[1] Wang J., Duan. L., Jiang. Y., Energy-saving optimization study on 1000 MW double reheat ultra-supercritical coal-fired power generation system integrated with solar energy. Clean Coal Technology, 2022, 28(11): 73–81. (in Chinese)
[2] Hou. H., Zhan. N., Ding. Z., Review on solar aided coal-fired power generation. Clean Coal Technology, 2022, 28(11): 49–56. (in Chinese)
[3] De_Richter R.K., Ming T., Caillol S., et al., Fighting global warming by GHG removal: Destroying CFCs and HCFCs in solar-wind power plant hybrids producing renewable energy with no-intermittency. International Journal of Greenhouse Gas Control, 2016, 49: 449–472.
[4] Olabi A.G., Renewable energy and energy storage systems. Energy, 2017, 136: 1–6.
[5] Sunku Prasad J., Muthukumar P., Desai F., et al., A critical review of high-temperature reversible thermochemical energy storage systems. Applied Energy, 2019, 254: 113733.
[6] Nithyanandam K., Pitchumani R., Design of a latent thermal energy storage system with embedded heat pipes. Applied Energy, 2014, 126: 266–280.
[7] Mao Q., Chen H., Yang Y., Energy storage performance of a PCM in the solar storage tank. Journal of Thermal Science, 2019, 28(2): 195–203.
[8] Wang W., Pan Z., Lei B., et al., Numerical simulation of charging performance of combined sensible-latent heat storage system with a macro-encapsulation method. Journal of Thermal Science, 2022.
DOI: https://doi.org/10.1007/s11630-022-1681-y
[9] Nahhas T., Py X., Sadiki N., Experimental investigation of basalt rocks as storage material for high-temperature concentrated solar power plants. Renewable and Sustainable Energy Reviews, 2019, 110: 226–235.
[10] Alva G., Lin Y., Fang G., An overview of thermal energy storage systems. Energy, 2018, 144: 341–378.
[11] Dizaji H.B., Hosseini H., A review of material screening in pure and mixed-metal oxide thermochemical energy storage (TCES) systems for concentrated solar power (CSP) applications. Renewable and Sustainable Energy Reviews, 2018, 98: 9–26.
[12] Griffond A.C.M., Sofianos M.V., Sheppard D.A., et al., High-temperature thermochemical energy storage using metal hydrides: Destabilisation of calcium hydride with silicon. Journal of Alloys and Compounds, 2021, 858: 158229.
[13] Schmidt M., Linder M., Power generation based on the Ca(OH)2/CaO thermochemical storage system— Experimental investigation of discharge operation modes in lab scale and corresponding conceptual process design. Applied Energy, 2017, 203: 594–607.
[14] Ammendola P., Raganati F., Miccio F., et al., Insights into utilization of strontium carbonate for thermochemical energy storage. Renewable Energy, 2020, 157: 769–781.
[15] Da Y., Xuan Y., Teng L., et al., Calcium-based composites for direct solar-thermal conversion and thermochemical energy storage. Chemical Engineering Journal, 2020, 382: 122815.
[16] Berdiyeva P., Karabanova A., Blanchard D., et al., Sr(NH3)8Cl2-Expanded Natural Graphite composite for thermochemical heat storage applications studied by in-situ neutron imaging. Journal of Energy Storage, 2021, 34: 102176.
[17] Ortiz C., Valverde J.M., Chacartegui R., et al., The Calcium-looping (CaCO3/CaO) process for thermochemical energy storage in Concentrating Solar Power plants. Renewable and Sustainable Energy Reviews, 2019, 113: 109252.
[18] Chen J., Duan L., Sun Z., Review on the development of sorbents for calcium looping. Energy & Fuels, 2020, 34: 7806–7836.
[19] Tregambi C., Di Lauro F., Montagnaro F., et al., 110th Anniversary: Calcium looping coupled with concentrated solar power for carbon capture and thermochemical energy storage. Industrial & Engineering Chemistry Research, 2019, 58(47): 21262–21272.
[20] Sun J., Liu W., Chen H., et al., Stabilized CO2 capture performance of extruded-spheronized CaO-based pellets by microalgae templating. Proceedings of the Combustion Institute, 2017, 36(3): 3977–3984.
[21] Alovisio A., Chacartegui R., Ortiz C., et al., Optimizing the CSP-Calcium looping integration for thermochemical energy storage. Energy Conversion and Management, 2017, 136: 85–98.
[22] Ortiz C., Chacartegui R., Valverde J.M., et al., Power cycles integration in concentrated solar power plants with energy storage based on calcium looping. Energy Conversion and Management, 2017, 149: 815–829.
[23] Li B., Li Y., Sun H., et al., Thermochemical heat storage performance of CaO pellets fabricated by extrusion-spheronization under harsh calcination conditions. Energy & Fuels, 2020, 34(5): 6462–6473.
[24] Benitez-Guerrero M., Sarrion B., Perejon A., et al., Large-scale high-temperature solar energy storage using natural minerals. Solar Energy Materials and Solar Cells, 2017, 168: 14–21.
[25] Benitez-Guerrero M., Valverde J.M., Sanchez-Jimenez P.E., et al., Multicycle activity of natural CaCO3 minerals for thermochemical energy storage in concentrated solar power plants. Solar Energy, 2017, 153: 188–199.
[26] Sarrion B., Valverde J.M., Perejon A., et al., On the multicycle activity of natural Limestone/Dolomite for thermochemical energy storage of concentrated solar power. Energy Technology, 2016, 4(8): 1013–1019.
[27] Yasipourtehrani S., Tian S., Strezov V., et al., Development of robust CaO-based sorbents from blast furnace slag for calcium looping CO2 capture. Chemical Engineering Journal, 2020, 387: 124140.
[28] Wu S., Zhou C., Tremain P., et al., A phase change calcium looping thermochemical energy storage system based on CaCO3/CaO-CaCl2. Energy Conversion and Management, 2021, 227: 113503.
[29] Valverde J.M., Miranda-Pizarro J., Perejón A., et al., Calcium-Looping performance of steel and blast furnace slags for thermochemical energy storage in concentrated solar power plants. Journal of CO2 Utilization, 2017, 22: 143–154.
[30] Sun J., Sun Y., Yang Y., et al., Plastic/rubber waste- templated carbide slag pellets for regenerable CO2 capture at elevated temperature. Applied Energy, 2019, 242: 919–930.
[31] Tian X.K., Lin S.C., Yan J., et al., Sintering mechanism of calcium oxide/calcium carbonate during thermochemical heat storage process. Chemical Engineering Journal, 2022, 428: 131229.
[32] Pi S., Zhang Z., He D., et al., Novel binders-promoted extrusion-spheronized CaO-based pellets for high-temperature CO2 capture. Energy & Fuels, 2019, 33(3): 2381–2389.
[33] Manovic V., Anthony E.J., Thermal activation of CaO-Based sorbent and self-reactivation during CO2 capture looping cycles. Environmental Science & Technology, 2008, 42(11): 4170–4174.
[34] Sun J., Liu W., Li M., et al., Mechanical modification of naturally occurring limestone for high-temperature CO2 capture. Energy & Fuels, 2016, 30: 6597–6605.
[35] Manovic V., Anthony E.J., Steam reactivation of spent CaO-Based sorbent for multiple CO2 capture cycles. Environmental Science & Technology, 2007, 41(4): 1420–1425.
[36] Chen J., Duan L., Sun Z., Accurate control of cage-like CaO hollow microspheres for enhanced CO2 capture in Calcium looping via a template-assisted synthesis approach. Environmental Science & Technology, 2019, 53(4): 2249–2259.
[37] Sun J., Liang C., Tong X., et al., Evaluation of high-temperature CO2 capture performance of cellulose-templated CaO-based pellets. Fuel, 2019, 239: 1046–1054.
[38] Benitez-Guerrero M., Valverde J.M., Perejon A., et al., Low-cost Ca-based composites synthesized by biotemplate method for thermochemical energy storage of concentrated solar power. Applied Energy, 2018, 210: 108–116.
[39] Luo T., Luo C., Shi Z., et al., Optimization of sol-gel combustion synthesis for calcium looping CO2 sorbents, part I: Effects of sol-gel preparation and combustion conditions. Separation and Purification Technology, 2022, 292: 121081.
[40] Han R., Gao J., Wei S., et al., Development of dense Ca-based, Al-stabilized composites with high volumetric energy density for thermochemical energy storage of concentrated solar power. Energy Conversion and Management, 2020, 221: 113201.
[41] Han R., Gao J., Wei S., et al., High-performance CaO-based composites synthesized using a space-confined chemical vapor deposition strategy for thermochemical energy storage. Solar Energy Materials and Solar Cells, 2020, 206: 110346.
[42] Benitez-Guerrero M., Valverde J.M., Sanchez-Jimenez P.E., et al., Calcium-Looping performance of mechanically modified Al2O3-CaO composites for energy storage and CO2 capture. Chemical Engineering Journal, 2018, 334: 2343–2355.
[43] Yanase I., Maeda T., Kobayashi H., The effect of addition of a large amount of CeO2 on the CO2 adsorption properties of CaO powder. Chemical Engineering Journal, 2017, 327: 548–554.
[44] Sánchez Jiménez P.E., Perejón A., Benítez Guerrero M., et al., High-performance and low-cost macroporous calcium oxide based materials for thermochemical energy storage in concentrated solar power plants. Applied Energy, 2019, 235: 543–552.
[45] Chen X., Jin X., Liu Z., et al., Experimental investigation on the CaO/CaCO3 thermochemical energy storage with SiO2 doping. Energy, 2018, 155: 128–138.
[46] Chen J., Duan L., Donat F., et al., Self-activated, nanostructured composite for improved CaL-CLC technology. Chemical Engineering Journal, 2018, 351: 1038–1046.
[47] Sun J., Guo Y., Yang Y., et al., Mode investigation of CO2 sorption enhancement for titanium dioxide- decorated CaO-based pellets. Fuel, 2019, 256: 116009.
[48] Zsembinszki G., Solé A., Barreneche C., et al., Review of reactors with potential use in thermochemical energy storage in concentrated solar power plants. Energies, 2018, 11(9): 2358.
[49] Criado Y.A., Huille A., Rougé S., et al., Experimental investigation and model validation of a CaO/Ca(OH)2 fluidized bed reactor for thermochemical energy storage applications. Chemical Engineering Journal, 2017, 313: 1194–1205.
[50] Meier A., Bonaldi E., Cella G.M., et al., Solar chemical reactor technology for industrial production of lime. Solar Energy, 2006, 80(10): 1355–1362.
[51] Ma Z., Li Y., Zhang W., et al., Energy storage and attrition performance of limestone under fluidization during CaO/CaCO3 cycles. Energy, 2020, 207: 118291.
[52] Gannoun R., Ebrí J.M.P., Pérez A.T., et al., Nanosilica to improve the flowability of fine limestone powders in thermochemical storage units. Chemical Engineering Journal, 2021, 426: 131789.
[53] Sun P., Grace J.R., Lim C.J., et al., Determination of intrinsic rate constants of the CaO-CO2 reaction. Chemical Engineering Science, 2008, 63(1): 47–56.
[54] Fang Y., Li Y., Dou Y., et al., Effect of steam on heat storage and attrition performance of limestone under fluidization during CaO/CaCO3 heat storage cycles. Reaction Chemistry & Engineering, 2022, 7(10): 2093–2106.
[55] Ma Z., Li Y., Li B., et al., Calcium looping heat storage performance and mechanical property of CaO-based pellets under fluidization. Chinese Journal of Chemical Engineering, 2021, 36: 170–180.
[56] Sun H., Li Y., Bian Z., et al., Thermochemical energy storage performances of Ca-based natural and waste materials under high pressure during CaO/CaCO3 cycles. Energy Conversion and Management, 2019, 197: 111885.
[57] Xu Y., Luo C., Zheng Y., et al., Characteristics and performance of CaO-based high temperature CO2 sorbents derived from a sol-gel process with different supports. RSC Advances, 2016, 6(83): 79285–79296.
[58] Barin I., Thermochemical data of pure substances. 1989. VCH Verlagsgesellschaft mbH, Weinheim, Germany; VCH Publishers, Inc., New York, NY (USA).
DOI: https://doi.org/10.1002/9783527619825
[59] Tong X., Liu W., Yang Y., et al., A semi-industrial preparation procedure of CaO-based pellets with high CO2 uptake performance. Fuel Processing Technology, 2019, 193: 149–158.
