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FUNCTIONING OF THE CAR PARKING PLACES NEAR HOUSES: FORMULATION OF THE PROBLEM OF THE ROAD CITY NETWORK

https://doi.org/10.26518/2071-7296-2019-6-670-679

Abstract

Introduction. The load models of the road network make it possible to understand a lot of the transport, social, environmental, and other city problems. Creating transport models requires knowledge of the traffic flows’ formation and functioning. The paper formulates a goal and poses tasks for the research conducting of the adjoining territories of residential areas in Tula as one of the urban traffic flows’ sources and of the identifying patterns of the parking places near houses’ influence on the road network loading.

Materials and methods. The basis of the research was the development in the field of predictive simulation of automobile transport systems. The authors used complex of computer-aided design “TransNet”, which allowed adjusting the initial data in the base model by the results of the parking places’ functioning.

Discussion and conclusions. As a result, the improved transport model of Tula allows making the forecast for determining the main parameters of the transport system taking into account the dynamics of vehicles’ local area departure at different time intervals. Moreover, the proposed methodological tools and algorithm for solving the problem of the road network loading in a quasi-dynamic setting helps to solve existing transport problems and to improve the traffic organization.

The authors have read and approved the final manuscript. Financial transparency: the authors have no financial interest in the presented materials or methods. There is no conflict of interest.

About the Authors

I. E. Agureev
Tula State University
Russian Federation

Igor E. Agureev – Dr of Sci. (Engineering), Professor, Head of the Department of the Motor Transport and Motor Industry

Tula, 92, Lenin Ave.



D. A. Yurchenko
Tula State University
Russian Federation

Dmitry A. Yurchenko – Graduate Student

Tula, 92, Lenin Ave.



References

1. Korchagin V.A., Ljapin S.A. Upravlenie processami perevozok v otkrytyh socio-prirodno-jekonomicheskih avtotransportnyh sistemah: monografija [Management of transportation processes in open socio-natural-economic road transport systems]. Lipeck: LGTU, 2007: 261 (in Russian).

2. Paluch S. Transportation network reduction. Transport problems. 2015; V 10, I 2: 69–74.

3. Zedgenizov A.V., Zedgenizova A.N. Osobennosti sbora ishodnyh dannyh pri ocenke chisla pripar-kovannyh avtomobilej vozle zhilyh ob’ektov [Features of the collection of source data when assessing the number of parked cars near residential objects]. Vestnik IrGTU. 2011; 12 (48): 105–108 (in Russian).

4. Steiner S. Strategic framework of transport development. Transport problems.: Tom 2, Zeszyt 1, 2009. pp. 5–14.

5. Tom V. Mathew, K V Krishna Rao. Introduction to Transportation Engineering. TRIP GENERATION NPTEL. May 24, 2006.

6. Holodov Ja.A., Holodov A.S., Gasnikov A.V., Morozov I.I., Taracov V.N. Modelirovanie transport-nyh potokov aktual’nye problemy i puti ih reshenija [Modeling of traffi flows - actual problems and ways of their solution]. Trudy MFTI. 2010; 4(8), T. 2: 152–162 (in Russian).

7. Carteni A. Urban sustainable mobility. Part 1: rationality in transport planning. Transport problems. 2014; V 2, 4: 39–48.

8. Schiller C. Erweiterung der Verkehrsnachfragemodellierung um Aspekte der Raum - und Infrastruktur-planung – Chancen für eine integrierte Stadtund Verkehrsplanung (2009). In Tagungsband AMUS 2009, RWTH Aachen, Aachen 24.

9. Agureev I.E., Pyshnyj V.A., Shvecov V.I. Modelirovanie zagruzki ulichno-dorozhnoj seti g. Tuly [Modeling the load of the road network in Tula]. Tula: Izvestija TulGU. Tehnicheskie nauki. 2013; 6. Ch. 2: 112–138 (in Russian).

10. Agureev I.E., Mitjugin V.A., Pyshnyj V.A. Podgotovka i obrabotka ishodnyh dannyh dlja matema-ticheskgo modelirovanija avtomobil’nyh transportnyh sistem [Preparation and processing of input data for mathematical modeling of automobile transport systems]. Tula: Izvestija TulGU. Tehicheskie nauki. 2014;6: 119–127 (in Russian).

11. Agureev I.E., Bogma A.E., Pyshnyj V.A. Dinamicheskaja model’ transportnoj makrosistemy [Dynamic model of a transport macrosystem]. Tula: Izvestija TulGU. Tehnicheskie nauki. 2013: 6. Ch. 2: 139–145 (in Russian).

12. Shvecov V.I. Algoritmy raspredelenija transportnyh potokov [Algorithms for the distribution of traffi flows]. Avtomatika i Telemehanika. 2009; 10: 148–157 (in Russian).

13. Popa M. On transport network reliability. Transport problems. 2012; 7, I 3: 127–134.

14. Mazurin D.S., Shvecov V.I. Struktura dannyh dlja kalibrovki transportnoj modeli goroda [Data structure for calibrating the transport model of the city]. Trudy ISA RAN. 2015; 65. № 1: 16–23 (in Russian).

15. Train K.E. Discrete Choice Methods with Simulation. Cambridge Books. 2nd edition. Cambridge University Press, 2009.

16. Agureev I.E., Jurchenko D.A. Obsledovanie pridomovyh territorij gorodskih zhilyh rajonov kak istochnikov formirovanija avtomobil’nogo transporta [Inspection of the adjacent territories of urban residential areas as sources of the formation of automobile transport]. Mir transporta i tehnologicheskih mashin. Orel: Izdatel’stvo Orlovskogo gosudarstvennogo universiteta im. I.S. Turgeneva. 2018: 82–88 (in Russian).

17. Baruah A.K., Traffi Control Problems using Graph Connectivity. International Journal of Computer Applications. 2014; V.86. № 11.

18. Bisen S.K., Application of Graph Theory in Transportation Networks. International Journal of Scientific Research and Management. 2017; 5 (07): 6197–6201.

19. Kutil M. Modeling and Optimization of Traffic Flow in Urban Areas. Doctoral Thesis, Prague, January 2010.

20. Thathsarani A.A.T., Lanel G.H.J. A Model To Reduce Traffi Congestion In Colombo City. International Journal of Scientific and Research Publications. 2019; 9 (6).

21. Yamuna M., Raza A., Kanav Anand K., Sakthi K. P., Sangam K. Traffi Control System using Maximum Flow Algorithm. International Journal of Current Engineering and Technology. 2016; 6 (5).

22. Bin R., Boyce D. Modeling Dynamic Transportation Networks: An Intelligent Transportation System Oriented Approach. Springer, 1996.

23. Ukkusuri S.V., Ozbay K. Advances in Dynamic Network Modeling in Complex Transportation Systems. Springer Science & Business Media, 2013.

24. Patriksson M. The Traffi Assignment Problem: Models and Methods. Courier Dover Publications, 2015.

25. Ortúzar J.D., Willumsen L.G. Modelling transport. JohnWilley & Sons, 2011.


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For citations:


Agureev I.E., Yurchenko D.A. FUNCTIONING OF THE CAR PARKING PLACES NEAR HOUSES: FORMULATION OF THE PROBLEM OF THE ROAD CITY NETWORK. The Russian Automobile and Highway Industry Journal. 2019;16(6):670-679. (In Russ.) https://doi.org/10.26518/2071-7296-2019-6-670-679

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ISSN 2071-7296 (Print)
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