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• [1] Chakravarthy, V.S., Shah, R.K., Venkatarathnam, G. (2011). A Review of Refrigeration Methods in the Temperature Range 4–300 K, J. Therm. Sci. Eng. Appl., 3, 02081.
• [2] Cimsit, C., Ozturk IT. (2012). Analysis of compression-absorption cascade refrigeration cycle, Appl Therm Eng, 40, 311-317.
• [3] Reddy, V.S., Kaushik, S.C., Tyagi, S.K. (2014). Exergetic analysis and evaluation of coal-fired supercritical thermal power plant and natural gas-fired combined cycle power Plant, Clean Techn Environ Policy, 16, 489–499.
• [4] Reddy, V.S., Panwar, N.L., Kaushik, S.C. (2012). Exergetic analysis of a vapour compression refrigeration system with R134a, R143a, R152a, R404A, R407C, R410A, R502 and R507A, Clean Technologies and Environmental Policy, 14(1), 47-53.
• [5] Seara, F., Sieres, J., Vazquez, M. (2006). Compression–absorption cascade refrigeration system, Applied Thermal Engineering 26, 502–512.
• [6] Riffat, S.B., Shankland, N. (1993). Integration of absorption and vapor-compression systems, Applied Energy, 46(4), 303-316.
• [7] Kairouani, L., Nehdi, E. (2006). Cooling performance and energy saving of a compression-absorption refrigeration system assisted by geothermal energy, Appl Therm Eng., 26, 288-94.
• [8] Meng, X., Zheng, D., Wang, J., Li, X. (2013). Energy saving mechanism analysis of the absorption-compression hybrid refrigeration cycle, Renewable Energy, 57, 43-50.
• [9] Colorado, D., Velazquez, V.M. (2013). Exergy analysis of a compression-absorption cascade system for refrigeration, Int. J. Energy Res, 37, 1851-65.
• [10] Garimella, S., Brown, A.M., Nagavarapu, A.K. (2011). Waste heat driven absorption/vapor-compression cascade refrigeration system for megawatt scale, high-flux, low-temperature cooling, Int. J. Refrig., 34, 1776–1785.
• [11] Seyfouri, Z., Ameri, M. (2012). Analysis of integrated compression-absorption refrigeration systems powered by a microturbine, International journal of Refrigeration, 35, 1639-1646.
• [12] Wang, L., Aihua, M., Yingying, T., Xiaolong, Cui., Hongli, Cui. (2012). Study on Solar-Assisted Cascade Refrigeration System, International Conference on Future Energy, Environment, and Materials. Energy Procedia, 16, 1503 – 1509.
• [13] Chen, Y., Han, W., Sun, L., Jin, H. (2015). A new absorption–compression refrigeration system using a mid-temperature heat source for freezing application, The 7th International Conference on Applied Energy – ICAE (2015), Energy Procedia, 75, 560 – 565.
• [14] Arora, A., Dixit, M., Kaushik, S.C. (2016). Energy and exergy analysis of a double effect parallel flow LiBr/H2O absorption refrigeration system, Journal of Thermal Engineering, 2(1), 541-549.
• [15] Kutlu, Ç., Ünal, Ş., Erdinc, M. T. (2016). Thermodynamic analysis of bi-evaporator ejector refrigeration cycle using R744 as natural refrigerant, Journal of Thermal Engineering, 2(2), 735-740.
• [16] Dixit, M., Arora, A., Kaushik, S. C. (2016). Energy and exergy analysis of a waste heat driven cycle for triple effect refrigeration, Journal of Thermal Engineering, 2(5), 954-961. [17] Arora, A., Dixit, M., Kaushik, S.C. (2016). Computation of optimum parameters of a half effect water-lithium bromide vapour absorption refrigeration system”, Journal of Thermal Engineering, 2(2), 683-692.
• [18] Jain, V., Sachdeva, G., Kachhwaha, S.S. (2013). NLP model based thermo-economic optimization of vapour compression–absorption cascaded refrigeration system, Energy Conversion and Management, 93, 49–62.
• [19] Jain, V., Kachhwaha, S.S., Sachdeva, G. (2013). Thermodynamic performance analysis of a vapour compression–absorption cascaded refrigeration system, Energy Conversion and Management, 75, 685–700.
• [20] Jain, V., Sachdeva, G., Kachhwaha, S.S., Patel, B. (2016). Thermo-economic and environmental analyses based multi-objective optimization of vapor compression–absorption cascaded refrigeration system using NSGA-II technique, Energy Conversion and Management, 113, 230–242.
• [21] Dixit, M., Kaushik, S.C., Arora, A. (2015). Energy and exergy analysis of absorption-compression cascade refrigeration system, Journal of Thermal Engineering, 1(1), 1-12.
• [22] Kaushik, S.C., Arora, A., Bilga P. S. (2016). Alternatives in Refrigeration and Air Conditioning, I.K. International House Publishing,1/e, India.
• [23] Megdouli, K., Tashtoush, B.M., Nahdi, E., Elankhdar, M., Mhimid, A., Kairouani, L. (2017). Performance analysis of a combined vapor compression cycle and ejector cycle for refrigeration cogeneration, International journal of refrigeration, 74, 517–527.
• [24] Patel, B., Desai, N.B., Kachhwaha, S.S. (2017). Thermo-economic analysis of solar-biomass organic Rankine cycle powered cascaded vapor compression-absorption system, Solar energy, 157, 920-933.
• [25] Chen, Y., Han, W., Jin, H. (2017). Proposal and analysis of a novel heat driven absorption-compression refrigeration system at low temperatures, Applied Energy, 185, 2106-2116.
• [26] Yingjie, Xu., Jiang, N., Qin Wang, Q., Han, X., Gao, Z., Chen, G. (2017). Proposal and thermodynamic analysis of an ejection-compression refrigeration cycle driven by low-grade heat, Energy Conversion and Management, 145, 343-352.
• [27] Yingjie, Xu., Jiang, N., Pan, F., Wang, Q., Gao, Z., Chen, G. (2017). Comparative study on two low-grade heat driven absorption-compression refrigeration cycles based on energy, exergy, economic and environmental (4E) analyses, Energy Conversion and Management, 133, 535-347.
• [28] Klein, S.A., Alvarado, F. (2005). Engineering Equation Solver Version 7.441, F-Chart software Middleton: WI.
• [29] Pa.´tek, J., Klomfar, J. (2006). A computationally effective formulation of the thermodynamic properties of water–lithium bromide solutions from 273K to 500 K over full composition range, International Journal of Refrigeration, 29, 566–578.