International Conference on Artificial Intelligence and Smart Vehicle(ICAISV)
24 & 25 May 2023, Amirkabir University of Technology, Tehran, lran
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Maryam Esmaeili*�Dr. Ehsan Nazerfard*�*Department of Computer Engineering, Amirkabir University of Technology, Tehran, Iran
Paper ID:1625
Presenter:Maryam Esmaeili
Maryam Esmaeili*1
, Ehsan Nazerfard1
1 Department of Computer Engineering, Amirkabir University of Technology, Tehran, Iran,
Routes analysis and dependency detection based on traffic volume: a deep learning approach
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Introduction
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Introduction
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Introduction
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Introduction
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Introduction
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Related work
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Related work
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Innovation
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Proposed Model
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Proposed Model
map matching
Map matching
section
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Proposed Model
obtaining the traffic volume as a percentage between the routes
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Proposed Model
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Proposed Model
Forecasting the next routes using deep learning
An example of a time series of routes considered as an input and output to deep learning is:
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Proposed Model
Proposed Model
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Proposed Model
Proposed Model
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Experiments and Results
Selected area for the case study of the proposed method
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EXPERIMENTS AND RESULTS
a) Minkowski distance
b) Manhattan distance
c) Euclidean distance
Distance matrices calculated for the current state of the roadmap
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EXPERIMENTS AND RESULTS
a) Minkowski distance
b) Manhattan distance
c) Euclidean distance
Distance matrices calculated for the future state of the roadmap
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Schematic view of CNN layers
Schematic view of LSTM layers
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EXPERIMENTS AND RESULTS
a) Minkowski distance
b) Manhattan distance
c) Euclidean distance
Result of calculating the correlation coefficient based on distance matrices
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LSTM model loss
LSTM model accuracy = 0.9300860583782196
Comparing CNN and LSTM models
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C) CNN model loss
) CNN model accuracy = 0.9113683295249939
Comparing CNN and LSTM models
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Conclusion
an innovative method was presented in which the GPS data were used to prepare a data source to display routes, nodes, their relationship, and the volume of route traffic.
The data source obtained for traffic volume was converted into a distance matrix, indicating the difference between the routes and the traffic volume.
Using DL algorithms, the distance matrix was achieved for the future state. LSTM and CNN predicted the motion states of moving objects in the future.
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Both algorithms' loss and accuracy metrics were obtained with the time series along the routes.
Finally, the correlation coefficient test determined the distance matrix of the current and future states.
. It was found that the number of changes in the volume of one route affected the other routes.
Conclusion
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Notably, increasing or decreasing the volume of moving objects in one route caused alterations in the other routes.
In other words, changes on one route of the roadmap were responsible for the traffic variation on other routes.
The vital information to reduce urban traffic congestion, time, cost, energy, etc., was achieved by analyzing the impact on present and future routes based on the traffic volume.
Conclusion
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References
1. Z. Yi, X. C. Liu, N. Markovic and J. Phillips, "Inferencing hourly traffic volume using data-driven machine learning and graph theory," Comput. Environ. Urban. Syst, vol. 85, pp. 101548, 2021.
2. R. Saha, M. T. Tariq and M. Hadi, "Deep Learning Approach for Predictive Analytics to Support Diversion during Freeway Incidents," Transp. Res. Rec, vol. 2674, no. 6, pp. 480-492, 2020.
3. H. Georgiou, S. Karagiorgou, Y. Kontoulis, N. Pelekis, P. Petrou, D. Scarlatti and Y. Theodoridis, "Moving Objects Analytics: Survey on Future Location & Trajectory Prediction Methods [Unpublished manuscript]," arXiv preprint arXiv:1807.04639, pp. University of Piraeus, 2018.
4. J. Miller, "Dynamically computing fastest paths for intelligent transportation systems," IEEE. Intell. Transp. Syst. Mag, vol. 1, no. 1, pp. 20-26, 2009.
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