Flow simulation in air intake system of gas turbine
https://doi.org/10.30724/1998-9903-2021-23-4-66-83
Abstract
THE PURPOSE. To study the issues of air intake system’s performance as the part of the gas turbines. To estimate the possibility of modeling different performance factors of air intake systems with numerical simulation methods. To develop the recommendations of setting up the grid and the numerical models for researches in air intake system’s performance and assessing the technical condition of elements of it.
METHODS. The main method, which was used during the whole study, is computational fluid dynamics with usage of CAE-systems.
RESULTS. During the study the recommendations for setting up the numerical model were developed. Such factors as grid model parameters, roughness scale, pressure drop in elements of air intake system and some more were investigated. The method for heat exchanger’s performance simulation were created for modeling the air temperature raising.
CONCLUSION. The air intake system’s performance analysis becomes one of the actual topics for research because of the high demands of gas turbines to air, which is used in its annulus. The main part of these researches is in analysis of dangerous regimes of work (e.g. the icing process of annulus elements) or in assessing technical condition of air intake systems and its influence to the gas turbine as a whole. The developed method of numerical simulation allows to get the adequate results with low requirements for computational resources. Also this method allows to model the heat exchanger performance and study its defects’ influence to the performance of air intake system as a whole.
About the Authors
V. L. BlinovRussian Federation
Vitaly L. Blinov
Ekaterinburg
I. S. Zubkov
Russian Federation
Ilya S. Zubkov
Ekaterinburg
Yu. M. Brodov
Russian Federation
Yuri M. Brodov
Ekaterinburg
B. E. Murmanskij
Russian Federation
Boris E. Murmanskiy
Ekaterinburg
References
1. Kozachenko A.N. Оperation and maintenance of gas turbine installations on gas pipelines. Moscow: Publishing House «Oil and Gas» Gubkin Russian State University of Oil and Gas. 2000. p. 92.
2. Rafikov L.G. Operation of gas turbine units of gas pump stations. Moscow: Publishing House «Nedra». 1992. p. 237.
3. Koval V.A. Features of the working processes of gas turbine and combined cycle units and its parts. Kharkov: Monography. 2013. p. 334.
4. Mikhaylov V.E. Prevention of the icing of air intake system of gas turbine as a part of energetic combined cycle units. Power Engineering: Research. Equipment. Technology. 2009. pp. 3-12.
5. Brun K. Gas turbine packaging options and features Proceedings of 45th & 32nd Pump Symposia, Houston, Texas. 2016. 31 p.
6. Provolovich O.V. Air cleaning systems for gas turbines. Analysis and optimization approaches. Proceedings of the LXVI Scientific and technical session of Russian Academy of Sciences, Perm. 2019. pp. 92-100.
7. Galantsev N.K. Multipurpose air intake systems for gas pump units. Proceedings of the Fifth Oil and Gas Conference «Ecosafety – 2014», Moscow. 2014. pp. 11-15.
8. Galantsev N.K. Multipurpose air intake systems developing for the marine operation based on the air filters and AAF International technologies. Proceedings of the RAO / CIS Offshore 2013, Saint-Petersburg. 2013. pp. 172-175.
9. Meher-Homji C.B. Gas turbine blade failure-causes, avoidance and troubleshooting. Proceedings of 27th Texas A&M Turbomachinery Symposium, Houston, Texas, 1998.
10. McGuigan P.T. Salt in the marine environment and the creation of a standard input for gas turbine air intake filtration systems. ASME Paper. 2004. GT2004-53113.
11. Orhon D. Gas turbine air filtration systems for offshore applications. Proceedings of 44th Turbomachinery Symposium, Houston, Texas. 2015.
12. Olstein L.E. Engine surge. Moscow: Big Russian Encyclopedia. 1994. pp. 439-440.
13. Wilcox M.A. Successful selection an operation of gas turbine inlet filtration systems. Proceedings of 40th Turbomachinery Symposium, Houston Texas. 2011.
14. Wilcox M.A. Gas turbine filter efficiency test procedure: liquid and solid particles. Proceedings of GMRC, Dallas, Texas. 2011.
15. Prikhodko A.A. Numerical simulation of the icing processes of aerodynamic surfaces with big undercooled water drops. Letters to Jouranl of Technical Physics. 2014. pp. 75-82.
16. Klemenkov G.P. Aircraft icing processes simulation in wind tunnel. Thermophysics and Aeromechanics. 2008. pp. 563-572.
17. Goraj Z. An overview of the deicing and antiicing technologies with prospects for the future. Proceedings of 24th International Congress of the Aeronautical Sciences (ICAS-2004), Warsaw. 2004. 11 p.
18. Didenko A.S. Finite-element modeling of the operation of antiicing system of the high- altitude propeller. Proceedings of the International Research Competition, Saint-Petersburg. 2020. pp. 12-24.
19. Slovikov S.V. Improvement of the antiicing system of the air-intake system of gas turbine unit based on PS-90 engine operating in ground conditions. Candidate of Technical Sciences Dissertation, Perm. 2008. p. 192.
20. Idelsohn S.R. To mesh or not to mesh. That is the question… Computer Methods in Applied Mechanics and Engineering. 2006. pp. 4681-4696.
21. Zienkiewicz O.C. The finite element method for solid and structural mechanics. Elsivier. 2005. p. 648.
22. Wilcox D.C. Turbulence modeling for CFD. DCW Industries. 1998. p. 536.
23. Wilcox D.C. Formulation of the k-Omega turbulence model Revisited. AIAA Journal. 2008. pp. 2823-2838.
24. Menter F.R. Two-equation eddy-viscosity turbulence models for engineering. AIAA Journal. 1994. pp. 1598-1605.
25. Menter F.R. Development of a generalized k-Omega two-equation turbulence model. New Results in Numerical and Experimental Fluid Mechanics XII. 2020. pp. 101-109.
26. Versteeg H. An introduction to computational fluid dynamics: the finite volume method (2nd ed.). Pearson Education Limited. 2007. 517 p.
27. Korkodinov Ya.A. K-Epsilon turbulence models review. Vestnik PNRPU. Mechanical engineering, material science. 2013. pp. 5-15.
28. Blinov V.L. Parametric profiling of 2d compressor rows for multicriteria optimisation task. Power Engineering: Research. Equipment. Technology. 2015. pp. 86-95.
29. Blinov V.L. Identification of corner separation modelling in axial compressor stage. E3S Web Conf. 2020.
30. Zubkov I.S. Developing of the model for analysis of influence of the axial compressor blade row defects on the gas turbine units performance. Proceedings of the XXIII Regional Research Competition «Scientific Olymp», Ekaterinburg. 2020. pp. 10-17.
31. Blinov V.L. Redesign of an axial compressor with mass flow reduction of 30%. WIT Transactions on Ecology and the Environment. 2019. pp. 93-101.
32. Russo F. Scaling of turbulence intensity for low-speed flow in smooth pipes. Flow Meas. Instum. 2016. pp. 101-114.
Review
For citations:
Blinov V.L., Zubkov I.S., Brodov Yu.M., Murmanskij B.E. Flow simulation in air intake system of gas turbine. Power engineering: research, equipment, technology. 2021;23(4):66-83. (In Russ.) https://doi.org/10.30724/1998-9903-2021-23-4-66-83