. By further adopting dynamic neural networks to learn the value function, our method can scale well to large road networks with arbitrary deadlines. Experimental results on real road networks demonstrate the significant advantages of our method over other counterparts. } }
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