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A novel hybrid solar preheating intercooled gas turbine based on linear Fresnel reflector

  • 1.

    Department of Thermal Science and Energy Engineering, University of Science and Technology of China, Hefei 230027, China

  • 2.

    Department of Mechanical Engineering, Sana'a University, Sana'a, Yemen.

Cite this:
https://doi.org/10.52396/JUST-2021-0065
  • Received Date: 28 January 2021
  • Rev Recd Date: 05 April 2021
  • Publish Date: 31 July 2021
    Abstract

  • Abstract

    In this study, a new hybrid Solar Preheating Intercooled Gas Turbine (SPIcGT) is originally introduced, in which a linear Fresnel solar field used for preheating the compressed air before entering the combustor.The solar Preheating Gas Turbine (SPGT) has been used as a reference gas turbine cycle. Eight performance indicators have been used in the analysis under Guangzhou (China) weather data. The study reveals that the SPIcGT is superior to the SPGT system as it is capable of boosting the fuel-based efficiency by 19.5% versus 0.26% for the SPGT system.The SPIcGT has lower specific fuel consumption (about 7017 kJ/kWh) compared with the 10358 kJ/kWh for SPGT.Meanwhile,the solar integration of the linear Fresnel solar field into an intercooled gas turbine cycle is more economical than the solar integration with the conventional gas turbine cycle. The levelized electricity cost of 4.34 USȻ/kWh was achieved for SPIcGT which is lower than 5.15% for SPGT. Moreover,the fuel consumption and CO2 emissions can be reduced greatly (about 19.3 %) by integrating the linear Fresnel solar field with the intercooled gas turbine.

    Abstract

    In this study, a new hybrid Solar Preheating Intercooled Gas Turbine (SPIcGT) is originally introduced, in which a linear Fresnel solar field used for preheating the compressed air before entering the combustor.The solar Preheating Gas Turbine (SPGT) has been used as a reference gas turbine cycle. Eight performance indicators have been used in the analysis under Guangzhou (China) weather data. The study reveals that the SPIcGT is superior to the SPGT system as it is capable of boosting the fuel-based efficiency by 19.5% versus 0.26% for the SPGT system.The SPIcGT has lower specific fuel consumption (about 7017 kJ/kWh) compared with the 10358 kJ/kWh for SPGT.Meanwhile,the solar integration of the linear Fresnel solar field into an intercooled gas turbine cycle is more economical than the solar integration with the conventional gas turbine cycle. The levelized electricity cost of 4.34 USȻ/kWh was achieved for SPIcGT which is lower than 5.15% for SPGT. Moreover,the fuel consumption and CO2 emissions can be reduced greatly (about 19.3 %) by integrating the linear Fresnel solar field with the intercooled gas turbine.
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    • References(48)
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    Dabwan Y N, Pei G, Gao G, et al. A novel integrated solar tri-generation system for cooling, freshwater and electricity production purpose: Energy, economic and environmental performance analysis. Solar Energy, 2020, 198: 139-150.
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    Livshits M, Kribus A. Solar hybrid steam injection gas turbine (STIG) cycle. Solar Energy, 2012, 86(1): 190-199.
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    Selwynraj A I, Iniyan S, Polonsky G, et al. Exergy analysis and annual exergetic performance evaluation of solar hybrid STIG (steam injected gas turbine) cycle for Indian conditions. Energy, 2015, 80: 414-427.
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    Selwynraj A I, Iniyan S, Suganthi L, et al. Annual thermodynamic analysis of solar power with steam injection gas turbine (STIG) cycle for indian conditions. Energy Procedia, 2014, 57: 2920-2929.
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    PolonskyG, Kribus A. Performance of the solar hybrid STIG cycle with latent heat storage. Applied Energy, 2015, 155: 791-803.
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    Dabwan Y N, Pei G, Jing L, et al. Development and assessment of integrating parabolic trough collectors with gas turbine trigeneration system for producing electricity, chilled water, and freshwater. Energy, 2018, 162: 364-379.
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    DabwanY N, Pei G. A novel integrated solar gas turbine trigeneration system for production of power, heat and cooling: Thermodynamic-economic-environmental analysis. Renewable Energy, 2020, 152: 925-941.
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    Li Y, Yang Y. Impacts of solar multiples on the performance of integrated solar combined cycle systems with two direct steam generation fields. Applied Energy, 2015, 160: 673-680.
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    Zhu G, Neises T, Turchi C, et al. Thermodynamic evaluation of solar integration into a natural gas combined cycle power plant. Renewable Energy, 2015, 74: 815-824.
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    Adibhatla S, Kaushik S C. Energy, exergy and economic (3E) analysis of integrated solar direct steam generation combined cycle power plant. Sustainable Energy Technologies and Assessments, 2017, 20: 88-97.
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    Wang J, Yang Y. A hybrid operating strategy of combined cooling, heating and power system for multiple demands considering domestic hot water preferentially: A case study. Energy, 2017, 122: 444-457.
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    Bellos E, Tzivanidis C, Torosian K. Energetic, exergetic and financial evaluation of a solar driven trigeneration system. Thermal Science and Engineering Progress, 2018, 7: 99-106.
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    Popov D. Innovative solar augmentation of gas turbine combined cycle plants. Applied Thermal Engineering, 2014, 64(1): 40-50.
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    Matjanov E. Gas turbine efficiency enhancement using absorption chiller: Case study for Tashkent CHP. Energy, 2020, 192: 116625.
    [23]
    Behar O. A novel hybrid solar preheating gas turbine. Energy Conversion and Management, 2018, 158: 120-132.
    [24]
    Wang J, Lu Z, Li M, et al. Energy, exergy, exergoeconomic and environmental (4E) analysis of a distributed generation solar-assisted CCHP (combined cooling, heating and power) gas turbine system. Energy, 2019, 175: 1246-1258.
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    Power G. Proprietary G E. Fim Proposal. [2021-03-15] , http://www.centralesdelacosta.com.ar/ciclo_combinado/PARTE%20II/PARTE%20II%20-%20%20%20ANEXO%20II%20-%20TURBINA%20GE%20FRAME%20%206FA%20EXISTENTE.pdf, 2012.
    [26]
    Marin G, Osipov B, Mendeleev D. Research on the influence of fuel gas on energy characteristics of a gas turbine. in E3S Web of Conferences. EDP Sciences, 2019, 124: 05063.
    [27]
    Abudu K, Igie U, Roumeliotis I, et al. Aeroderivative gas turbine back-up capability with compressed air injection. Applied Thermal Engineering, 2020, 180: 115844.
    [28]
    Ol'khovskii G G, Radin Y A, Ageev A V, et al. Thermal tests of LMS100 gas-turbine units at the Dzhubga thermal power plant. Power Technology and Engineering, 2016 50(3): 294-302.
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    Power G. LMS100* gas turbine (50 Hz). 2015
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    Walsh P P, Fletcher P. Gas Turbine Performance. John Wiley & Sons, 2004.
    [31]
    Saravanamuttoo H I, Rogers G F C, Cohen H. Gas Turbine Theory. Pearson Education, 2001.
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    Canière H, Willockx A, Dick E, et al. Raising cycle efficiency by intercooling in air-cooled gas turbines. Applied Thermal Engineering, 2006, 26(16): 1780-1787.
    [33]
    Lefebvre A H, Ballal D R. Gas Turbine Combustion: Alternative Fuels and Emissions. CRC press, 2010.
    [34]
    Reale M J, Prochaska J K. New high efficiency simple cycle gas turbine–GE's LMS100. GER-4222A, GE Energy, 2004.
    [35]
    Power G. LMS100 power plants. General Electric Company, 2019.
    [36]
    Bejan A. Advanced Engineering Thermodynamics. John Wiley & Sons, 2016.
    [37]
    Ellingwood K, Mohammadi K, Powell K. Dynamic optimization and economic evaluation of flexible heat integration in a hybrid concentrated solar power plant. Applied Energy, 2020, 276: 115513.
    [38]
    MishraS, Sanjay Y H. Energy and exergy analysis of air-film cooled gas turbine cycle: Effect of radiative heat transfer on blade coolant requirement. Applied Thermal Engineering, 2018, 129: 1403-1413.
    [39]
    Mishra S, Sharma A, Kumari A, et al. Response surface methodology based optimization of air-film blade cooled gas turbine cycle for thermal performance prediction. Applied Thermal Engineering, 2020, 164: 114425.
    [40]
    Montes M, Abánades A, Martinez-Val J, et al. Solar multiple optimization for a solar-only thermal power plant, using oil as heat transfer fluid in the parabolic trough collectors. Solar Energy, vol. 83, no. 12: 2165-2176, 2009.
    [41]
    Dabwan Y N, G. Pei, G. Gao, J. Li, and J. Feng. Performance analysis of integrated linear fresnel reflector with a conventional cooling, heat, and power tri-generation plant. Renewable Energy, 2019, 138: 639-650.
    [42]
    Mokheimer E M A, Dabwan Y N, Habib M A. Optimal integration of solar energy with fossil fuel gas turbine cogeneration plants using three different CSP technologies in Saudi Arabia. Applied Energy, 2017, 185: 1268-1280.
    [43]
    Dersch J, Geyer M, Herrmann U, et al. Trough integration into power plants: A study on the performance and economy of integrated solar combined cycle systems. Energy, 2004, 29(5): 947-959.
    [44]
    Energy Information Administration. Levelized Cost and Levelized Avoided Cost of New Generation Resources in the Annual Energy Outlook 2018. US, 2018.
    [45]
    Nezammahalleh H, Farhadi F, Tanhaemami M. Conceptual design and techno-economic assessment of integrated solar combined cycle system with DSG technology. Solar Energy, 2010, 84(9): 1696-1705.
    [46]
    Cau G, Cocco D, Tola V. Performance and cost assessment of integrated solar combined cycle systems (ISCCSs) using CO2 as heat transfer fluid. Solar Energy, 2012 86(10): 2975-2985.
    [47]
    Horn M, Führing H, Rheinländer J. Economic analysis of integrated solar combined cycle power plants: A sample case: The economic feasibility of an ISCCS power plant in Egypt. Energy, 2004, 29(5): 935-945.
    [48]
    Power G. Aeroderivative Gas Turbine LMS100. [2021-03-15] , https://www.ge.com/gas-power/products/gas-turbines/lms100.
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    [1]
    Dabwan Y N, Mokheimer E M. Optimal integration of linear Fresnel reflector with gas turbine cogeneration power plant. Energy Conversion and Management, 2017 148(Supplement C): 830-843.
    [2]
    Bellos E, Tzivanidis C, Papadopoulos A. Optical and thermal analysis of a linear Fresnel reflector operating with thermal oil, molten salt and liquid sodium. Applied Thermal Engineering, 2018 133: 70-80.
    [3]
    Dabwan Y N, Pei G, Gao G, et al. A novel integrated solar tri-generation system for cooling, freshwater and electricity production purpose: Energy, economic and environmental performance analysis. Solar Energy, 2020, 198: 139-150.
    [4]
    Livshits M, Kribus A. Solar hybrid steam injection gas turbine (STIG) cycle. Solar Energy, 2012, 86(1): 190-199.
    [5]
    Selwynraj A I, Iniyan S, Polonsky G, et al. Exergy analysis and annual exergetic performance evaluation of solar hybrid STIG (steam injected gas turbine) cycle for Indian conditions. Energy, 2015, 80: 414-427.
    [6]
    Selwynraj A I, Iniyan S, Polonsky G, et al. An economic analysis of solar hybrid steam injected gas turbine (STIG) plant for Indian conditions. Applied Thermal Engineering, 2015, 75: 1055-1064.
    [7]
    Selwynraj A I, Iniyan S, Suganthi L, et al. Annual thermodynamic analysis of solar power with steam injection gas turbine (STIG) cycle for indian conditions. Energy Procedia, 2014, 57: 2920-2929.
    [8]
    PolonskyG, Kribus A. Performance of the solar hybrid STIG cycle with latent heat storage. Applied Energy, 2015, 155: 791-803.
    [9]
    Ni M, Yang T, Xiao G, et al. Thermodynamic analysis of a gas turbine cycle combined with fuel reforming for solar thermal power generation. Energy, 2017, 137: 20-30.
    [10]
    He Y, Zheng S, Xiao G. Solar hybrid steam-injected gas turbine system with novel heat and water recovery. Journal of Cleaner Production, 2020, 276: 124268.
    [11]
    Bianchini A, Pellegrini M, Saccani C. Solar steam reforming of natural gas integrated with a gas turbine power plant. Solar Energy, 2013, 96: 46-55.
    [12]
    Bianchini A, Pellegrini M, Saccani C. Solar steam reforming of natural gas integrated with a gas turbine power plant: Economic assessment. Solar Energy, 2015, 122: 1342-1353.
    [13]
    Dabwan Y N, Pei G, Jing L, et al. Development and assessment of integrating parabolic trough collectors with gas turbine trigeneration system for producing electricity, chilled water, and freshwater. Energy, 2018, 162: 364-379.
    [14]
    DabwanY N, Pei G. A novel integrated solar gas turbine trigeneration system for production of power, heat and cooling: Thermodynamic-economic-environmental analysis. Renewable Energy, 2020, 152: 925-941.
    [15]
    Mokheimer E M A, Dabwan Y N, Habib M A, et al. Development and assessment of integrating parabolic trough collectors with steam generation side of gas turbine cogeneration systems in Saudi Arabia. Applied Energy, 2015, 141: 131-142.
    [16]
    Li Y, Yang Y. Impacts of solar multiples on the performance of integrated solar combined cycle systems with two direct steam generation fields. Applied Energy, 2015, 160: 673-680.
    [17]
    Zhu G, Neises T, Turchi C, et al. Thermodynamic evaluation of solar integration into a natural gas combined cycle power plant. Renewable Energy, 2015, 74: 815-824.
    [18]
    Adibhatla S, Kaushik S C. Energy, exergy and economic (3E) analysis of integrated solar direct steam generation combined cycle power plant. Sustainable Energy Technologies and Assessments, 2017, 20: 88-97.
    [19]
    Wang J, Yang Y. A hybrid operating strategy of combined cooling, heating and power system for multiple demands considering domestic hot water preferentially: A case study. Energy, 2017, 122: 444-457.
    [20]
    Bellos E, Tzivanidis C, Torosian K. Energetic, exergetic and financial evaluation of a solar driven trigeneration system. Thermal Science and Engineering Progress, 2018, 7: 99-106.
    [21]
    Popov D. Innovative solar augmentation of gas turbine combined cycle plants. Applied Thermal Engineering, 2014, 64(1): 40-50.
    [22]
    Matjanov E. Gas turbine efficiency enhancement using absorption chiller: Case study for Tashkent CHP. Energy, 2020, 192: 116625.
    [23]
    Behar O. A novel hybrid solar preheating gas turbine. Energy Conversion and Management, 2018, 158: 120-132.
    [24]
    Wang J, Lu Z, Li M, et al. Energy, exergy, exergoeconomic and environmental (4E) analysis of a distributed generation solar-assisted CCHP (combined cooling, heating and power) gas turbine system. Energy, 2019, 175: 1246-1258.
    [25]
    Power G. Proprietary G E. Fim Proposal. [2021-03-15] , http://www.centralesdelacosta.com.ar/ciclo_combinado/PARTE%20II/PARTE%20II%20-%20%20%20ANEXO%20II%20-%20TURBINA%20GE%20FRAME%20%206FA%20EXISTENTE.pdf, 2012.
    [26]
    Marin G, Osipov B, Mendeleev D. Research on the influence of fuel gas on energy characteristics of a gas turbine. in E3S Web of Conferences. EDP Sciences, 2019, 124: 05063.
    [27]
    Abudu K, Igie U, Roumeliotis I, et al. Aeroderivative gas turbine back-up capability with compressed air injection. Applied Thermal Engineering, 2020, 180: 115844.
    [28]
    Ol'khovskii G G, Radin Y A, Ageev A V, et al. Thermal tests of LMS100 gas-turbine units at the Dzhubga thermal power plant. Power Technology and Engineering, 2016 50(3): 294-302.
    [29]
    Power G. LMS100* gas turbine (50 Hz). 2015
    [30]
    Walsh P P, Fletcher P. Gas Turbine Performance. John Wiley & Sons, 2004.
    [31]
    Saravanamuttoo H I, Rogers G F C, Cohen H. Gas Turbine Theory. Pearson Education, 2001.
    [32]
    Canière H, Willockx A, Dick E, et al. Raising cycle efficiency by intercooling in air-cooled gas turbines. Applied Thermal Engineering, 2006, 26(16): 1780-1787.
    [33]
    Lefebvre A H, Ballal D R. Gas Turbine Combustion: Alternative Fuels and Emissions. CRC press, 2010.
    [34]
    Reale M J, Prochaska J K. New high efficiency simple cycle gas turbine–GE's LMS100. GER-4222A, GE Energy, 2004.
    [35]
    Power G. LMS100 power plants. General Electric Company, 2019.
    [36]
    Bejan A. Advanced Engineering Thermodynamics. John Wiley & Sons, 2016.
    [37]
    Ellingwood K, Mohammadi K, Powell K. Dynamic optimization and economic evaluation of flexible heat integration in a hybrid concentrated solar power plant. Applied Energy, 2020, 276: 115513.
    [38]
    MishraS, Sanjay Y H. Energy and exergy analysis of air-film cooled gas turbine cycle: Effect of radiative heat transfer on blade coolant requirement. Applied Thermal Engineering, 2018, 129: 1403-1413.
    [39]
    Mishra S, Sharma A, Kumari A, et al. Response surface methodology based optimization of air-film blade cooled gas turbine cycle for thermal performance prediction. Applied Thermal Engineering, 2020, 164: 114425.
    [40]
    Montes M, Abánades A, Martinez-Val J, et al. Solar multiple optimization for a solar-only thermal power plant, using oil as heat transfer fluid in the parabolic trough collectors. Solar Energy, vol. 83, no. 12: 2165-2176, 2009.
    [41]
    Dabwan Y N, G. Pei, G. Gao, J. Li, and J. Feng. Performance analysis of integrated linear fresnel reflector with a conventional cooling, heat, and power tri-generation plant. Renewable Energy, 2019, 138: 639-650.
    [42]
    Mokheimer E M A, Dabwan Y N, Habib M A. Optimal integration of solar energy with fossil fuel gas turbine cogeneration plants using three different CSP technologies in Saudi Arabia. Applied Energy, 2017, 185: 1268-1280.
    [43]
    Dersch J, Geyer M, Herrmann U, et al. Trough integration into power plants: A study on the performance and economy of integrated solar combined cycle systems. Energy, 2004, 29(5): 947-959.
    [44]
    Energy Information Administration. Levelized Cost and Levelized Avoided Cost of New Generation Resources in the Annual Energy Outlook 2018. US, 2018.
    [45]
    Nezammahalleh H, Farhadi F, Tanhaemami M. Conceptual design and techno-economic assessment of integrated solar combined cycle system with DSG technology. Solar Energy, 2010, 84(9): 1696-1705.
    [46]
    Cau G, Cocco D, Tola V. Performance and cost assessment of integrated solar combined cycle systems (ISCCSs) using CO2 as heat transfer fluid. Solar Energy, 2012 86(10): 2975-2985.
    [47]
    Horn M, Führing H, Rheinländer J. Economic analysis of integrated solar combined cycle power plants: A sample case: The economic feasibility of an ISCCS power plant in Egypt. Energy, 2004, 29(5): 935-945.
    [48]
    Power G. Aeroderivative Gas Turbine LMS100. [2021-03-15] , https://www.ge.com/gas-power/products/gas-turbines/lms100.
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