Air flows Modeling for a container type generator

Authors

  • Pavel M. Afanaskov Belarusian State University of Transport
  • Andrey P. Dedinkin Belarusian State University of Transport

Keywords:

container-type generators, energy container, small power engineering, CFD-modeling, air flow temperature, diesel generator, cooling system, Flow Simulation

Abstract

The purpose of the container-type generators and the options for their application are considered. The main technical characteristics, standard equipment and layout of the container-type generator (energy container) are described. The analysis of cases of emergency shutdowns of one of the diesel generator sets installed in the considered energy container is carried out. The amount of heat to be removed to the environment in the calculated cooling circuit for the considered container-type generator model has been determined. The theoretical substantiation of the reasons for the emergency shutdown of one of the diesel generators in the considered model of the energy container is presented. Thermal imaging control was carried out to determine the temperatures of the outer and inner shells of the energy container, as well as elements of equipment and a diesel generator set when operating under load. The theoretical foundations of the Solidworks Flow Simulation module, which are designed to solve applied problems of fluid dynamics and associated heat transfer, are described. The approaches of "thick boundary layer" and "thin boundary layer" used in modeling the boundary layer by the method of "two-scale near-wall functions" (finite volume method) are considered. Computer simulation of air flow distribution in the volume of the energy container has been carried out. The main research results obtained in the process of modeling the distribution of air flows in a container-type generator are presented. The analysis of the research results was carried out and recommendations were made for changing the design of the considered energy container in order to reduce the temperature of the air entering the cooling radiators of diesel generators.

References

Пигарев В.Е. Холодильные машины и установки кондиционирования воздуха: учебник. М. : Маршрут, 2003. 424 с.

Мартинов И.Е. Холодильное оборудование вагонов. Харьков : УГАЖТ, 2013. 134 с.

Леонтьев А.П. Подготовка и перевозка скоропортящихся грузов. М. : Транспорт, 1991. 175 с.

Леонтьев А.П. Перевозка скоропортящихся грузов. М. : Транспорт, 1986. 304 с.

ГОСТ Р 53350-2009. Контейнеры грузовые серии 1. Классификация, размеры и масса. М. : Стандартинформ, 2018. 28 с.

Сахаров П.А. Проектирование тепловоза. Гомель : БелГУТ, 2017. 79 с.

Понявкин Д.Ю. Тепловозы ТЭМ7 и ТЭМ7А: системы охлаждения дизель-генераторов типа Д49 // Локомотив. 2014. № 4 (688). С. 20–23.

Cat C4.4 ACERT. Engine Specification Manual. Publication TPD1752 Issue 7. 2012. 288 p.

Cooling Systems. Caterpillar : application & Installation Guide. LEBW4978-14. 2016. 128 p.

Попов А.Ю. Моделирование распределения воздушного потока в программном комплексе Solidworks Flow Simulation // Актуальные проблемы гуманитарных и естественных наук. 2017. № 3-3. С. 74–77.

Рубан В.Г., Воронин О.А. Комплексный подход к организации тепловой диагностики узлов локомотивов в условиях депо // Транспорт-2011 : тр. Всерос. науч.-практ. конф. Ч. 2. Ростов-на-Дону, 2011. С. 421–423.

Technology and evolution procedures of integrated diagnostic survey of large power transformers / V.V. Smekalov et al. // CIGRE : SC 33 Conference. Prague, 2000. Р. 1–6.

Numerical simulation of slug flow mass transfer in the pipe with granular layer / D.P. Khramtsov et al. // 22nd international congress of chemical and process engineering. 2016. Р. 1354–1355.

SolidWorks. Компьютерное моделирование в инженерной практике / А.А. Алямовский и др. М. : БХВ-Петербург, 2016. 800 c.

Вершков В.А. Инженерное программное обеспечение Dassault. Systems SolidWorks. Жуковский, 2018. 142 с.

A comparison study between an adaptive quadtree grid and uniform grid upscaling for reservoir simulation / M. Babaei et al. // Transp. Porous Media. 2013. Р. 377–400.

CFD simulation of heat transfer and turbulent fluid flow over a double forward-facing step / H. Togun et al. // Mathematical problems in engineering. 2013. № 2013. Р. 1–10.

Simulation and calculation of multi-flow, multistage systems of heat exchangers / V.P. Zhukov et al. // Fibre chemistry. 2019. № 4. Р. 303–307.

Published

2021-09-30

How to Cite

Афанаськов, П. М., & Дединкин, А. П. (2021). Air flows Modeling for a container type generator. Modern Technologies. System Analysis. Modeling, (3(71), 10-18. Retrieved from https://ojs.irgups.ru/index.php/stsam/article/view/282

Issue

Section

Machine construction and theoretical engineering