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    Field Test Results of a Dry Low NOx Combustion System for the MS3002J Regenerative Cycle Gas Turbine

    Source: Journal of Engineering for Gas Turbines and Power:;1997:;volume( 119 ):;issue: 001::page 50
    Author:
    J. R. Maughan
    ,
    K. M. Elward
    ,
    S. M. De Pietro
    ,
    P. J. Bautista
    DOI: 10.1115/1.2815561
    Publisher: The American Society of Mechanical Engineers (ASME)
    Abstract: A dry low NOx combustion system for the MS3002J regenerative cycle gas turbine has been developed and successfully installed at two pipeline compressor stations. Preparation for the DLN retrofits began with initial field testing of the conventional system intended to characterize some of the unique features of the two-shaft, regenerative cycle machine that might affect the proposed premixed combustor design. Combustor transition pieces were instrumented with gas sampling probes for CO2 analysis. Fuel flow to each combustor was measured and controlled. Consequently, the fuel/air ratio, exit temperature, and air flow for each combustor could be determined over the operating range. The dry low NOx combustion system for the MS3002J R/C is based on an existing system for the MS6001B gas turbine. A description of the hardware and system operation is given, Because of the relatively high inlet temperature of the MS3002J R/C (950°F), some portions of the liner required highly efficient effusion cooling. A new transition piece seal was developed to reduce leakage and ensure uniform air flow throughout the machine. A control strategy was developed to guide the machine through diffusion modes of operation at low load to premixed combustion at higher loads. Results showed acceptable component temperatures throughout. Emissions measurements were consistent with previous laboratory measurements and met design targets of 33 ppm NOx and 25ppm CO (at 15 percent O2 ) over the required range. The fuel split between the two premixed flame zones was controlled over the load range of the turbine to optimize CO, NOx , and liner temperatures. Because of the high inlet temperature and low overall temperature rise, dynamic pressure activity was low. Following a successful inspection after 6000 hours of operation, the hardware inspection interval has been set at 12,000 h.
    keyword(s): Combustion systems , Gas turbines , Cycles , Nitrogen oxides , Temperature , Combustion chambers , Fuels , Machinery , Stress , Measurement , Inspection , Air flow , Hardware , Design , Sampling (Acoustical engineering) , Compressors , Pressure , Flow (Dynamics) , Diffusion (Physics) , Cooling , Combustion , Leakage , Emissions , Flames , Probes , Pipelines , Testing AND Turbines ,
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      Field Test Results of a Dry Low NOx Combustion System for the MS3002J Regenerative Cycle Gas Turbine

    URI
    https://yetl.yabesh.ir/yetl1/handle/yetl/118718
    Collections
    • Journal of Engineering for Gas Turbines and Power

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    contributor authorJ. R. Maughan
    contributor authorK. M. Elward
    contributor authorS. M. De Pietro
    contributor authorP. J. Bautista
    date accessioned2017-05-08T23:53:31Z
    date available2017-05-08T23:53:31Z
    date copyrightJanuary, 1997
    date issued1997
    identifier issn1528-8919
    identifier otherJETPEZ-26761#50_1.pdf
    identifier urihttp://yetl.yabesh.ir/yetl/handle/yetl/118718
    description abstractA dry low NOx combustion system for the MS3002J regenerative cycle gas turbine has been developed and successfully installed at two pipeline compressor stations. Preparation for the DLN retrofits began with initial field testing of the conventional system intended to characterize some of the unique features of the two-shaft, regenerative cycle machine that might affect the proposed premixed combustor design. Combustor transition pieces were instrumented with gas sampling probes for CO2 analysis. Fuel flow to each combustor was measured and controlled. Consequently, the fuel/air ratio, exit temperature, and air flow for each combustor could be determined over the operating range. The dry low NOx combustion system for the MS3002J R/C is based on an existing system for the MS6001B gas turbine. A description of the hardware and system operation is given, Because of the relatively high inlet temperature of the MS3002J R/C (950°F), some portions of the liner required highly efficient effusion cooling. A new transition piece seal was developed to reduce leakage and ensure uniform air flow throughout the machine. A control strategy was developed to guide the machine through diffusion modes of operation at low load to premixed combustion at higher loads. Results showed acceptable component temperatures throughout. Emissions measurements were consistent with previous laboratory measurements and met design targets of 33 ppm NOx and 25ppm CO (at 15 percent O2 ) over the required range. The fuel split between the two premixed flame zones was controlled over the load range of the turbine to optimize CO, NOx , and liner temperatures. Because of the high inlet temperature and low overall temperature rise, dynamic pressure activity was low. Following a successful inspection after 6000 hours of operation, the hardware inspection interval has been set at 12,000 h.
    publisherThe American Society of Mechanical Engineers (ASME)
    titleField Test Results of a Dry Low NOx Combustion System for the MS3002J Regenerative Cycle Gas Turbine
    typeJournal Paper
    journal volume119
    journal issue1
    journal titleJournal of Engineering for Gas Turbines and Power
    identifier doi10.1115/1.2815561
    journal fristpage50
    journal lastpage57
    identifier eissn0742-4795
    keywordsCombustion systems
    keywordsGas turbines
    keywordsCycles
    keywordsNitrogen oxides
    keywordsTemperature
    keywordsCombustion chambers
    keywordsFuels
    keywordsMachinery
    keywordsStress
    keywordsMeasurement
    keywordsInspection
    keywordsAir flow
    keywordsHardware
    keywordsDesign
    keywordsSampling (Acoustical engineering)
    keywordsCompressors
    keywordsPressure
    keywordsFlow (Dynamics)
    keywordsDiffusion (Physics)
    keywordsCooling
    keywordsCombustion
    keywordsLeakage
    keywordsEmissions
    keywordsFlames
    keywordsProbes
    keywordsPipelines
    keywordsTesting AND Turbines
    treeJournal of Engineering for Gas Turbines and Power:;1997:;volume( 119 ):;issue: 001
    contenttypeFulltext
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