[1] Letcher T.M.: Why do we have global warming? In: Managing Global Warming. An Interface of Technology and Human Issues . Academic Press, 2019, 3–15.
[2] Rogalev A., Komarov I., Kindra V., Zlyvko O.: Entrepreneurial assessment of sustainable development technologies for power energy sector. Entrep. Sustain. Iss. 6(2018), 1, 429–445.
[3] Bose B.K.: Global warming: Energy, environmental pollution, and the impact of power electronics. IEE Ind. Electron. M. 4(2010), 1, 6–17.
[4] Huang W., Chen W., Anandarajah G.: The role of technology diffusion in a decarbonizing world to limit global warming to well below 2C: An assessment with application of Global TIMES model. Appl. Energ. 208(2017), 291–301.
[5] Ziółkowski P., Zakrzewski W., Badur J., Kaczmarczyk O.: Thermodynamic analysis of the double Brayton cycle with the use of oxy combustion and capture of CO2. Arch. Thermodyn. 34(2013), 2, 23–38.
[6] Barba F.C., Sanchez G.M.D., Segui B.S., Darabkhani H.G., Anthony E.J.: A technical evaluation, performance analysis and risk assessment of multiple novel oxy-turbine power cycles with complete CO2 capture. J. Clean. Prod. 133(2016), 971–985.
[7] Kotowicz J., Job M.: Thermodynamic analysis of the advanced zero emission power plant. Arch. Thermodyn. 37(2016), 1, 87–98.
[8] Allam R.J., Palmer M.R., Brown G.W.J., Fetvedt J., Freed D., Nomoto H., Itoh M., Okita N., Jones C.J.: High efficiency and low cost of electricity generation from fossil fuels while elimi-nating atmospheric emissions, including carbon dioxide. Enrgy Proced. 37(2013), 1135–1149.
[9] Khallaghi N., Hanak D. P., Manovic V.: Techno-economic evaluation of nearzero CO2 emission gas-fired power generation technologies: A review. J. Nat. Gas Sci. Eng. 74(2020), 103095.
[10] Scaccabarozzi R., Gatti M., Martelli E.: Thermodynamic analysis and numerical optimization of the NET Power oxy-combustion cycle. Appl. Energ. 178(2016), 505–526.
[11] Rogalev A., Kindra V., Osipov S., Rogalev N.: Thermodynamic analysis of the net power oxy-combustion cycle. In: Proc. 13th Eur. Conf. on Turbomachinery Fluid Dynamics and Thermodynamics, ETC13, Lausanne April 8-12, 2018, ETC2019-030.
[12] Martins F., Felgueiras C., Smitkova M., Caetano N.: Analysis of fossil fuel energy consumption and environmental impacts in European countries. Energies 12(2019), 6, 964.
[13] Warner K.J., Jones G.A.: The 21st century coal question: China, India, development, and climate change. Atmosphere 10(2019), 8, 476.
[14] Hume S.: Performance evaluation of a supercritical CO2 power cycle coal gasification plant. In: Proc. 5th Int. Symp. of Supercritical CO2 Power Cycles, San Antonio, 2016.
[15] Weiland N., Shelton W., White C., Gray D.: Performance baseline for directfired sCO2 cycles. In: Proc. 5th Int. Symp. of Supercritical CO2 Power Cycles, San Antonio, 2016.
[16] Weiland N., White C.: Techno-economic analysis of an integrated gasification direct-fired supercritical CO2 power cycle. Fuel 212(2018), 613–625.
[17] Zhao Y., Zhao L.,Wang B., Zhang S., Chi J., Xiao Y.: Thermodynamic analysis of a novel dual expansion coal-fueled direct-fired supercritical carbon dioxide power cycle. Appl. Energ. 217(2018), 480–495.
[18] Zhao Y., Wang B., Chi J., Xiao Y.: Parametric study of a direct-fired supercritical carbon dioxide power cycle coupled to coal gasification process. Energ. Convers. Manage. 156(2018), 733–745.
[19] Cormos C.Cr.: Integrated assessment of IGCC power generation technology with carbon capture and storage (CCS). Energy 42(2012), 434–445.
[20] Ebrahimi A., Meratizaman M., Reyhani H. A., Pourali O., Amidpour M.: Energetic, exergetic and economic assessment of oxygen production from two columns cryogenic air separation unit. Energy 90(2015), 1298–1316. [21] Kindra V., Rogalev A., Zlyvko O., Zonov A., Smirnov M., Kaplanovich I.: Research on oxy-fuel combustion power cycle using nitrogen for turbine cooling. Arch. Thermodyn. 41(2020), 4, 191–202.

[1] Friedlingstein P., O’Sullivan M., Jones M.W., Andrew R.M., Hauck J., Olsen A., Zaehle S.: Global carbon budget 2020. Earth Syst. Sci. Data 12(2020), 4, 3269–3340.
[2] Peters G.P., Andrew R.M., Canadell J.G., Friedlingstein P., Jackson R.B., Korsbakken J.I., Peregon A.: Carbon dioxide emissions continue to grow amidst slowly emerging climate policies. Nat. Clim. Change 10(2020), 1, 3–6.
[3] Le Quéré C., Korsbakken J.I., Wilson C., Tosun J., Andrew R., Andres R.J., van Vuuren D.P.: Drivers of declining CO2 emissions in 18 developed economies. Nat. Clim. Change 9(2019), 3, 213–217.
[4] Bui M., Adjiman C.S., Bardow A., Anthony E.J., Boston A., Brown S., Mac Dowell N.: Carbon capture and storage (CCS): The way forward. Energ. Environ. Sci. 11(2018), 5, 1062–1176.
[5] Tong D., Zhang Q., Zheng Y., Caldeira K., Shearer C., Hong C., Qin Y., Davis S.J.: Committed emissions from existing energy infrastructure jeopardize 1.5˚C climate target. Nature 572(2019), 7769, 373–377.
[6] Nejat P., Jomehzadeh F., Taheri M.M., Gohari M., Majid M.Z.A.: A global review of energy consumption, CO2 emissions and policy in the residential sector (with an overview of the top ten CO2 emitting countries). Renew. Sust. Energ. Rev. 43(2015), 843–862.
[7] Vega F., Baena-Moreno F.M., Fernández L.M.G., Portillo E., Navarrete B., Zhang Z.: Current status of CO2 chemical absorption research applied to CCS: Towards full deployment at industrial scale. Appl. Energ. 260(2020), 114313.
[8] Fan J.L., Xu M., Li F., Yang L., Zhang X.: Carbon capture and storage (CCS) retrofit potential of coal-fired power plants in China: The technology lock-in and cost optimization perspective. Appl. Energ. 229(2018), 326–334. [9] Porter R.T., Fairweather M., Kolster C., Mac Dowell N., Shah N.,Woolley R.M.: Cost and performance of some carbon capture technology options for producing different quality CO2 product streams. Int. J. Greenh. Gas Con. 57(2017), 185–195.
[10] Erlach B., Schmidt M., Tsatsaronis G.: Comparison of carbon capture IGCC with pre-combustion decarbonisation and with chemical-looping combustion. Energy 36(2011), 6, 3804–3815.
[11] Atsonios K., Koumanakos A., Panopoulos K.D., Doukelis A., Kakaras E.: Techno-economic comparison of CO2 capture technologies employed with natural gas derived GTCC. In: Proc. ASME Turbo Expo: Turbine Tech. Conf. Exp, San Antonio, June 3–7, 2013, GT2013-95117, V002T07A018.
[12] Kanniche M., Gros-Bonnivard R., Jaud P., Valle-Marcos J., Amann J.M., Bouallou C.: Pre-combustion, post-combustion and oxy-combustion in thermal power plant for CO2 capture. Appl. Therm. Eng. 30(2010), 1, 53–62.
[13] Merkel T.C., Lin H., Wei X., Baker R.: Power plant post-combustion carbon dioxide capture: An opportunity for membranes. J. Membrane Sci. 359(2010), 126– 139.
[14] Merkel T.C., Zhou M., Baker R.W.: Carbon dioxide capture with membranes at an IGCC power plant. J. Membrane Sci. 389(2012), 441–450.
[15] Merkel T.C., Wei X., He Z., White L.S., Wijmans J.G., Baker R.W.: Selective exhaust gas recycle with membranes for CO2 capture from natural gas combined cycle power plants. Ind. Eng. Chem. Res. 52(2013), 3, 1150–1159.
[16] Song C., Liu Q., Deng S., Li H., Kitamura Y.: Cryogenic-based CO2 capture technologies: state-of-the-art developments and current challenges. Renew. Sust. Energ. Rev. 101(2019), 265–278.
[17] Chiesa P., Campanari S., Manzolini G.: CO2 cryogenic separation from combined cycles integrated with molten carbonate fuel cells. Int. J. Hydrogen Energ. 36(2011), 16, 10355–10365.
[18] Komarov I., Kharlamova D., Makhmutov B., Shabalova S., Kaplanovich I.: Natural gas-oxygen combustion in a super-critical carbon dioxide gas turbine combustor. E3S Web Conf. 178(2020), 01027.
[19] Allam, R., Martin, S., Forrest, B., Fetvedt, J., Lu, X., Freed, D., Brown Jr. G.W., Sasaki T., Itoh M., Manning J.: Demonstration of the Allam cycle: An update on the development status of a high efficiency supercritical carbon dioxide power process employing full carbon capture. Enrgy Proced. 114(2017), 5948–5966.
[20] Rogalev A., Kindra V., Osipov S., Rogalev N.: Thermodynamic analysis of the net power oxy-combustion cycle. In: Proc. 13th Eur. Conf. on Turbomachinery Fluid Dynamics and Thermodynamics, ETC13, Lausanne, April 8-12, 2018, ETC2019-030.
[21] Mukherjee S., Kumar P., Yang A., Fennell P.: Energy and exergy analysis of chemical looping combustion technology and comparison with pre-combustion and oxy-fuel combustion technologies for CO2 capture. J. Environ. Chem. Eng. 3(2015), 3, 2104–2114.
[22] Li J., Zhang H., Gao Z., Fu J., Ao W., Dai J.: CO2 capture with chemical looping combustion of gaseous fuels: An overview. Energ. Fuels 31(2017), 4, 3475–3524.
[23] Lyngfelt A., Linderholm C.: Chemical-looping combustion of solid fuels–status and recent progress. Enrgy Proced. 114(2017), 371–386.
[24] Naqvi R., Bolland O.: Multi-stage chemical looping combustion (CLC) for combined cycles with CO2 capture. Int. J. Greenh. Gas Con. 1(2007), 1, 19–30.
[25] Li K., Leigh W., Feron P., Yu H., Tade M.: Systematic study of aqueous monoethanolamine (MEA)-based CO2 capture process: Techno-economic assessment of the MEA process and its improvements. Appl. Energ. 165(2016), 648–659.
[26] Duan L., Zhao M., Yang Y.: Integration and optimization study on the coal-fired power plant with CO2 capture using MEA. Energy 45(2012), 1, 107–116.
[27] Ma Y., Gao J., Wang Y., Hu J., Cui P.: Ionic liquid-based CO2 capture in power plants for low carbon emissions. Int. J. Greenh. Gas Con. 75(2018), 134–139.
[28] Oh S.Y., Binns M., Cho H., Kim J.K.: Energy minimization of MEA-based CO2 capture process. Appl. Energ. 169(2016), 353–362.
[29] Ho M.T., Allinson G.W., Wiley D.E.: Comparison of MEA capture cost for low CO2 emissions sources in Australia. Int. J. Greenh. Gas Con. 5(2011), 1, 49–60.
[30] Rogalev A., Kindra V., Osipov S.: Modeling methods for oxy-fuel combustion cycles with multicomponent working fluid. AIP Conf. Proc. 2047(2018), 1, 020020.
[31] Kunze C., Spliethoff H.: Assessment of oxy-fuel, pre-and post-combustion-based carbon capture for future IGCC plants. Appl. Energ. 94(2012), 109–116.
[32] Scaccabarozzi R., Gatti M., Martelli E.: Thermodynamic analysis and numerical optimization of the NET Power oxy-combustion cycle. Appl. Energ. 178(2016), 505–526.
[33] Rogalev A.N., Kindra V.O., Rogalev N.D., Sokolov V.P., Milukov I.A.: Methods for efficiency improvement of the semi-closed oxy-fuel combustion combined cycle. J. Phys. Conf. Ser. 1111(2018), 1, 012003.
[34] Cormos C.-Cr.: Integrated assessment of IGCC power generation technology with carbon capture and storage (CCS). Energy 42(2012), 434–445.
[35] Ito E., Okada I., Tsukagoshi K., Muyama A., Masada J.: Development of key technologies for the next generation 1700C-class gas turbine. In: Proc. ASME Turbo Expo 2009: Power for Land, Sea, and Air, Orlando, June 8–12, 2009. 919–929.
[36] Ebrahimi A., Meratizaman M., Reyhani H.A., Pourali O., Amidpour M.: Energetic, exergetic and economic assessment of oxygen production from two columns cryogenic air separation unit. Energy 90(2015), 1298–1316. [37] Uddin F., Taqvi S.A., Memon I.: Process simulation and sensitivity analysis of indirect coal gasification using Aspen Plus model. J. Eng. Appl. Sci. 11(2016), 17, 10546–10552.
[38] Kapetaki Z., Brandani P., Brandani S., Ahn H.: Process simulation of a dualstage Selexol process for 95% carbon capture efficiency at an integrated gasification combined cycle power plant. Int. J. Greenh. Gas Con. 39(2015), 17–26.
[39] Kotowicz J., Brzeczek M.: Comprehensive multivariable analysis of the possibility of an increase in the electrical efficiency of a modern combined cycle power plant with and without a CO2 capture and compression installations study. Energy 175 (2019), 1100–1120.
[40] Kvamsdal H.M., Jordal K., Bolland O.: A quantitative comparison of gas turbine cycles with CO2 capture. Energy 175(2007), 10–24.
[41] Gazzani M., Macchi E., Manzolini G.: CO2 capture in integrated gasification combined cycle with SEWGS – Part A: Thermodynamic performances. Fuel 105(2013), 206–219.