Gülen, S. C., Smith, R. W., Second Law Efficiency of the Rankine Bottoming Cycle of a Combined Cycle Power Plant, Journal of Engineering for Gas Turbines and Power, 132 (2010), 011801.CrossRefGoogle Scholar

Gülen, S. C., Importance of Auxiliary Power Consumption on Combined Cycle Performance, Journal of Engineering for Gas Turbines and Power, 133 (2011), 04180.CrossRefGoogle Scholar

Elmasri, M. A. GASCAN – An Interactive Code for Thermal Analysis of Gas Turbine Systems, Journal of Engineering for Gas Turbines and Power, 110 (1986), 201–210.Google Scholar

Elmasri, M. A., Pourkey, F., “Prediction of Cooling Flow Requirements for Advanced Utility Gas Turbines – Part 1: Analysis and Scaling of the Effectiveness Curve,” ASME 86-WA/HT-43.Google Scholar

Elmasri, M. A., “Prediction of Cooling Flow Requirements for Advanced Utility Gas Turbines – Part 2: Influence of Ceramic Thermal Barrier Coatings,” ASME 86-WA/HT-44.Google Scholar

Khodak, E. A., Romakhova, G. A., Thermodynamic Analysis of Air-Cooled Gas Turbine Plants, ASME Journal of Engineering for Gas Turbines and Power, 123 (2001), 265–270.Google Scholar

Wilcock, R. C., Young, J. B., Horlock, J. H., The Effect of Turbine Blade Cooling on the Cycle Efficiency of Gas Turbine Power Cycles, Journal of Engineering for Gas Turbines and Power, 127 (2005), 109–120.CrossRefGoogle Scholar

Horlock, J. H., Watson, D. T., Jones, T. V., Limitations on Gas Turbine Performance Imposed by Large Turbine Cooling Flows, Journal of Engineering for Gas Turbines and Power, 123 (2001), 487–494.Google Scholar

Briesch, M. S., Bannister, R. L., Diakunchak, I. S., Huber, D. J., A Combined Cycle Designed to Achieve Greater than 60 Percent Efficiency, Journal of Engineering for Gas Turbines and Power, 117 (1995), 734–741.Google Scholar

Teraji, D., “Mercury™ 50 Field Evaluation and Product Introduction,” Paper 05-IAGT-1.1, 16th Symposium on Industrial Application of Gas Turbines (IAGT), October 12–14, 2005, Banff, Alberta, Canada.Google Scholar

Gülen, S. C., “Advanced Fossil Fuel Power Systems,” in Energy Conversion, 2nd edition, Eds. Goswami, D.Y., Kreight, F. (Boca Raton, FL: CRC Press, 2017).Google Scholar

Horlock, J. H., The Evaporative Gas Turbine (EGT) Cycle, Journal of Engineering for Gas Turbines and Power, 120 (1998), 336–343.Google Scholar

Nakhamkin, M. et al., The Cascaded Humidified Advanced Turbine (CHAT), Journal of Engineering for Gas Turbines and Power, 118 (1996), 565–571.CrossRefGoogle Scholar

Aramayo-Prudencio, A., Young, J. B., “The Analysis and Design of Saturators for Power Generation Cycles: Part 1 – Thermodynamics,” ASME Paper GT2003-38945, ASME Turbo Expo 2003, June 16–19, 2003, Atlanta, GA.CrossRefGoogle Scholar

Aramayo-Prudencio, A., Young, J. B., “The Analysis and Design of Saturators for Power Generation Cycles: Part 2 – Heat and Mass Transfer,” ASME Paper GT2003-38946, ASME Turbo Expo 2003, June 16–19, 2003, Atlanta, GA.Google Scholar

Digumarthi, R., Chang, C.-N., Cheng Cycle Implementation on a Small gas Turbine Engine, Journal of Engineering for Gas Turbines and Power, 106 (1984), 699–702.Google Scholar

Cheng, D. Y., “The Distinction between the Cheng and STIG Cycles,” ASME Paper GT2006-90382, ASME Turbo Expo 2006, May 8–11, 2006, Barcelona, Spain.Google Scholar

deBiasi, V., “Air Injected Power Augmentation Validated by Fr7FA Peaker Tests,” Gas Turbine World, March–April 2002 issue, pp. 12–15.Google Scholar