Экспериментальное исследование истечения водорода высокого давления в пространство с препятствиями после разрыва оболочки

Authors

  • D.G. Ignatenko A.V. Luikov heat and mass transfer institute of the National Academy of Sciences of Belarus; 220072, Belarus, Minsk, ul. P. Brovki, 15
  • V.N. Mironov A.V. Luikov heat and mass transfer institute of the National Academy of Sciences of Belarus; 220072, Belarus, Minsk, ul. P. Brovki, 15
  • O.G. Penyaz'kov A.V. Luikov heat and mass transfer institute of the National Academy of Sciences of Belarus; 220072, Belarus, Minsk, ul. P. Brovki, 15
  • A.V. Skilond' A.V. Luikov heat and mass transfer institute of the National Academy of Sciences of Belarus; 220072, Belarus, Minsk, ul. P. Brovki, 15

Abstract

The experimental setup for the simulation of rupture process of the hydrogen pipelines or chambers with pressure up to 13 MPa has been described. The dependences of the intensity of the shock wave formed by outflowing hydrogen and temperature behind the shock waves from the distance to the rupture place. The interaction of the hydrogen jet with obstacles of different configurations is investigated. The possibility of autoignition and deflagration explosion when high-pressure hydrogen outflows in space with a system of focusing and turbulating obstacles has been experimentally proved . The distributions of the visible flame velocity on the radius of the hearth, the maximum values are exceeding 110 m/sec. The factors contributing to the explosive development of the combustion process and its stages are determined.

Author Biographies

V.N. Mironov, A.V. Luikov heat and mass transfer institute of the National Academy of Sciences of Belarus; 220072, Belarus, Minsk, ul. P. Brovki, 15

PhD in Technical Sciences

O.G. Penyaz'kov, A.V. Luikov heat and mass transfer institute of the National Academy of Sciences of Belarus; 220072, Belarus, Minsk, ul. P. Brovki, 15

Grand PhD in Physical and Mathematical Sciences

References

Rigas F., Sklavounos S. Evaluation of hazards associated with hydrogen storage facilities // Int. J. Hydrogen Energy. – 2005. – V. 30. – Pp. 1501–10.

Гельфанд Б.Е., Попов О.Е., Чайванов Б.Б. Водород: параметры горения и взрыва. – М.: ФМЛ, 2008. – 288 с.

Миронов В.Н., Пенязьков О.Г. О динамике импульсного истечения водорода в загроможденное пространство // Горение и взрыв / Под общ. ред. С.М. Фролова. – М.: ТОРУС ПРЕСС, 2010. – Вып. 3. – С. 17–22.

Головичев В.И., Димитров В.И., Солоухин Р.И. Численный анализ моделей воспламенения водорода // ФГВ. – 1973. – Т. 9. – № 1. – С. 95–101.

Гельфанд Б.Е., Сильников М.В., Медведев С.П., Хомик С.В. Термогазодинамика горения и взрыва водорода. – СПб.: Изд-во Политехн. ун-та, 2009. – 584 с.

Downloads


Abstract views: 62
PDF Downloads: 68

Published

2012-08-10

How to Cite

Ignatenko Д., Mironov В., Penyaz’kov О. and Skilond’ А. (2012) “Экспериментальное исследование истечения водорода высокого давления в пространство с препятствиями после разрыва оболочки”, Vestnik of the Institute for Command Engineers of the MES of the Republic of Belarus, 16(2), pp. 31–38. Available at: https://journals.ucp.by/index.php/vice/article/view/403 (Accessed: 21 November 2024).