DEVELOPMENT OF AN APPROACH TO DETERMINATION OF COUPLING QUALITIES OF ROAD COVERING USING WEATHER-CLIMATE FACTOR
Abstract
Assessing the grip of the road surface is an extremely important task both in the field of traffic management, and in the field of investigation and examination of traffic accidents. The coupling quality of the road surface is fully ensured by the grip coefficient, which is subject to constant monitoring in order to ensure road safety. There are a large number of methods for determining the magnitude of the grip coefficient. In their study, the authors propose an improved approach for determining the investigated value using the weather and climate factor. Previously, a group of researchers in the course of scientific research determined the dependence of the grip coefficient on the temperature of the road surface, as a result of mathematical analysis, the authors obtained a dependence that allows to determine the studied value by air temperature and the condition of the road surface (presence of precipitation). The performed experiment allowed us to test the obtained dependence within the framework of the object of study and to make a comparative assessment of the results obtained with the data obtained using the road laboratory.
References
Konoplyanko, V.I. (1978) Fundamentals of road safety. Moscow: DOSAAF: p. 128.
Ilarionov, V. A. (2011) Examination of traffic accidents. Moscow: Transport.
Silyanov, V.V. (1977) The theory of traffic flows in road design and traffic management Moskva: Transport: p. 303.
Novikov, A., Novikov, I., & Shevtsova, A. (2018) Study of the impact of type and condition of the road surface on parameters of signalized intersection. Transportation Research Procedia 36, pp. 548–555.
Novikov, A., Novikov, I., & Shevtsova A. (2019) Modeling of traffic-light signalization depending on the quality of traffic flow in the city. Journal of Applied Engineering Science 17 (2), pp. 175-181.
GOST 33078-2014 (2016) General use automobile roads. Methods of measuring friction of vehicle wheel with the road surface. Moscow: Standardinform.
Shamraev, L.G. & Borodin, K.S. (2015) New device EGMD-2 for measuring the coefficient of adhesion according to GOST 33078-2014. Dorozhniki 5 (5), pp. 52-57.
Ivanov, R., Rusev, R. & Ilchev P. (2006) Laboratory investigation of tyre sliding grip coefficient, Transport, 21 (3), pp. 172-181.
Veyukov, E.V., & Fedorov, I.A. (2015) Development of a laboratory installation for studying the coefficient of adhesion of a car wheel with a road surface. Proceedings of the Volga state technological University. Series: Technological, 3, pp. 177-180.
Kovalchuk, V.P. (1972) Operation and repair of automobile tires. Moscow: Transport publishing house: p. 256.
Warner, C.Y., Smith, G.C., James, M.B. & Tabelle G.J. (1975) A.1: SAE 830612: Germane: Friction Applications in Accident Reconstructions (Reference: Traffic Accident Investigation Manual, Northwestern University, Evanston, I.U.).
Petrov, M. A. (1973) Work of the automobile wheel in the brake mode. Omsk: West Siberian book publishing house.
Evtyukov, S.A. (2012) Influence of factors on the coupling quality of road surfaces. Modern problems of science and education. 3. p. 97.
Botvineva, N.Yu., Burakova, I.S., Streltsova, T.N. & Nesterchuk, A.V (2013) Investigation of the influence of weather conditions on the value of the coefficient of adhesion of tires with the road surface. Fundamental research, 11, pp. 407-411.
Samodurova, T.V., Fedorova, J.V. & Gladysheva, O.V. (2010) Modeling pollution on a roadside strip during winter period International. Journal of Pavement Research and Technology, 3 (2), pp. 65-71.
Samodurova, T.V. (2003) Meteorological support of winter maintenance of highways. Moscow: TIMR, p. 183.
Teltaev, B.B., Kaganovich, E.V. & Izmailova, T.T. (2008) Accounting for climatic operating conditions when choosing bitumen for asphalt concrete mixes. Science and technology in the road industry, 2, pp. 17-20.
Belkovsky, S.V. (1953) Work of asphalt concrete pavement bases in winter conditions. Moscow: Dorizdat, p. 53-114.
Belyakov, V.V., Molev, Yu. I. & Vakhidov U.S. (2007) Influence of traffic intensity on the temperature regime of the automobile road. Bulletin of the Bauman Moscow state technical University. Ser. “Engineering”, 3, pp. 79-90.
Botvineva, N.Yu., Burlakova, I.S., Streltsova, T.N. & Nesterchuk A.V. (2013) Investigation of the influence of weather conditions on the value of the coefficient of adhesion of tires with road surface. Fundamental research, 11 (3), pp. 407-411.
SP 131.13330.2012 Building climatology (Building climatology)
Kovalev, Ya.N. (1966) Road and climate zoning of the territory of the USSR for the construction of asphalt concrete coatings. Application of local materials in road construction of the BSSR: collection of articles. Moscow: Transport, pp. 64-71.
Goretsky, L.I. (1965) Theory and calculation of cement-concrete coatings on temperature effects. Moscow: Transport, p. 284.
Superpave Performance Graded Asphalt Binder Specification and Testing (1997) Asphalt Institute Superpave (SP-1), p.67.
Kiryukhin, G.N. (2014) For operation temperatures of the asphalt concrete pavements of highways. Roads and bridges, 30, pp. 309-328.
Novikov, A., Glagolev, S., Novikov, I., Shevtsova, A. (2019) Information technologies and management of transport systems development of the approach to assessing adaptation of the intersection transport model. IOP Conference Series Materials Science and Engineering, vol. 632, 012052, DOI: 10.1088/1757-899X/632/1/012052
Dorokhin, S., Novikov, A., Zelikov, V., Strukov, Y., Novikov, I. Shevtsova, A., Likhachev, D. (2018) Investigation of methods for calculating duration of light signal regulation cycle. Journal of Physics Conference Series vol. 1015(3), 032128, DOI: 10.1088/1742- 6596/1015/3/032128
