[1] Jouhara H., Khordehgah N., Almahmoud S., et al., Waste heat recovery technologies and applications. Thermal Science and Engineering Progress, 2018, 6: 268–289.
[2] Chan C.W., Ling C.J., Roskilly A.P., A review of chemical heat pumps, thermodynamic cycles and thermal energy storage technologies for low grade heat utilization. Applied Thermal Engineering, 2013, 53(2): 160–176.
[3] Zhou N., Wang X., Chen Z., et al., Experimental study on Organic Rankine Cycle for waste heat recovery from low-temperature flue gas. Energy, 2013, 55: 216–225.
[4] El May S., Sayadi Z., Bellagi A., Feasibility of air-cooled solar air-conditioning in hot arid climate regions. International Journal of Sustainable Energy, 2009, 28(4): 183–93.
[5] Kitto J.B., Developments in pulverized coal fired boiler technology. Missouri valley electric association engineering conference. Kansas, USA, 1996.
[6] Li Y., Lin F., Zhang S., et al., A new type of district heating method with co-generation based on absorption heat exchanger (co-ah cycle). Energy Conversion & Management, 2011, 52(2): 1200–1207.
[7] Ge Z., Li J., Duan Y.Y., et al., Thermodynamic performance analyses and optimization of dual-loop Organic Rankine Cycles for internal combustion engine waste heat recovery. Applied Science, 2019, 9: 680.
[8] Huang S., Li C., Tan T., et al., An improved system for utilizing low-temperature waste heat of flue gas from coal-fired power plants. Entropy, 2017, 19(8): 423.
[9] Wang Y., Cao L., Li X., et al., A novel thermodynamic method and insight of heat transfer characteristics on economizer for supercritical thermal power plant. Energy, 2020, 191: 116573.
[10] Wang Z.Q., Yu Y.H., Xia X.X., Comparison of conventional and advanced exergy analysis for dual-loop organic Rankine cycle used in engine waste heat recovery. Journal of Thermal Science, 2021, 30: 177–190.
[11] Liu L.C., Zhu T., Gao N.P., et al., A review of modeling approaches and tools for the off-design simulation of Organic Rankine Cycles. Journal of Thermal Science, 2018, 27: 305–320.
[12] Quoilin S., Decalye S., Tchanche B.F., et al., Thermo-economic optimization of waste heat recovery Organic Rankine Cycles. Applied Thermal Engineering, 2011, 31: 2885–2893.
[13] Li Y.Y., Li W.Y., Gao X.Y., et al., Thermodynamic analysis and optimization of organic Rankine cycles based on radial-inflow turbine design. Applied Thermal Engineering, 2021, 184: 116277.
[14] Ogriseck S., Integration of Kalina cycle in a combined heat and power plant, a case study. Applied Thermal Engineering, 2009, 29: 2843–2848.
[15] Somers C., Mortazavi A., Hwang Y., et al., Modeling water/lithium bromide absorption chillers in ASPEN Plus. Applied Energy, 2011, 88(11): 4197–4205.
[16] Somers C., Mortazavi A., Hwang Y., et al., Modeling absorption chillers in ASPEN. Dissertations & Theses-Gradworks, 2009, 11(5): 428–441.
[17] Zhong W., Ji W., Cao X., et al., Flue gas water recovery by indirect cooling technology for large-scale applications: a review. Journal of Thermal Science, 2020, 29(5): 1223–1241.
[18] Liu C., Han W., Wang Z., et al., Proposal and assessment of an engine-based distributed steam and power cogeneration system integrated with an absorption-compression heat pump. Journal of Thermal Science, 2020, 29(5): 1165–1179.
[19] Chen Y., Xu D., Chen Z., et al., Performance analysis and evaluation of a supercritical CO2 Rankine Cycle coupled with an absorption refrigeration cycle. Journal of Thermal Science, 2020, 29(4): 1036–1052.
[20] Lin X., Li Q., Wang L., et al., Thermo-economic analysis of typical thermal systems and corresponding novel system for a 1000 MW single reheat ultra-supercritical thermal power plant. Energy, 2020, 201: 117560.
[21] Omendra K.S., Application of Kalina cycle for augmenting performance of bagasse-fired cogeneration plant of sugar industry. Fuel, 2020, 267: 117176.
[22] Jin Y., Gao N., Zhu T., Techno-economic analysis on a new conceptual design of waste heat recovery for boiler exhaust flue gas of coal-fired power plants. Energy Conversion and Management, 2019, 200: 112097.
[23] Kotowicz J., Michalski S., Thermodynamic and economic analysis of a supercritical and an ultracritical oxy-type power plant without and with waste heat recovery. Applied Energy, 2016, 179: 806–820.
[24] Jin Y.L., Gao N.P., Zhu T., Techno-economic analysis on a new conceptual design of waste heat recovery for boiler exhaust flue gas of coal-fired power plants. Energy Conversion and Management, 2019, 200: 112097.
[25] Xu Z.Y., Gao J.T., Mao H.C., et al., Double-section absorption heat pump for the deep recovery of low-grade waste heat. Energy Conversion and Management, 2020, 220: 113072.
[26] Xiong J., Zhao H.B., Chen M., et al., Simulation study of an 800 MW oxy-combustion pulverized coal fired power plant. Energy & Fuels, 2011, 25: 2405–2415.
[27] Zhang X.T., Li K.Y., Zhang C., et al., Performance analysis of boil gasification coupled with a coal-fired boiler system at various loads. Waste Management, 2020, 105: 84–91.
[28] Pei X.H., He B.S., Yan L.B., et al., Process simulation of oxy-fuel combustion for a 300 MW pulverized coal-fired power plant using Aspen Plus. Energy Conversion and Management, 2013, 76: 581–587.
[29] Xu Y., Wu Y.N., Deng S.M., et al., Thermodynamic analysis and conceptual design for partial coal gasification air preheating coal-fired combined cycle. Journal of Thermal Science, 2004, 13: 85–90.
[30] Kotowicz J., Michalski S., Thermodynamic and economic analysis of a supercritical and an ultracritical oxy-type power plant without and with waste heat recovery. Applied Energy, 2016, 179: 806–820.
[31] Zhang Y., Wang Y., Liu Y., et al., Experiments and simulation of varying parameters in cryogenic flue gas desulfurization process based on Aspen plus. Separation and Purification Technology, 2021, 259: 118223.
[32] Cui Z., Du Q., Gao J., Development of integrated technology for waste heat recovery from humid flue gas of hot water boiler. International Journal of Energy Research, 2021, 45: 19560–19573.
[33] Lan W., Chen G., Zhu X., et al., Biomass gasification-gas turbine combustion for power generation system model based on ASPEN PLUS. Science of the Total Environment, 2018, 628–629: 1278–1286.
[34] Pei X., He B., Yan L., et al., Process simulation of oxy-fuel combustion for a 300 MW pulverized coal-fired power plant using Aspen Plus. Energy Conversion and Management, 2013, 76: 581–587.
[35] Zhou L., Deshpande K., Zhang X., et al., Process simulation of chemical looping combustion using ASPEN plus for a mixture of biomass and coal with various oxygen carriers. Energy, 2020, 195: 116955.
