Transportation of liquid and sand in open trays

Irina Dezhina; Vladimir Orlov

doi:10.1051/e3sconf/20199702003

All issues

Volume 97 (2019)

E3S Web Conf., 97 (2019) 02003

References

Open Access

Issue		E3S Web Conf. Volume 97, 2019 XXII International Scientific Conference “Construction the Formation of Living Environment” (FORM-2019)


Article Number		02003
Number of page(s)		10
Section		Modern Building Materials
DOI		https://doi.org/10.1051/e3sconf/20199702003
Published online		29 May 2019

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Santiago A., Durango M. Most advanced technology for pipeline inspection in the world: see, measure and navigate in 3D through pipes and manholes. International Conference and Exhibition NO-DIG 2012, Sao Paulo (Brasil) [Google Scholar]
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Orlov V.A., Dezhina I.S., Korolyov A.A. Determination of boundary values of the field of turbulence for hydraulic experiments on pipelines with the text of the inner surface. Vestnik MGSU. 2018, Volume 13. No. 5 (116). p. 426-434 (rus) [Google Scholar]
Altschul, A.D., Calitsun V.I., Mayranovsky F.G. Primery rasschetov po gidravlike [Examples of calculations for hydraulics]. Moscow: Alliance. (2013) 255 p. (rus) [Google Scholar]
Altschul, A.D., Calitsun V.I., Mayranovsky F.G. Primery rasschetov po gidravlike [Examples of calculations for hydraulics]. Moscow: Alliance. (2013) 255 p. (rus) [Google Scholar]
Bryanskya Yu. V. Refinement of the cinematic characteristics of the turbulent flow Civil engineering Journal. (2013) 6 (41). p. 31–38 [Google Scholar]
Dulin V.M., Kozorezov Yu.S., Markovich D.M. Evaluation of turbulent kinetic energy dissipation rate in a free jet flow from PIV measurements. Bulletin of NSU, Series: Physics (2012) Volume 7. p. 53-69 (rus) [Google Scholar]
Girgidov A.D. Izmenenie dissipacii energii pri perehode ot laminarnogo rezima k turbulentnomy [Changing of energy dissipation during flow transformation, from laminar to turbulent] Inzhenerno-stroitelniy zhurnal. (2011) No. 5 (23). p. 49-52 (rus) [Google Scholar]

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[1] Arolla S.K., Desjardins O. Transport modeling of sedimenting particles in a turbulent pipe flow using Euler-Lagrange large eddy simulation. International Journal of Multiphase Flow. 2015. p.734-750p. [Google Scholar]

[2] Danielson T.J. Sand transport modeling in multiphase pipelines. International Offshore Technology Conference (2007) [Google Scholar]

[3] Church M. Bed material transport and the morphology of alluvial river channels Annual Review of Earth and Planetary Sciences (2006), 34 (1), p. 325-354. [Google Scholar]

[4] Kuliczkowski A., Rury kanalizacyjne. Wydawnictwo Politechniki Swietokrzyskiej. (2004). 507 p. [Google Scholar]

[5] Idelchik I.E. Flow Resistance: A Design Guide for Engineers. Routledge. 2017. 416 p. (rus) [Google Scholar]

[6] Dancey C.L., Diplas P., Papanicolaou A, Bala M. Probability of individual grain movement and threshold condition. Journal of Engineering, 128 (2), (2002), p. 1069-1075 [Google Scholar]

[7] Grossmann S., Lohse D. Curvature effects on the velocity profile in turbulent pipe flow Eur. Phys. J. E. No. 40 (2017) [CrossRef] [Google Scholar]

[8] Ebtehaj I., Bonakdari H. Comparison of genetic algorithm and imperialist competitive algorithms in predicting bed load transport in clean pipe. Water Sci Technol, (2014), N. 70 (10), p. 695-701 [Google Scholar]

[9] Santiago A., Durango M. Most advanced technology for pipeline inspection in the world: see, measure and navigate in 3D through pipes and manholes. International Conference and Exhibition NO-DIG 2012, Sao Paulo (Brasil) [Google Scholar]

[10] Ahern E. Non-invasive rehabilitation technologies. 30 NO-DIG International Conference and Exhibition, Sydney (Australia) (2013) Paper 2-20, pp. 1-9. [Google Scholar]

[11] Rabmer-Koller U. No-dig technologies – innovative solution for efficient and fast pipe rehabilitation.29 NO-DIG International Conference and Exhibition, NO-DIG Berlin (2011) Paper 2C-1, p. 1-10 [Google Scholar]

[12] Janssen A. Importance of lateral structural repair of lateral lines simultaneously with main line CIPP rehabilitation. 30 NO-DIG International Conference and Exhibition, (2012) Sao Paulo (Brasil), PAP 012287, p. 1-9 [Google Scholar]

[13] Greaves G.N., Greer A.L., Lakes R.S., Rouxel T. / Poisson’s ratio and modern materials. J. Nature Materials. (2011). vol. 10, p. 823-3 [CrossRef] [Google Scholar]

[14] Orlov V.A., Dezhina I.S., Pelipenko A.A., Orlov E.V. Test bench for the study of the flow of liquid by optical means in open trays with different relief of their inner surface. Patent of the Russian Federation for utility model (2018) No. 176 330 [Google Scholar]

[15] Orlov V.A., Dezhina I.S., Korolyov A.A. Determination of boundary values of the field of turbulence for hydraulic experiments on pipelines with the text of the inner surface. Vestnik MGSU. 2018, Volume 13. No. 5 (116). p. 426-434 (rus) [Google Scholar]

[16] Altschul, A.D., Calitsun V.I., Mayranovsky F.G. Primery rasschetov po gidravlike [Examples of calculations for hydraulics]. Moscow: Alliance. (2013) 255 p. (rus) [Google Scholar]

[17] Altschul, A.D., Calitsun V.I., Mayranovsky F.G. Primery rasschetov po gidravlike [Examples of calculations for hydraulics]. Moscow: Alliance. (2013) 255 p. (rus) [Google Scholar]

[18] Bryanskya Yu. V. Refinement of the cinematic characteristics of the turbulent flow Civil engineering Journal. (2013) 6 (41). p. 31–38 [Google Scholar]

[19] Dulin V.M., Kozorezov Yu.S., Markovich D.M. Evaluation of turbulent kinetic energy dissipation rate in a free jet flow from PIV measurements. Bulletin of NSU, Series: Physics (2012) Volume 7. p. 53-69 (rus) [Google Scholar]

[20] Girgidov A.D. Izmenenie dissipacii energii pri perehode ot laminarnogo rezima k turbulentnomy [Changing of energy dissipation during flow transformation, from laminar to turbulent] Inzhenerno-stroitelniy zhurnal. (2011) No. 5 (23). p. 49-52 (rus) [Google Scholar]