MODELING OF TRAFFIC-LIGHT SIGNALIZATION DEPENDING ON THE QUALI-TY OF TRAFFIC FLOW IN THE CITY
Abstract
The high level of motorization typical for many cities gives background to the emergence of satarovich situations, which largely reduces the transporting access to and unimpeded movement. To resolve occurring traffic problems are used for various kinds of activities that subunits are radical and conservative. For existing cities, quite often used the second type of events that do not require significant capital investments compared to the first one of these activities is improvement of traffic lights regulation, to reduce delays to vehicles by changing the input parameters required in the calculation. In this work the authors is proposed to model the traffic signalization traffic flow based on its qualitative composition. The growth of car ownership contributes to the change in the qualitative composition of traffic flow, that is not to be taken in determining the modes of traffic lights regulation. The authors performed a study of urban traffic, the results of which allowed to determine the values of the distributions of vehicles in the stream with regard to its composition, based on the extension of the main rolling stock type – passenger car. Based on the obtained distributions, a mathematical analysis for determining the influence of each considered class and refined method of calculation of the traffic signalization. The purpose of the proposed assessment to the development of a methodology for calculating the experimental computer simulation, the comparative analysis of the obtained data and the main conclusions of the study.
References
Rodrigue, J. 2013. The Sage Handbook of Transport Studies, London: Sage. 592 pages. ISBN: 978-1-849-20789-8.
Tom, V. 2013. Preserving an aging transit fleet: An optimal resource allocation perspective based on service life and constrained budget, Transportation Research Part A: 111-123.
Marie, R. 2015. Applying sustainability theory to transport infrastructure assess-ment using a multiplicative ahp decision support model. Transport Volume 30, Issue 3: 330-341.
Giannopoulos, G., Moschovou, T. 2012. Modelling Freight Transport Modal Choice in Greece. TRA: 597-611. Athens: Procedia ‐ Social and Behavioral Sciences.
Przhibyl, P.; Novikov, A. 2015. Associated systems and transport telematics. The world of transport and technological machines 2 (49): pp. 96-102. (in Russia)
Stamo, I.; Grau J.; Mitsakis E.; Mamarikas, S. 2015. Macroscopic fundamental diagrams: simulation findings for Thessaloniki’s road network. International Journal for Traffic and Transport Engineering 5(3): pp. 225 – 237.
Mitsakis, E.; Stamos, I.; Grau, J.M.S.; Chrysochoou, E.; Iordanopoulos, P.; Aifa-dopoulou, G. 2013. Urban Mobility Indicators for Thessaloniki, Journal of Traffic and Logistics Engineering. 1(2): pp. 148-152.
Sładkowski, A.; Pamuła W. 2015. Intelligent Transportation Systems – Problems and Perspectives. 316 p.
Eresov, B.; Ja. V. 2001. Konflіktnі situacії ta bezpeka ruhu pіshohodіv. Bezpeka dorozhn'ogo ruhu Ukraїni. Nauk. tehn. vіsnik, 2, 10: pp. 24–30.
Borovskoy, A.; Shevtsova, A. 2012. Using of a new method of calculation of a stream of saturation at definition of a cycle of svetoforny regulation. «European Applied Scienc-es: modern approaches in scientific researches»: Papers of the 1st International Scientific Con-ference. Stuttgart, Germany: pp. 473-479
Borovskoy, A.; Shevtsova, A. 2014. Innovative technology in teaching students of the organization and road safety. International scientific-practical conference of pedagogues and psychologists «Scientific genesis» Geneva (Switzerland). Vol. 1: pp. 203-206.
Olszewski, P. 1994. Modeling Probability Distribution of Delay at Signalized In-tersections. Journal of Advanced Transportation, Vol. 28, No. 3: pp. 253–274.
Allsop, R. 1972. Delay at a Fixed Time Traffic Signal - I: Theoretical Analysis. Transportation Science, Vol. 6: pp. 260–285.
Teply, S. 1989. Evaluation of the Quality of Signal Progression by Delay Distri-butions. In Transportation Research Record 1225, TRB, National Research Council, Washington, D.C.: pp. 1–7.
Brilon, W. 1990. Delays at Fixed Time Traffic Signals Under Time-Dependent Traffic Condition. Traffic Engineering and Control, Vol. 31, No. 12: pp. 623–631.
Webster, F. 1958. Traffic Signal Settings. London, England: Her Majesty's Sta-tionery Office.
Highway Capacity Manual 2000. TRB, Washington, DC. 1134 p.
Greenshields, B.; Schapiro, D.; Ericksen, E. 1947. Traffic Performance at Urban Street Intersections. Technical Report No. 1 Yаlе Bureau of Highway Traffic.
Capelle, D.; Pinnell, С. 1961. Capacity Study of Signalized Diamond Interchang-es. Highway Research Board Bulletin 291: pp. 1-25.
Carstens, R. 1971. Some Traffic Parameters at Signalized Intersections. Traffic Engineering.
King, G.; Wilkinson, M. 1976. Relationship of Signal Design to Discharge Head-way, Approach Capacity, and Delay. Transportation Research Record 615: pp. 37 – 44.
Handbuch fuer die Bemessung von Strassenverkehrsanlagen (HBS) For-shungsgesellschaft fuer Strassen und Verkehrswesen, Koeln, Januar 2002.
Levashov, A. 2005. Improving the efficiency of traffic management at intersec-tions regulated: Author. disser-. on scientific. tech degree of Candidate of Sciences. Irkutsk: 17 p.
Kremenets, Y.; Pechersky, M.; Afanasiev, M. 2005. Technical means of traffic management. M .: Akademkniga, 279 p.
Shevtsova, A.; Novikov I.; Borovskoy A. 2015. Research of influence of time of reaction of driver on the calculation of the capacity of the highway. Transport problems Volume 10 Issue 3: pp. 53 - 59.
Novikov, A., Novikov, I., Katunin, A., Shevtsova, A. 2017. Adaptation Capacity of the Traffic Lights Control System (TSCS) as to Changing Parameters of Traffic Flows Within Intellectual Transport Systems (ITS). Transportation Research Procedia Volume 20: pp. 455-462.
Novikov, A., Katunin, A., Novikov, I., Shevtsova, A. 2017. Research of Influence of Dynamic Characteristics for Options Controlled Intersection. Procedia Engineering Volume 187: pp. 664-671.
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