[1] Chen J., Zhou J., Li X., Huai X., Study of the heat transfer characteristics and waste heat recovery of hot gas with coagulative particles flowing through a moving granular bed filter (MGBF). Applied Thermal Engineering, 2022, 211: 118444.
[2] Liu J., Yu Q., Peng J., Hu X., Duan W., Thermal energy recovery from high-temperature blast furnace slag particles. International Communications in Heat and Mass Transfer, 2015, 69: 23–28.
[3] Feng J., Dong H., Liu J., Liang K., Gao J., Experimental study of gas flow characteristics in vertical tank for sinter waste heat recovery. Applied Thermal Engineering, 2015, 91: 73–79.
[4] Liu J., Liu Y., Liu C., Xin L., Yu W., Experimental and theoretical study on thermal stability of mixture R1234ze(E)/R32 in organic Rankine cycle. Journal of Thermal Science, 2023, 32: 1595–1613.
[5] Cheng Z., Tan Z., Guo Z., Yang J., Wang Q., Technologies and fundamentals of waste heat recovery from high-temperature solid granular materials. Applied Thermal Engineering, 2020, 179: 115703.
[6] Wen Z., Shi H.Z., Zhang X., Lou G.F., Liu X.L., Dou R.F., Su F.Y., Numerical simulation and parameters optimization on gas-solid heat transfer process of high temperature sinter. Ironmaking and Steelmaking, 2011, 38: 525–529.
[7] Leong J., Jin K., Shiau J., Jeng T., Tai C., Effect of sinter layer porosity distribution on flow and temperature fields in a sinter cooler. International Journal of Minerals, Metallurgy and Materials, 2009, 16: 265–272.
[8] Feng J.X., Liang K.L., Sun Z.B., Xu J.H., Zhang Y.M., Yang J.B., Cooling process of iron ore pellets in an annular cooler. International Journal of Minerals, Metallurgy and Materials, 2011, 18: 285–291.
[9] Albrecht K.J., Ho C.K., Design and operating considerations for a shell-and-plate, moving packed-bed, particle-to-sCO2 heat exchanger. Solar Energy, 2019, 178: 331–340.
[10] Tian X., Yang J., Guo Z., Wang Q., Sunden B., Numerical study of heat transfer in gravity-driven dense particle flow around a hexagonal tube. Powder Technology, 2020, 367: 285–295.
[11] Qi C., Zhang Z., Wang M., Li Y., Gong X., Sun P., Zheng B., Effects of the structure parameters of horizontal tube bundles on particle flow performance in the heat exchanger. Case Studies in Thermal Engineering, 2023, 47: 103053.
[12] Jiang B., Xiang D., Zhang H., Pei H., Liu X., Effective waste heat recovery from industrial high-temperature granules: a moving bed indirect heat exchanger with embedded agitation. Energy, 2020, 208: 118346.
[13] Hertel J.D., Zunft S., Experimental validation of a continuum model for local heat transfer in shell-and-tube moving-bed heat exchangers. Applied Thermal Engineering, 2022, 206: 118092
[14] Guo Z., Tian X., Tan Z., Yang J., Wang Q., Optimization of gravity-driven granular flow around the tube for heat transfer enhancement. Chemical Engineering Transactions, 2019, 76: 247–252.
[15] Guo Z., Tian X., Wu Z., Yang J., Wang Q., Heat transfer of granular flow around aligned tube bank in moving bed: Experimental study and theoretical prediction by thermal resistance model. Energy Conversion and Management, 2022, 257: 115435.
[16] Tian X., Guo Z., Jia H., Yang J., Wang Q., Numerical investigation of a new type tube for shell-and-tube moving packed bed heat exchanger. Powder Technology 2021, 394: 584–596.
[17] Guo Z., Zhang S., Tian X., Yang J., Wang Q., Numerical investigation of tube oscillation in gravity-driven granular flow with heat transfer by discrete element method. Energy, 2020, 207: 118203.
[18] Guo Z., Yang J., Tan Z., Tian X., Wang Q., Numerical study on gravity-driven granular flow around tube out-wall: Effect of tube inclination on the heat transfer. International Journal of Heat and Mass Transfer, 2021, 174: 121296.
[19] Miao Z., Zhou Z., Yu A.B., Shen Y., CFD-DEM simulation of raceway formation in an ironmaking blast furnace. Powder Technology, 2017, 314: 542–549.
[20] Kurosawa H., Matsuhashi S., Natsui S., Kon T., Ueda S., Inoue R., Ariyama T., DEM-CFD model considering softening behavior of ore particles in cohesive zone and gas flow analysis at low coke rate in blast furnace. ISIJ International, 2012, 52: 1010–1017.
[21] Li C., Zhang Y., Shen J., Zhang W., Coupled simulation of fluid-particle interaction for large complex granules: A resolved CFD-DEM method for modelling the airflow in a vertical fixed bed of irregular sinter particles. Particuology, 2024, 90: 292–306.
[22] Shen Y., Zheng B., Sun P., Qi C., Wang M., Dong Y., Wang Y., Lv J., Wang Y., Effects of ellipsoidal and regular hexahedral particles on the performance of the waste heat recovery equipment in a methanol reforming hydrogen production system. International Journal Hydrogen Energy, 2023, 48: 11141–11152.
[23] Feng Y.H., Zhang Z., Qiu L., Zhang X.X., Heat recovery process modelling of semi-molten blast furnace slag in a moving bed using XDEM. Energy, 2019, 186: 115876.
[24] Zhang S., Zhao L., Feng J., Dong H., Numerical investigation of the air-particles heat transfer characteristics of moving bed—Effect of particle size distribution. International Journal of Heat and Mass Transfer, 2022, 182: 122036.
[25] Qiu L., Sang D., Li Y., Feng Y., Zhang X., Numerical simulation of gas-solid heat transfer characteristics of porous structure composed of high-temperature particles in moving bed. Applied Thermal Engineering, 2020, 181: 115925.
[26] Yang W.J., Zhou Z.Y., Yu A.B., Particle scale studies of heat transfer in a moving bed. Powder Technology, 2015, 281: 99–111.
[27] Morris A.B., Ma Z., Pannala S., Hrenya C.M., Simulations of heat transfer to solid particles flowing through an array of heated tubes. Solar Energy, 2016, 130: 101–115.
[28] Lu W., Ma C., Liu D., Zhao Y., Ke X., Zhou T., A comprehensive heat transfer prediction model for tubular moving bed heat exchangers using CFD-DEM: Validation and sensitivity analysis. Applied Thermal Engineering, 2024. 247: 123072.
[29] ANSYS Inc., ANSYS Fluent Theory Guide Release 2022 R1, Southpointe. 2600 Ansys Drive Canonsburg, PA 15317, USA, 2022.
[30] Ding J., Gidaspow D., A bubbling fluidization model using kinetic theory of granular flow. AIChE Journal, 1990, 36: 523–538.
[31] DEM Solutions Ltd., EDEM 2020.2 Documentation, Edinburgh, UK, 2020.
[32] Van Antwerpen W., Rousseau P.G., Du Toit C.G., Multi-sphere unit cell model to calculate the effective thermal conductivity in packed pebble beds of mono-sized spheres. Nuclear Engineering and Design, 2012, 247: 183–201.
[33] Wang Z., Liu M., Semi-resolved CFD-DEM for thermal particulate flows with applications to fluidized beds. International Journal of Heat and Mass Transfer, 2020, 159: 120150.
[34] Xiao P.H., Li B.W., Sun Y.S., A model to determine the overall bed-to-wall heat transfer coefficient and its influence factor analysis in moving bed. International Journal of Heat and Mass Transfer, 2020, 154:119655.
[35] Wu W.Y., Liu X.J., Liang X., Xia D.H., Operation characteristics of waste heat recovery from high-temperature particles under varying temperatures and flow rates. International Journal of Thermal Sciences, 2022, 172: 107283.
[36] Dinghe L., Tuo Z., Baoguo F., Ruibin S., Zepeng L., Experimental measurement and analysis of thermal physical parameters of sinter and pellet. Metallurgical Power, 2021, 253: 93–97.
[37] Zhang R., Yang H., Lu J.F., Wu Y., Theoretical and experimental analysis of bed-to-wall heat transfer in heat recovery processing. Powder Technology, 2013, 249: 186–195.
[38] Bartsch P., Zunft S., Granular flow around the horizontal tubes of a particle heat exchanger: DEM-simulation and experimental validation. Solar Energy, 2019, 182: 48–56.
[39] Oka Y.I., Mihara S., Yoshida T., Impact-angle dependence and estimation of erosion damage to ceramic materials caused by solid particle impact. Wear, 2009, 267: 129–135.
