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103. Kloss, Christoph, Christoph Goniva, Alice Hager, Stefan Amberger, and Stefan Pirker. 2012.
Models, algorithms and validation for opensource DEM and CFD-DEM. Progress in Computational Fluid Dynamics An International Journal 12 (2–3): 140–152.
104. Tsory, Tal, Nir Ben-Jacob, Tamir Brosh, and Avi Levy. 2013. Thermal DEM-CFD modeling
and simulation of heat transfer through packed bed. Powder Technology 244 (4): 52–60.
105. Hou, Q.F., Z.Y. Zhou, and A.B. Yu. 2016. Gas-solid flow and heat transfer in fluidized beds
with tubes: Effects of material properties and tube array settings. Powder Technology 296:
59–71.
106. Yang, W.J., Z.Y. Zhou, and A.B. Yu. 2015. Particle scale studies of heat transfer in a moving
bed. Powder Technology 281: 99–111.
107. Krause, Bastian, Birk Liedmann, Jens Wiese, Siegmar Wirtz, and Viktor Scherer. 2015. Coupled three dimensional DEM-CFD simulation of a lime shaft kiln-calcination, particle movement and gas phase flow field. Chemical Engineering Science 134: 834–849.
108. Wahyudi, Hadi, Kaiwei Chu, and Yu. Aibing. 2016. 3d particle-scale modeling of gas-solids
flow and heat transfer in fluidized beds with an immersed tube. International Journal of Heat
& Mass Transfer 97: 521–537.
109. Cundall, P.A., and O.D.L. Strack. 1979. Discussion: A discrete numerical model for granular
assemblies. Geotechnique 29 (1): 47–65.
110. Just, Sarah, Gregor Toschkoff, Adrian Funke, Dejan Djuric, Georg Scharrer, Johannes Khinast,
Klaus Knop, and Peter Kleinebudde. 2013. Experimental analysis of tablet properties for
discrete element modeling of an active coating process. AAPS Pharmscitech 14 (1): 402–411.
111. Zhou, Z.Y., A.B. Yu, and P. Zulli. 2010. A new computational method for studying heat
transfer in fluid bed reactors. Powder Technology 197 (1): 102–110.
112. Nan, Gui, and Jianren Fan. 2015. Numerical study of heat conduction of granular particles in
rotating wavy drums. International Journal of Heat & Mass Transfer 84: 740–751.
113. Vargas, Watson L., and J.J. Mccarthy. 2002. Conductivity of granular media with stagnant
interstitial fluids via thermal particle dynamics simulation. International Journal of Heat &
Mass Transfer 45 (24): 4847–4856.
114. Yagi, Sakae, and Daizo Kunii. 1960. Studies on effective thermal conductivities in packed
beds. AIChE Journal 6 (4): 373–381.
115. Abdulmohsin, Rahman S., and Muthanna H. Al-Dahhan. 2015. Characteristics of convective
heat transport in a packed pebble-bed reactor. Nuclear Engineering & Design 284: 143–152.
116. Li, J., and D.J. Mason. 2000. A computational investigation of transient heat transfer in
pneumatic transport of granular particles. Powder Technology 112 (3): 273–282.
117. Wen, Dongsheng, and Yulong Ding. 2006. Heat transfer of gas flow through a packed bed.
Chemical Engineering Science 61 (11): 3532–3542.
118. Liu, Daoyin, Bu Changsheng, and Xiaoping Chen. 2013. Development and test of CFDDEM model for complex geometry: A coupling algorithm for fluent and dem. Computers &
Chemical Engineering 58: 260–268.
119. Saidi, Maysam, Hassan Basirat Tabrizi, John R. Grace, and C. Jim Lim. 2015. Hydrodynamic
investigation of gas-solid flow in rectangular spout-fluid bed using CFD-DEM modeling.
Powder Technology 284: 355–364.
120. KTA Standards. 1983. Reactor core design of high-temperature gas-cooled reactors part 2:
Heat transfer in spherical fuel elements. Nuclear Safety Standards Commission, Salzgitter,
Germany (3102.2).
121. Amritkar, Amit, Surya Deb, and Danesh Tafti. 2014. Efficient parallel CFD-DEM simulations
using openmp. Journal of Computational Physics 256: 501–519.
122. Liu, Guodong, Yu. Fan, Lu Huilin, Shuai Wang, Pengwei Liao, and Zhenhua Hao. 2016. CFDDEM simulation of liquid-solid fluidized bed with dynamic restitution coefficient. Powder
Technology 304: 186–197. SI:Particle2015.
123. Capecelatro, Jesse, Perrine Pepiot, and Olivier Desjardins. 2015. Numerical investigation
and modeling of reacting gas-solid flows in the presence of clusters. Chemical Engineering
Science 122: 403–415.