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Part-load Performance Characteristics of a Lean Burn Catalytic Combustion Gas Turbine System

Part-load Performance Characteristics of a Lean Burn Catalytic Combustion Gas Turbine System
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摘要 The purpose of this study is to compare the part-load performance of a lean burn catalytic combustion gas turbine (LBCCGT) system in three different control modes: varying fuel, bleeding off the fuel mixture flow after the compressor and varying rotational speed. The conversions of methane species for chemical process are considered. A 1D heterogeneous plug flow model was utilized to analyze the system performance. The actual turbomachinery components were designed and predicted performance maps were applied to system performance research. The part-load characteristics under three control strategies were numerically investigated. The main results show that: the combustor inlet temperature is a significant factor that can significantly affect the part-load characteristics of the LBCCGT system; the rotational speed control mode can provide the best performance characteristics for part-load operations; the operation range of the bleed off mode is narrower than that of the speed control mode and wider than that of the fuel only mode; with reduced power, methane does not achieve full conversion over the reactor at the fuel only control mode, which will not warrant stable operation of the turbine system; the thermal efficiency of the LBCCGT system at fuel only control strategy is higher than that at bleed off control strategy within the operation range.
出处 《Journal of Thermal Science》 SCIE EI CAS CSCD 2013年第2期159-167,共9页 热科学学报(英文版)
基金 supported by the National Natural Science Foundation of China(Grant No.51206160)
关键词 Lean burn catalytic combustion gas turbine part-load characteristics control mode 部分负荷性能 轮机系统 性能特点 催化燃烧 燃气 稀燃 速度控制模式 部分负荷特性
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  • 1http://www.methanetomarkets.org/about/methaiie.htm. 1February 2008.
  • 2Ralph A. Dalla Betta, Thomas Rostrup-Nielsen. Applica-tion of catalytic combustion to a 1.5 MW industrial gasturbine. Catalysis Today 1999; 47: 369-375.
  • 3Kuper WJ, Blaauw M, F. van der Berg, Graaf GH et al.Catalytic combustion concept for gas turbines. CatalysisToday 1999; 47: 377-389.
  • 4Carroni R’ Schmidt V,Griffin T. Catalytic combustion forpower generation. Catalysis Today 2002; 75: 287-295.
  • 5Yin J, Su S and Weng YW. Thermodynamic characteris-tics of a low concentration methane catalytic combustiongas turbine. Applied Energy 2010; 87: 2102—2108.
  • 6Yin J and Weng YW. Investigation of combustion andthermodynamic performance of a lean bum catalyticcombustion gas turbine system. Energy Conversion andManagement 2011; 52: 1711-1720.
  • 7Pfefferle WC, Carruba RV, Heck RM, and Roberts GW.Catathermal Combustion: A New Process for Low Emis-sions Fuel Conversion. Proceedings of ASME Gas Tur-bine Conference, Houston, 1975.
  • 8Anderson DN, Tacina RR, and Mroz TS. Performance ofa Catalytic Reactor at Simulated Gas Turbine OperatingConditions. NASA Technical Memorandum, Glenn,1975.
  • 9Pillsbury PW. Update of Full-Scale Catalytic BurnerTesting for Combustion Turbines. Proceedings of ASMEGas Turbine Conference, Amsterdam, 1984.
  • 10RosQord TJ. Catalytic Combustors for Gas Turbine En-gines. Proceedings of AIAA 14th Aerospace ScienceMeeting, Washington, 1976.

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