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    Design Concept for Large Output Graz Cycle Gas Turbines

    Source: Journal of Engineering for Gas Turbines and Power:;2008:;volume( 130 ):;issue: 001::page 11701
    Author:
    H. Jericha
    ,
    W. Sanz
    ,
    E. Göttlich
    DOI: 10.1115/1.2747260
    Publisher: The American Society of Mechanical Engineers (ASME)
    Abstract: The introduction of closed cycle gas turbines with their capability of retaining combustion generated CO2 can offer a valuable contribution to the Kyoto goal and to future power generation. Therefore research and development work at the Graz University of Technology since the 1990s has led to the Graz Cycle, a zero emission power cycle of highest efficiency. It burns fossil fuels with pure oxygen which enables the cost-effective separation of the combustion CO2 by condensation. The efforts for the oxygen supply in an air separation plant are partly compensated by cycle efficiencies far higher than for modern combined cycle plants. Upon the basis of the previous work, the authors present the design concept for a large power plant of 400 MW net power output making use of the latest developments in gas turbine technology. The Graz Cycle configuration is changed, insofar as condensation and separation of combustion generated CO2 takes place at the 1 bar range in order to avoid the problems of condensation of water out of a mixture of steam and incondensable gases at very low pressure. A final economic analysis shows promising CO2 mitigation costs in the range of $20–30/ton CO2 avoided. The authors believe that they present here a partial solution regarding thermal power production for the most urgent problem of saving our climate.
    keyword(s): Pressure , Flow (Dynamics) , Compressors , Design , Turbines , Cycles , Steam , Gas turbines , Condensation , Cooling , Combustion AND Industrial plants ,
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      Design Concept for Large Output Graz Cycle Gas Turbines

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    contributor authorH. Jericha
    contributor authorW. Sanz
    contributor authorE. Göttlich
    date accessioned2017-05-09T00:28:05Z
    date available2017-05-09T00:28:05Z
    date copyrightJanuary, 2008
    date issued2008
    identifier issn1528-8919
    identifier otherJETPEZ-26984#011701_1.pdf
    identifier urihttp://yetl.yabesh.ir/yetl/handle/yetl/138016
    description abstractThe introduction of closed cycle gas turbines with their capability of retaining combustion generated CO2 can offer a valuable contribution to the Kyoto goal and to future power generation. Therefore research and development work at the Graz University of Technology since the 1990s has led to the Graz Cycle, a zero emission power cycle of highest efficiency. It burns fossil fuels with pure oxygen which enables the cost-effective separation of the combustion CO2 by condensation. The efforts for the oxygen supply in an air separation plant are partly compensated by cycle efficiencies far higher than for modern combined cycle plants. Upon the basis of the previous work, the authors present the design concept for a large power plant of 400 MW net power output making use of the latest developments in gas turbine technology. The Graz Cycle configuration is changed, insofar as condensation and separation of combustion generated CO2 takes place at the 1 bar range in order to avoid the problems of condensation of water out of a mixture of steam and incondensable gases at very low pressure. A final economic analysis shows promising CO2 mitigation costs in the range of $20–30/ton CO2 avoided. The authors believe that they present here a partial solution regarding thermal power production for the most urgent problem of saving our climate.
    publisherThe American Society of Mechanical Engineers (ASME)
    titleDesign Concept for Large Output Graz Cycle Gas Turbines
    typeJournal Paper
    journal volume130
    journal issue1
    journal titleJournal of Engineering for Gas Turbines and Power
    identifier doi10.1115/1.2747260
    journal fristpage11701
    identifier eissn0742-4795
    keywordsPressure
    keywordsFlow (Dynamics)
    keywordsCompressors
    keywordsDesign
    keywordsTurbines
    keywordsCycles
    keywordsSteam
    keywordsGas turbines
    keywordsCondensation
    keywordsCooling
    keywordsCombustion AND Industrial plants
    treeJournal of Engineering for Gas Turbines and Power:;2008:;volume( 130 ):;issue: 001
    contenttypeFulltext
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