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Energetic state parameters measurements of LM 2500 naval gas turbine for modeling and simulation purposes
1
Mechanical and Electrical
Engineering Faculty at Polish Naval Academy
in Gdynia.
Publication date: 2017-11-01
Combustion Engines 2017,171(4), 215-221
KEYWORDS
ABSTRACT
This article presents examples of results of energetic state parameters measurements of LM 2500 naval gas turbines operated by the Polish Navy. Currently in operation there are four LM 2500-type engines. In the near future, another LM 2500 engine will commence operations, along with a project 661M patrol ship. The energetic state parameters measurements covers the engine start-up process, their operation in idle mode and within the whole range of load variations, as well as stoppage of engine process. The article presents examples of characteristics specific to the above processes, determined based on the results of studies of this kind of engines. The results of these studies will be used to verify the modeling and simulation results of the internal energy processes occurring in this kind of engine.
REFERENCES (18)
1.
FLYNN, D. (eds.)., Thermal power plants –simulation and control. The Institution of Electrical Engineers. London 2000.
2.
CUI, J.G., ZHANG, L., WANG, G.H. et al. Fault prediction method of the marine gas turbine based on neural network–Markov. Applied Mechanics and Materials. 2014, 538, 171-174.
3.
GAO, J.H., HUANG, Y.Y. Effect of ambient temperature on three–shaft gas turbine performance under different control strategy. Advanced Materials Research. 2012, 424-425, 276-280.
4.
KIM, K.H. Effects of water and steam injection on thermodynamic performance of gas–turbine systems. Applied Mechanics and Materials. 2011, 110-116, 2109-2116.
5.
CAO, L., LI, S.Y., WANG, Z.T. The study of marine gas turbine power system simulation software development. Applied Mechanics and Materials. 2013, 300-301, 166-171.
7.
BASHA, M., SHAAHID, S.M., AL-HADHRAMI, L. Impact of gas turbine frame size on efficiency of gas turbine power plants. Applied Mechanics and Materials. 2014, 492, 447-452.
8.
MEYER, R.T., DECARLO, R.A., PEKAREK, S., DOKTORCIK, C. Gas turbine engine behavioral modeling. School of Electrical and Computer Engineering, Purdue University. West Lafayette, IN 47907-1288, USA 2014.
9.
FUKUDA, M., HARADA, H., YOKOKAWA, T., KITASHIMA, T. Virtual jet engine system. Materials Science Forum. 2010, 638-642, 2239-2244.
10.
POJAWA, B. The investigation of turbine engine in aspect of output torque control. Solid State Phenomena. 2012, 180, 339-348.
12.
WANG, Q., MA, Y.F., HU, X.M. Research on NOx concentration field distribution of a turbo-jet engine emissions. Advanced Materials Research. 2013, 732-733, 46-51.
13.
MARTINS, R.F., BRANCO, C.M., GONÇALVES–COELHO, A.M., GOMES, E.C. Failure mechanisms on exhaust systems of naval gas turbines. Materials Science Forum. 2008, 587-588, 946-950.
14.
ZHU, R., REN, J.X., LI, F.Q. et al. Thermal and stress field analysis in heavy-duty gas turbine exhaust system. Advanced Materials Research. 2012, 516-517, 688-691.
16.
QUAN, X.H., QUAN, J.J., HE, H. Modeling and simulation of a certain warship diesel engine based on AMESim. Applied Mechanics and Materials. 2014, 496-500, 760-763.
17.
CENGEL, Y.A., BOLES, M.A. Termodynamics fifth edition in SI units. McGraw−Hill Higher Education. New York 2006.
18.
Technical, manual and organizational level maintenance – LM–2500 propulsion gas turbine module of propulsion system of Oliver Hazard Perry class frigate FFG–9. Marine and Industrial Engines and Services Division, General Electric Company, Ohio 2003.
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