Numerical research on effect of thermal insulation on a gas pipeline's performance in Far North environment
Matematičeskie zametki SVFU, Tome 24 (2017), pp. 96-108.

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A research on gas flow parameters related to pressure drop in a pipeline is conducted. Temperature and pressure distributions along the pipeline are established in accordance with the equations of gas dynamics and the state equation of a real gas with known parameters of incoming gas. Dependence of the mass flow on the known outlet pressure is evaluated. Thermal interaction of the moving gas and the frozen soil is simulated in a conjugate form and thus the real physical process is described more accurately. By means of numerical modeling with the finite elements method various thermal insulation options are examined.
Keywords: gas pipeline, conjugate problem, permafrost, mathematical modeling.
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V. A. Ivanov. Numerical research on effect of thermal insulation on a gas pipeline's performance in Far North environment. Matematičeskie zametki SVFU, Tome 24 (2017), pp. 96-108. http://geodesic.mathdoc.fr/item/SVFU_2017_24_a8/

[1] Bondarev E. A., Vasil’ev V. I., Voevodin A. F., Pavlov N. N., Shadrina A. P., Termogidrodinamika Sistem Dobychi i Transporta Gaza, Nauka, Novosibirsk, 1988

[2] Bondarev E. A., Argunova K. K., Rozhin I. I., “Influence of layer parameters on hydrate formation in gas wells in permafrost rock”, Sovremennye Problemy Teplofiziki i Teploenergetiki v Usloviiah Krainego Severa, Proc. 10th Sci. Conf. dedicated to prof. N. S. Ivanov (Yakutsk, Dec. 7, 2011), Izdat. Dom SVFU, Yakutsk, 2013, 6–18

[3] Bondarev E. A., Rozhin I. I., Argunova K. K., “Simulation of hydrate formation in gas wells at thermal interaction with rocks”, Superkomp'yuternye Tekhnologii Matematicheskogo Modelirovanija, Proc. 2nd Int. Conf., Izdat. Dom SVFU, Yakutsk, 2014, 130–139

[4] Argunova K. K., Bondarev E. A., Rozhin I. I., “Mathematical modeling of hydrate formation during natural gas production”, Zbornik radova Konferencije MI, Prirodno-matematicki fakultet Uiverziteta u Pristini, Kosovska Mitrovica; Institute of Computational Technologies SB RAS, Novosibirsk; Stamparija Ofsetpres, Kraljevo, Beograd, 2014, 43–50

[5] Bondarev E. A., Rozhin I. I., Argunova K. K., “Modeling the formation of hydrates in gas wells in their thermal interaction with rocks”, J. Engin. Physics and Thermophysics, 87:4 (2014), 900–907 | DOI

[6] Bondarev E. A., Rozhin I. I., Argunova K. K., “Modeling the formation of hydrates in gas wells in their thermal interaction with rocks”, Sovremennye Problemy Teplofiziki i Teploenergetiki v Usloviiah Krainego Severa, Proc. 11th Sci. Conf. dedicated to prof. N. S. Ivanov (Yakutsk, Dec. 7, 2013), Izdat. Dom SVFU, Yakutsk, 2016, 49–61

[7] Bondarev E. A., Rozhin I. I., Voevodin A. F., Argunova K. K., “Thermohydrodinamics of the pipeline «Sila Sibiri»”, Problemy Optimizacii Slozhnyh Sistem, Proc. 12th Int. Asia Workshop (Novosibirsk, Dec. 12–16, 2016), 79–86

[8] Latonov V. V., Gurevich G. R., “Calculating of compressibility coefficient of natural gases”, Gaz. Promyshlen., 1969, no. 2, 7–9

[9] Samarskij A. A., Vabishhevich P. N., Vychislitel'naia Teploperedacha, Editorial URSS, Moscow, 2003

[10] Rozhin I. I., Numerical Modeling of Transient Processes in Applied Problems of Heat Transfer with Phase Transitions, Diss. Kand. Fiz.-Mat. Nauk, Yakutsk, 2005

[11] Semenov S. M., Metody Otsenki Posledstvii Izmeneniia Klimata dlia Fizicheskih i Biologicheskih Sistem, Rosgidromet, Moscow, 2012

[12] Porhaev G. V., Shhelokov V. K., Prognozirovanie Temperaturnogo Rezhima Vechnomerzlyh Gruntov na Zastraivaemyh Territorijah, Strojizdat, Leningrad, 1980

[13] Pavlov A. V., Teploobmen Pochvy s Atmosferoi v Severnyh i Umerennyh Shirotah Territorii SSSR, Yakut. Knizh. Izdat, Yakutsk, 1975

[14] Fedorov A. N., Maksimov T. H., Gavril’ev P. P. et al., Spasskaia Pad: Kompleksnye Issledovaniia Merzlotnyh Landshaftov, Izdat. Inst. Merzlotoved. SO RAN, Yakutsk, 2006

[15] Gavrilova M. K., Klimat Tsentral'noi Yakutii, Yakut. Knizh. Izdat., Yakutsk, 1973

[16] Ivanov V. A., Rozhin I. I., “Conjugate problem of the thermal interaction of the pipeline with surrounding permafrost rocks”, Vestn. SVFU, 62:6 (2017), 47–58