Optimal integration of recompression supercritical CO2 Brayton cycle with main compression intercooling in solar power tower system based on exergoeconomic approach
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M. Liu | Ming Liu | Junjie Yan | Jiping Liu | Yuegeng Ma | T. Morozyuk
[1] John H. Holland,et al. Adaptation in Natural and Artificial Systems: An Introductory Analysis with Applications to Biology, Control, and Artificial Intelligence , 1992 .
[2] M. J. Moran,et al. Thermal design and optimization , 1995 .
[3] Andrea Lazzaretto,et al. SPECO: A systematic and general methodology for calculating efficiencies and costs in thermal systems , 2006 .
[4] M. Wagner. Simulation and predictive performance modeling of utility-scale central receiver system power plants , 2008 .
[5] Mahmood Yaghoubi,et al. Exergoeconomic analysis and optimization of an Integrated Solar Combined Cycle System (ISCCS) using genetic algorithm , 2011 .
[6] Aron Dobos,et al. System Advisor Model, SAM 2011.12.2: General Description , 2012 .
[7] Abdallah Khellaf,et al. A review of studies on central receiver solar thermal power plants , 2013 .
[8] Brian D. Iverson,et al. Supercritical CO2 Brayton cycles for solar-thermal energy , 2013 .
[9] Garvin A. Heath,et al. Molten Salt Power Tower Cost Model for the System Advisor Model (SAM) , 2013 .
[10] Peter A. Jacobs,et al. Dynamic characteristics of a direct-heated supercritical carbon-dioxide Brayton cycle in a solar thermal power plant , 2013 .
[11] J. M. Martínez-Duart,et al. Analytical model for solar PV and CSP electricity costs: Present LCOE values and their future evolution , 2013 .
[12] C. Turchi,et al. A Comparison of Supercritical Carbon Dioxide Power Cycle Configurations with an Emphasis on CSP Applications , 2013 .
[13] Brian D. Iverson,et al. High-efficiency thermodynamic power cycles for concentrated solar power systems , 2014 .
[14] Jeong-Ik Lee,et al. Study of various Brayton cycle designs for small modular sodium-cooled fast reactor , 2014 .
[15] Brian D. Iverson,et al. Review of high-temperature central receiver designs for concentrating solar power , 2014 .
[16] Eduardo José Cidade Cavalcanti,et al. Exergoeconomic analysis of a solar-powered/fuel assisted Rankine cycle for power generation , 2015 .
[17] J. Coventry,et al. A review of sodium receiver technologies for central receiver solar power plants , 2015 .
[18] Ricardo Vasquez Padilla,et al. Exergetic analysis of supercritical CO2 Brayton cycles integrated with solar central receivers , 2015 .
[19] Amin M. Elsafi. Exergy and exergoeconomic analysis of sustainable direct steam generation solar power plants , 2015 .
[20] Yongping Yang,et al. Impacts of solar multiples on the performance of integrated solar combined cycle systems with two direct steam generation fields , 2015 .
[21] Fahad A. Al-Sulaiman,et al. Performance comparison of different supercritical carbon dioxide Brayton cycles integrated with a solar power tower , 2015 .
[22] M. A. Reyes-Belmonte,et al. Optimization of a recompression supercritical carbon dioxide cycle for an innovative central receiver solar power plant , 2016 .
[23] Yiping Dai,et al. Exergoeconomic analysis of utilizing the transcritical CO2 cycle and the ORC for a recompression supercritical CO2 cycle waste heat recovery: A comparative study , 2016 .
[24] Rob Hovsapian,et al. Effect of multi-tank thermal energy storage, recuperator effectiveness, and solar receiver conductance on the performance of a concentrated solar supercritical CO2-based power plant operating under different seasonal conditions , 2016 .
[25] Ming Liu,et al. Thermodynamic study of main compression intercooling effects on supercritical CO2 recompression Brayton cycle , 2017 .
[26] Clifford K. Ho,et al. Concentrating Solar Power Gen3 Demonstration Roadmap , 2017 .
[27] David Sánchez,et al. Supercritical carbon dioxide cycles for power generation: A review , 2017 .
[28] C. Ho,et al. Techno-Economic Comparison of Solar-Driven SCO2 Brayton Cycles Using Component Cost Models Baselined With Vendor Data and Estimates , 2017 .
[29] Ali Abbas,et al. Analysis for flexible operation of supercritical CO2 Brayton cycle integrated with solar thermal systems , 2017 .
[30] David Sánchez,et al. Fundamental Thermo-Economic Approach to Selecting sCO2 Power Cycles for CSP Applications , 2017 .
[31] Ya-Ling He,et al. Integration between supercritical CO2 Brayton cycles and molten salt solar power towers: A review and a comprehensive comparison of different cycle layouts , 2017 .
[32] Fahad A. Al-Sulaiman,et al. Energy and exergy analyses of solar tower power plant driven supercritical carbon dioxide recompression cycles for six different locations , 2017 .
[33] Kun Wang,et al. Thermodynamic analysis and optimization of a molten salt solar power tower integrated with a recompression supercritical CO2 Brayton cycle based on integrated modeling , 2017 .
[34] Ming Liu,et al. Proposal and assessment of a novel supercritical CO2 Brayton cycle integrated with LiBr absorption chiller for concentrated solar power applications , 2018 .
[35] Jeong Ik Lee,et al. Prediction of inner pinch for supercritical CO 2 heat exchanger using Artificial Neural Network and evaluation of its impact on cycle design , 2018 .
[36] Peiwen Li,et al. A systematic comparison of different S-CO2 Brayton cycle layouts based on multi-objective optimization for applications in solar power tower plants , 2018 .
[37] Minh Tri Luu,et al. Advanced control strategies for dynamic operation of a solar-assisted recompression supercritical CO2 Brayton power cycle , 2018 .
[38] George Tsatsaronis,et al. Comparative exergoeconomic assessment of coal-fired power plants – Binary Rankine cycle versus conventional steam cycle , 2018 .
[39] Yen Chean Soo Too,et al. Impact of ambient temperature on supercritical CO2 recompression Brayton cycle in arid locations: Finding the optimal design conditions , 2018, Energy.