[1] Kalina A.I., Generation of Energy by Means of a Working Fluid, and Regeneration of a Working Fluid (1982)
[2] Nag P.K., Gupta A.V.S.S.K.S., Exergy Analysis of the Kalian Cycle, Applied Thermal Engineering (1998) 427-439.
[3] Xinxin Z., Maogang H., Ying Z., A Review of Research on the Kalian Cycle, Renewable and Sustainable Energy Reviews (2012) 5309-5318.
[4] Kalina A., Leibowitz H., Application of the Kalina Cycle Technology to Geothermal Power Generation, Geothermal Resources Council Transactions (1989)p. 11-605.
[5] Hettiarachchi H., Golubovic M., Worek W., The Performance of the Kalina Cycle System 11 (KCS-11) with Low-Temperature Heat Sources, Journal Energy Resour Techno (2007) 243-247.
[6] Nasruddin, et al., Energy and Exergy Analysis of Kalina Cycle System (KCS) 34 with Mass Fraction Ammonia-Water Mixture Variation, Mechanical Science and Technology (2009)1871-1876.
[7] Lolos P.A., Rogdakis E.D., Thermodynamic Analysis Of A Kalina Power Unit Driven By Low Temperature Heat Sources. Thermal science (2009) 13: 21-31.
[8] Sun F., Ikegami Y., Jia B., A Study on Kalina Solar System with an Auxiliary Superheater, Renewable Energy (2012) 41: 210-219.
[9] Shankar Ganesh N., Srinivas T., Optimized Kalina Cycle, in Frontiers in Automobile and Mechanical Engineering (FAME)(2010).
[10] Wang J., et al., Parametric Analysis and Optimization of a Kalina Cycle Driven by Solar Energy. Applied Thermal Engineering (2013)50(1): 408-415.
[11] Li X., Zhang Q., Li,X., A Kalina Cycle with Ejector, Energy (2013) 54(0): 212-219.
[12] Xu F., Yogi Goswami D., Bhagwat S. S., A Combined Power/Cooling Cycle. Energy (2000) 25(3): 233-246.
[13] Tamm G., et al., Theoretical and Experimental Investigation of an Ammonia–Water Power and Refrigeration Thermodynamic Cycle, Solar Energy (2004) 76(1): p. 217-228.
[14] Martin C., Goswami D.Y., Effectiveness of Cooling Production with a Combined Power and Cooling Thermodynamic Cycle, Applied Thermal Engineering, (2006) 26(5–6): 576-582.
[15] Padilla R.V., et al., Analysis of Power and Cooling Cogeneration Using Ammonia-Water Mixture, Energy (2010) 35(12): 4649-4657.
[16] Demirkaya G., et al., Analysis of a Combined Power and Cooling Cycle for Low-Grade Heat Sources, Energy Research (2010) 35: 1145-1157.
[17] Jawahar C., et al., Simulation Studies on Gax Based Kalina Cycle for Both Power and Cooling Applications, Applied Thermal Engineering (2011).
[18] Zare V., et al., Thermoeconomic Analysis and Optimization of an Ammonia–Water Power/Cooling Cogeneration Cycle,Energy (2012).
[19] Ma S., et al., Thermodynamic Analysis of a New Combined Cooling, Heat and Power System Driven by Solid Oxide Fuel Cell Based on Ammonia–Water Mixture, Journal of Power Sources, (2011) 196(20): 8463-8471.
[20] Meyer L., et al., Exergoenvironmental Analysis for Evaluation of the Environmental Impact of Energy Conversion Systems, Energy(2009) 34(1): 75-89.
[21] Boyano A., et al., Exergoenvironmental Analysis of a Steam Methane Reforming Process for Hydrogen Production, Energy (2011) 36(4): 2202-2214.
[22] Petrakopoulou F., et al., Exergoeconomic and Exergoenvironmental Analyses of a Combined Cycle Power Plant with Chemical Looping Technology, International Journal of Greenhouse Gas Control (2011)5(3): 475-482.
[23] Petrakopoulou F., et al., Exergoeconomic and Exergoenvironmental Evaluation of Power Plants Including CO2 Capture, Chemical Engineering Research and Design (2011) 89(9): 1461-1469.
[24] Atılgan R., et al., Environmental Impact Assessment of a Turboprop Engine with the Aid of Exergy, Energy (2013) 58: 664-671.
[25] Abusoglu A., M.S. Sedeeq, Comparative Exergoenvironmental Analysis and Assessment of Various Residential Heating Systems, Energy and Buildings, (2013) 62: 268-277.
[26] Blanco-Marigorta A.M., Masi M., Manfrida G., Exergo-Environmental Analysis of a Reverse Osmosis Desalination Plant in Gran Canaria, Energy (2014)76: 223-232.
[27] Hamut H., Dincer I., Naterer G., Exergoenvironmental Analysis of Hybrid Electric Vehicle Thermal Management Systems, Journal of Cleaner Production (2014)67187-196.
[28] Khoshgoftar Manesh, M., et al., Exergoeconomic and Exergoenvironmental Evaluation of the Coupling of a Gas Fired Steam Power Plant with a Total Site Utility System. Energy Conversion and Management, (2014)77: 469-483.
[29] Keçebaş A., Exergoenvironmental Analysis for a Geothermal District Heating System, An Application, Energy, (2016)94: 391-400.
[30] Fergani Z., Touil D., Morosuk T., Multi-Criteria Exergy Based Optimization of an Organic Rankine Cycle for Waste Heat Recovery in the Cement Industry, Energy Conversion and Management (2016)112: 81-90.
[31] Mosaffa A., Farshi L.G., Exergoeconomic and Environmental Analyses of an Air Conditioning System Using Thermal Energy Storage, Applied Energy(2016) 162: 515-526.
[32] Kalogirou S.A., Solar Energy Engineering, Processes and Systems. (2009).
[33] Bejan A., Moran M.J., Thermal Design and Optimization (1996).
[34] Li. H., et al., Performance Characteristics of R1234yf Ejector-Expansion Refrigeration Cycle, Applied Energy, (2014)121: 96-103.
[35] Wang J., Dai Y., Sun Z., A Theoretical Study on a Novel Combined Power and Ejector Refrigeration Cycle, International Journal of Refrigeration (2009)32(6): 1186-1194.
[36] Çengel Y.A., Boles M.A., Thermodynamics: an Engineering Approach, McGraw-Hill Higher Education (2006).
[37] Ogriseck S., Integration of Kalina Cycle in a Combined Heat and Power Plant, A Case Study, Applied Thermal Engineering (2009) 29(14–15): 2843-2848.
[38] Index M.S.E.C., Economic Indicators. Chemical engineering, September (2013)
76.
[39] Ahmadi P., Dincer I., Rosen M.A., Multi-Objective Optimization of a Novel Solar-Based Multigeneration Energy System. Solar Energy (2014)108: 576-591.
[40] Smith R.M., Chemical Process, Design and Integration(2005).
[41] Zhou C., Doroodchi E., Moghtaderi B., An in-Depth Assessment of Hybrid Solar–Geothermal Power Generation, Energy Conversion and Management, (2013)74: 88-101.
[42] Campos Rodríguez C.E., et al., Exergetic and Economic Comparison of ORC and Kalina Cycle for Low Temperature Enhanced Geothermal System in Brazil, Applied Thermal Engineering (2012).
[43] El-Emam R.S., Dincer I., Exergy and Exergoeconomic Analyses and Optimization of Geothermal Organic Rankine Cycle, Applied Thermal Engineering(2013)59(1): 435-444.
[44] Petrakopoulou F., et al., Environmental Evaluation of a Power Plant Using Conventional and Advanced Exergy-Based Methods, Energy(2012)45(1): 23-30.
[45] Boyano A., et al., Exergoenvironmental Analysis of a Steam Methane Reforming Process for Hydrogen Production, Energy(2011)36(4): 2202-2214.
[46] Kanoglu, M., Bolatturk A., Performance and Parametric Investigation of a Binary Geothermal Power Plant by Exergy. Renewable Energy(2008) 33(11): 2366-2374.
[47] Van Gool W., Energy Policy, Fairy Tales and Factualities, in Innovation and Technology—Strategies and Policies, Springer (1997) 93-105.
[48] Solver., E.E.E., Available at: http://www.fchart.com/.
[49] P-L Y., Multiple-Criteria Decision Making, Concepts, Techniques, and Extensions, Springer Science & Business Media (2013).