Experimental and theoretical studies of the system “irrigation rate – soil –sprinkling machine”
DOI:
https://doi.org/10.28983/asj.y2021i10pp103-107Keywords:
irrigation rate, soil, sprinkler machine, track depth, track widthAbstract
To provide an efficient and reliable operation of sprinkler machines while observing erosion-safe irrigation technologies, you should take into account multiple passes on moist and waterlogged soil. It is a complicated technical problem requiring the solution of a set of scientific and practical problems based on studies of the relationship of the "irrigation rate - soil - sprinkler machine system. The article considers the wheel and soil interaction model (Fig. 1). The dependence of the depth and track width on the number of the support bogie and on the bearing, capacity is also shown. The research allowed us to determine the approximate zones of application of wheel systems depending on the bearing capacity of the soil.
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Журавлева Л.А. Ресурсосберегающие широкозахватные дождевальные ма-шины кругового действия: дис. …д-ра техн. наук. Саратов, 2018. 409 с.
Журавлева Л. А., Тхуан Н. В. Уменьшение колееобразования широкозахват-ных дождевальных машин // Известия МГТУ «МАМИ». 2020. №4(46). С. 38-45.
Журавлева Л. А., Тхуан Н. В. Оптимизация параметров ходовых систем ши-рокозахватных дождевальных машин кругового действия // Collection of scien-tific papers, on materials of the XIII international scientific-practical conference. LJournal. 2021. С. 148-155.
Малько И. В. Улучшение тягово-сцепных свойств ходовых систем дожде-вальных машин кругового действия «Фрегат» // Вестник Рязанского государ-ственного агротехнологического университета им. П.А. Костычева; 2014. № 2 (22). С. 56-59.
Рязанцев А. И., Кириленко Н. Я., Малько И. В., Егоров Ю. Н. Повышение тягово-сцепных свойств ходовых систем широкозахватных дождевальных машин кругового действия «Фрегат» // Вестник ФГОУ ВПО МГАУ. 2009. №3. С. 19–22.
Hildebrand R., Keskinen E., Navarrete J. Vehicle vibrating on a soft compacting soil half-space: ground vibrations, terrain damage, and vehicle vibrations // J Ter-ramechanics. 2008; 45, 121–36.
Hopkins M. A., Johnson J. B., Sullivan R. Discrete Element Modeling of a Rover Wheel in Granular Material Under the Influence of Earth, Mars, and Lunar Gravity; 2008, 17.
Irani R. A., Bauer R. J., Warkentin A. A dynamic terramechanic model for small lightweight vehicles with rigid wheels and grousers operating in sandy soil // J Ter-ramechanics. 2011; 48, 307–18.
Kloss C, Goniva C. LIGGGHTS: A new open-source discrete element simulation software // 5th International conference on discrete element methods, London, UK; 2010.
Laib L. On the mobility of cross-country vehicles, with emphasis on modeling their dynamic motion // Vehicle Syst Dyn. 1998; 29(sup1), 682–703.
Meirion-Griffith G, Spenko M. An empirical study of the terramechanics of small unmanned ground vehicles; 2010, 1–6.
Negrut D., Mazhar H., Melanz D., Lamb D., Jayakumar P., Lether- wood M., Jain A,, Quadrelli M. Investigating the mobility of light autonomous tracked vehicles using a high-performance computing simulation capability // Modeling & Simulation, Testing and Validation (MSTV) Mini-Symposium, Michigan; 2012.
Park S., Popov A. A., Cole D. J. Influence of soil deformation on off-road heavy vehicle suspension vibration // J Terramechanics. 2004;41(1), 41–68.
Tsuji T., Nakagawa Y., Matsumoto N., Kadono Y., Takayama T., Tanaka T. 3-D DEM simulation of cohesive soil-pushing behavior by bulldozer blade // J Terrame-chanics. 2012; 49(1), 37–47.
Zhu H. P., Zhou Z. Y., Yang R. Y., Yu A. B. Discrete particle simulation of par-ticulate systems: a review of major applications and findings // Chem Eng Sci. 2008; 63(23), 5728–70.
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