ISSN: 3048-6815

Temporal Dynamics of Vehicle Flow in Interconnected Network Arteries Using Continuous Markov Chains

Abstract

This study examines the temporal dynamics of vehicle circulation within an interconnected network of arterial roads using continuous Markov chains. Traditional approaches to vehicle flow modeling rely on discrete Markov chains, where each transition represents the passage of vehicles between intersections at fixed time steps. In this paper, we introduce a modification by modeling the process as a continuous system, enhancing the temporal resolution and accuracy of traffic predictions. By representing the network as a digraph and associating it with an ad hoc steady-state matrix, we develop a continuous evolution matrix that allows for the seamless tracking of vehicle populations over time. The model begins with an initial population of vehicles within the network, represented as a vector, and applies the continuous evolution matrix iteratively to predict traffic flow dynamics. This approach improves upon traditional discrete models by enabling finer temporal predictions and providing insights into the steady-state conditions of the system. The results demonstrate the potential of continuous Markov chains to offer more accurate and efficient traffic flow predictions, supporting better traffic management strategies and optimizations for large-scale network arteries.

References

  1. Bando M, Hasebe K, Nakayama A, et al. (1994) Structure dustrial and Applied Mathematics. 11: 203–23.
  2. Pawełoszek, I., Kumar, N., & Solanki, U. (2022). Artificial intelligence, digital technologies and the future of law. Futurity Economics & Law, 2(2), 24–33. https://doi.org/10.57125/FEL.2022.06.25.03
  3. Vinay Singh, Alok Agggarwal and Narendra Kumar: “A Rapid Transition from Subversion to Git: Time, Space, Branching, Merging, Offline commits & Offline builds and Repository aspects, Recent Advances in computers Sciences and communications, Recent Advances in Computer Science and Communications, Bentham Science, vol 15 (5) 2022 pp 0-8, (DOI : 10.2174/2666255814666210621121914)June 2021 (SCOPUS/ SCI indexed)
  4. Zhao, M., & Li, Y. (2016). Continuous Traffic Flow Modeling Using Markov Chains for Urban Transportation Networks. Transportation Research Part C: Emerging Technologies, 66, 58-75.
  5. Wang, L., & Zhao, X. (2020). Scalability of Traffic Flow Models in Large-Scale Urban Networks: A Markov Chain Approach. Transportation Science, 54(3), 741-755.
  6. Tao, Y., & Li, X. (2019). Optimization of Traffic Flow Using Continuous Models: A Case Study of Interconnected Network Arteries. Computers, Environment and Urban Systems, 74, 101-115.
  7. Megha Singla, Mohit Dua and Narendra Kumar: “CNS using restricted space algorithms for finding a shortest path”. International Journal of Engineering Trends and Technology, 2(1), 48-54, 2011.( https://ijettjournal.org/archive/ijett-v2i1p204)
  8. Sung, H., & Chien, S. (2011). Advanced Markov Chain Models for Predicting Steady-State Traffic Conditions in Urban Road Networks. International Journal of Traffic and Transportation Engineering, 1(2), 21-34.A
  9. Davis, P., & Becker, J. (2014). Improving Computational Efficiency of Traffic Flow Models with Continuous Approaches. Transportation Research Part C: Emerging Technologies, 48, 35-50.
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How to Cite

Rachna Sharma, (2025-04-28 17:17:37.234). Temporal Dynamics of Vehicle Flow in Interconnected Network Arteries Using Continuous Markov Chains. JANOLI International Journal of Artificial Intelligence and its Applications, Volume hJAEiqNzZqWjtpPaXKzr, Issue 2.