Efficiency estimation of wheel automobile propulsion unit

Authors

DOI:

https://doi.org/10.30977/VEIT.2022.21.0.08

Keywords:

automobile, wheel propulsion unit, energy efficiency, torque, efficiency factor

Abstract

Problem. Energy efficiency of an automobile is a characteristic of rational use of engine power and consumption of energy sources. The rational use of engine power is the implementation of the maximum dynamics of an automobile at the lowest energy consumption (power). To date, the problem of estimating the efficiency of the automobile wheel propulsion unit is one of the most relevant in modern engineering. Therefore, there is an urgent need to optimize the ability to assess the energy efficiency of automobile by obtaining a mathematical model of the efficiency of the wheel propulsion unit for further rational design of automobiles according to energy efficiency criteria. Goal. The aim of the work is to increase the ability to assess the energy efficiency of the automobile by obtaining a mathematical model of the efficiency of the wheel propulsion unit. Methodology. Analytical, mathematical and research methods were used to develop a model for estimating the efficiency of the automobile wheel propulsion unit. Results. The results of the study allowed to determine that with an increase in the maximum torque on the clutch, there is an increase in the efficiency of the latter. The obtained mathematical model of the instantaneous power consumption factor for the movement of the driven wheel allows to increase the accuracy of estimating the energy efficiency of cars. The obtained analytical expression of the estimation of the instantaneous power consumption factor of the wheel propulsion unit allows to carry out rational design of automobiles on the criterion of energy efficiency in the future. Analysis of the obtained expression showed that with increasing number of drive wheels, the efficiency of the wheel propulsion unit also increases. Originality. The originality is in obtaining a mathematical model of the efficiency of the wheel propulsion unit of automobile, which will further help to select the rational parameters of the chassis and refine the calculation of energy efficiency of automobiles. Practical value. The practical value of the study is to provide practical recommendations for improving the ability to assess the energy efficiency of the automobile by obtaining a mathematical model of the efficiency factor of the wheel propulsion unit.

Author Biographies

Mykhailo Podryhalo, Kharkiv National Automobile and Highway University, 25, Yaroslava Mudrogo str., Kharkiv, 61002, Ukraine

Doctor of Technical Sciences, Prof., Head of the Department of Mechanical Engineering and Machine Repair Technology

Ruslan Kaidalov, National Academy of the National Guard of Ukraine, 3, Zakhysnykiv Ukrainy,sq., Kharkiv, 61001. Ukraine

Doctor of Technical Sciences, Prof., Сolonel, Head of the Department of Operational and Logistical Support

Vasyl Omelchenko, National Academy of the National Guard of Ukraine, 3, Zakhysnykiv Ukrainy,sq., Kharkiv, 61001. Ukraine

Lieutenant Colonel, Head of the Department of International Relations, Information and Communication

References

Горелов В.А., & Чудаков О.И. (2017) Анализ конструктивных схем привода колес прицепных звеньев активных автопоездов. Известие МГТУ «МАМИ», (1), 16-24. Gorelov V., & Chudakov O.(2016).Analiz konstruktivnyih shem privoda koles pritsepnyih zvenev aktivnyih avtopoezdov.[Analysis of constructive schemes of wheel drive of trailer links of active road trains].Izvestie MGTU «MАMI», (1), 16-24. [In Russian].

Шухман С.Б., Соловьев В.И., & Прочко Е.И. (2007). Теория силового привода колес автомобилей высокой проходимости. Агробизнесцентр. Shuhman S.B., Solovev V.I., & Prochko E.I. (2007). Teoriya silovogo privoda koles avtomobiley vyisokoy prohodimosti.[Theory of the power drive of the wheels of off-road vehicles].Agrobiznestsentr. .[In Russian].

Можаєв, О.О. (2019) Мінімізація втрат потужності тягово-транспортних засобів при русі по опорній поверхні, яка деформується. Східноєвропейський журнал передових технологій, (97), 69–74. https://doi.org/10.15587/1729-4061.2019.156721. Mozhaev, O.O. (2019). Minimizatsiia vtrat potuzhnosti tiahovo-transportnykh zasobiv pry rusi po opornii poverkhni, yaka deformuietsia. [Minimization of power losses of traction vehicles when moving on the deformation bearing surface]. Skhidnoievropeiskyi zhurnal peredovykh tekhno-lohii, (97), 69–74. [In Ukrainian]

Гуськов, В.В. (2018). Динамическая характеристика многоцелевых колесных машин при движении по грунтовым поверхностям. БНТУ. Guskov, V.V. (2018). Dinamicheskaya harakteristika mnogotselevyih kolesnyih mashin pri dvizhenii po gruntovyim poverhnostyam. [Dynamic characteristics of multy-purpose wheeled machines during driving on ground surfase]. BNTY. [In Russian].

Кутьков, Г.М. (2016). Тракторы и автомобили: теория и технологические свойства. ИНФРА-М. Kutkov, G.M. (2016). Traktoryi i avtomobili: teoriya i tehnologicheskie svoystva.

[Tractors and cars: theory and technological properties].INFRA-M.

Абдулгазис, У. А., Клец, Д. М., & Подригало, М.А. (2010). Динамика колеса и устойчивость движения автомобиля. ДИАЙПИ. Abdulgazis, U., Klets, D., Podrihalo, M. (2010). Dinamika kolesa i ustoychivost dvizheniya avtomobilya. [Wheel dynamics and vehicle stability]. DIAYPI. [In Russian].

Лебедев, А.Т., Артемов, Н.Т., Подригало, М.А., & Кот, А.В. (2012). Радиус качения и оценка взаимодействия колеса автомобильной машины с дорогой. Технічні науки, 124 (2), 43-48. Lebedev, A., Artemov, N., Podrigalo, M.A., & Kot, A. (2012). Radius kacheniya i otsenka vzaimodeystviya kolesa avtomobilnoy mashinyi s dorogoy. [Rolling radius and assessment of the interaction of a car wheel with the road]. Tekhnichni nauky: Visnyk HNADU, 124 (2), 43-48. [In Russian].

Lihle, I., Dove, A., Mohlalakoma, T., & Otis, T. (2017). Heaviside based optimal control for ride comfort and actuation energy optimisation in half-car suspension systems. Modern mechanics, (2).259-264.

Абдулгазіс, А.У., Абрамов, Д.В., Артьомов, М.П., Подригало, М.А., & Полянський, О.С. (2019). Динаміка колеса автомобіля. ХНАДУ. Abdulhazis, A., V. Abramov, D., Artomov, M., Podryhalo, M., Polianskyi O. (2019). Dynamika kolesa avtomobilia. [Vehicle wheel dynamics]. HNADU. [In Ukrainian].

Подригало, М.А. (2007). Качение автомобильного колеса и определение понятия «тяговая сила» (В порядке обсуждения). Автомобильная промышленость, (1), 25-26. Podryhalo, M. (2007). Kachenie avtomobilnogo kolesa i opredelenie ponyatiya «tyagovaya sila» (V poryadke obsuzhdeniya). [Rolling of an automobile wheel and the definition of the concept of "tractive force" (By discussion)]. Avtomobilnaya promyishlenost, (1), 25-26. [In Russian].

Евсеев, П.П. (2006). Эффективный КПД движителя автомобиля. Автомобильная промышленность, (4), 12-14. Evseev, P. (2006). Effektivnyiy KPD dvizhitelya avtomobilya. [Efficiency of the vehicle propulsion]. Avtomobilnaya promyishlenost, (4), 12-14. [In Russian].

Kaidalov, R., Omelchenko, V. Podryhalo, M. (2021). Analisis of existing constructions of road trains with active trailers. Advances in mechanical engineering and transport, 2 (17), 11-16.

Пожидаев, С.П. (2014). К вопросу о радиусах эластичного колеса. Автомобильный транспорт, (4), 6-8. Pozhidaev, S. (2014). K voprosu o radiusah elastichnogo kolesa. [To the question of the radius of the elastic wheel].Avtomobilnyi transport, (4), 6-8. [In Russian].

Fangjie, Yu. (2016). Direct Energy Rebound Effect of Family Cars: An Analysis Based on a Survey in Chang-Zhu-Tan City Group. Energy Procedia, (104),197-202.

Петрушов, В.А. (2008). Автомобили и автопоезда:Новые технологии исследования сопротивления качению и воздуха. ТОРУС ПРЕСС. Petrushov, V. (2008). Avtomobili i avtopoezda:Novyie tehnologii issledovaniya soprotivleniya kacheniyu i vozduha. [Automobiles and road trains: New technologies for the study of rolling resistance and air]. TORUS PRESS. [In Russian].

Volvo Mean Green. (2015) The best-seeing hybrid vintage car in the world, (86), 12-14. Taken from http://interest.com/volvo-mean-green-the-fastest-automobile.

Travesset-Baro, О. (2016). Transport energy demand in Andorra. Assessing private car futures through sensitivity and scenario analysis. Energy Policy, (96). 78-92.

Fangjie, Yu. (2016). Direct Energy Rebound Effect of Family Cars: An Analysis Based on a Survey in Chang-Zhu-Tan City Group. Energy Procedia. (104), 197-202.

Published

2022-06-29

How to Cite

Podryhalo, M., Kaidalov, R., & Omelchenko, V. . (2022). Efficiency estimation of wheel automobile propulsion unit. Vehicle and Electronics. Innovative Technologies, (21), 31–39. https://doi.org/10.30977/VEIT.2022.21.0.08

Issue

Section

WAYS TO IMPROVE THE ECONOMIC AND ENVIRONMENTAL INDICATORS OF MOTOR VEHICLES. ENERGY SAVING TECHNOLOGIES