References
39
231. Noriaki Wakao and KOICHI KATO. 1969. Effective thermal conductivity of packed beds.
Journal of Chemical Engineering of Japan 2 (1): 24–33.
232. John W. Earnshaw, Frank A. Londry, and Paul J. Gierszewski. 1998. The effective thermal
conductivity of a bed of 1.2-mm-diam lithium zirconate spheres in helium. Fusion Technology
33 (1): 31–37.
233. Crane, R.A., and R.I. Vachon. 1977. A prediction of the bounds on the effective thermal
conductivity of granular materials. International Journal of Heat and Mass Transfer 20 (7):
711–723.
234. Prasad, V., N. Kladias, A. Bandyopadhaya, and Q. Tian. 1989. Evaluation of correlations for
stagnant thermal conductivity of liquid-saturated porous beds of spheres. 32 (9): 1793–1796.
235. Prasant Kumar Samantray, P. Karthikeyan, and K.S. Reddy. 2006. Estimating effective thermal
conductivity of two-phase materials. International Journal of Heat and Mass Transfer 49 (21–
22): 4209–4219.
236. Jayachandran, S., and K.S. Reddy. 2019. Estimation of effective thermal conductivity of
packed beds incorporating effects of primary and secondary parameters. Thermal Science
and Engineering Progress.
237. Daizo Kunii and J. M. Smith. 1960. Heat transfer characteristics of porous rocks. AIChE
Journal 6: 71–78.
238. Hsu, C.T., P. Cheng, and K.W. Wong. 1994. Modified zehner-schlunder models for stagnant
thermal conductivity of porous media. International Journal of Heat and Mass Transfer 37
(17): 2751–2759.
239. Krupiczka, R. 1967. Analysis of thermal conductivity in granular materials. International
Chemical Engineering 7 (1): 122–144.
240. Breitbach, G., and H. Barthels. 1980. The radiant heat transfer in the high temperature reactor
core after failure of the afterheat removal systems. Nuclear Technology 49 (3): 392–399.
241. Marie Héléne Fillion, Jean Côté, and Jean-Marie Konrad. 2011. Thermal radiation and conduction properties of materials ranging from sand to rock-fill. Canadian Geotechnical Journal
48 (4): 532–542.
242. Chen, John C., and Stuart W. Churchill. 1963. Radiant heat transfer in packed beds. AIChE
Journal 9: 35–41.
243. Laubitz, M.J. 1959. Thermal conductivity of powders. Canadian Journal of Physics 37 (7):
798–808.
244. Vortmeyer and Dieter. 1979. Wärmestrahlung in dispersen feststoffsystemen. Chemie Ingenieur Technik 51 (9): 839–851.
245. Gusarov, A.V. 2019. Statistical approach to radiative transfer in the heterogeneous media of
thin-wall morphology-ii: Applications. Journal of Heat Transfer 141 (1): 012701.
246. Zhang, Zuoyi. 2016. The shandong shidao bay 200 mwe high-temperature gas-cooled reactor
pebble-bed module (htr-pm) demonstration power plant: An engineering and technological
innovation. Engineering 2 (1): 112–118.
247. Feng, Y.T., and K. Han. 2012. An accurate evaluation of geometric view factors for modelling
radiative heat transfer in randomly packed beds of equally sized spheres. International Journal
of Heat & Mass Transfer 55 (23–24): 6374–6383.
248. Ren, Cheng, Yang Xingtuan, Jia Haijun, Jiang Yueyuan, and Xiong Wei. 2017. Theoretical
analysis of effective thermal conductivity for the chinese htr-pm heat transfer test facility.
Applied Sciences 7 (1): 76.
249. Vargas, Watson L., and J.J. McCarthy. 2001. Heat conduction in granular materials. AIChE
Journal 47 (5): 1052–1059.
250. Zhong, Wenqi, Yu. Aibing, Guanwen Zhou, Jun Xie, and Hao Zhang. 2016. Cfd simulation of
dense particulate reaction system: Approaches, recent advances and applications. Chemical
Engineering Science 140: 16–43.
251. Yang, B., F. Bai, Y. Wang, and Z. Wang. 2019. Study on standby process of an air-based solid
packed bed for flexible high-temperature heat storage: Experimental results and modelling.
Applied Energy 238: 135–146.
39
231. Noriaki Wakao and KOICHI KATO. 1969. Effective thermal conductivity of packed beds.
Journal of Chemical Engineering of Japan 2 (1): 24–33.
232. John W. Earnshaw, Frank A. Londry, and Paul J. Gierszewski. 1998. The effective thermal
conductivity of a bed of 1.2-mm-diam lithium zirconate spheres in helium. Fusion Technology
33 (1): 31–37.
233. Crane, R.A., and R.I. Vachon. 1977. A prediction of the bounds on the effective thermal
conductivity of granular materials. International Journal of Heat and Mass Transfer 20 (7):
711–723.
234. Prasad, V., N. Kladias, A. Bandyopadhaya, and Q. Tian. 1989. Evaluation of correlations for
stagnant thermal conductivity of liquid-saturated porous beds of spheres. 32 (9): 1793–1796.
235. Prasant Kumar Samantray, P. Karthikeyan, and K.S. Reddy. 2006. Estimating effective thermal
conductivity of two-phase materials. International Journal of Heat and Mass Transfer 49 (21–
22): 4209–4219.
236. Jayachandran, S., and K.S. Reddy. 2019. Estimation of effective thermal conductivity of
packed beds incorporating effects of primary and secondary parameters. Thermal Science
and Engineering Progress.
237. Daizo Kunii and J. M. Smith. 1960. Heat transfer characteristics of porous rocks. AIChE
Journal 6: 71–78.
238. Hsu, C.T., P. Cheng, and K.W. Wong. 1994. Modified zehner-schlunder models for stagnant
thermal conductivity of porous media. International Journal of Heat and Mass Transfer 37
(17): 2751–2759.
239. Krupiczka, R. 1967. Analysis of thermal conductivity in granular materials. International
Chemical Engineering 7 (1): 122–144.
240. Breitbach, G., and H. Barthels. 1980. The radiant heat transfer in the high temperature reactor
core after failure of the afterheat removal systems. Nuclear Technology 49 (3): 392–399.
241. Marie Héléne Fillion, Jean Côté, and Jean-Marie Konrad. 2011. Thermal radiation and conduction properties of materials ranging from sand to rock-fill. Canadian Geotechnical Journal
48 (4): 532–542.
242. Chen, John C., and Stuart W. Churchill. 1963. Radiant heat transfer in packed beds. AIChE
Journal 9: 35–41.
243. Laubitz, M.J. 1959. Thermal conductivity of powders. Canadian Journal of Physics 37 (7):
798–808.
244. Vortmeyer and Dieter. 1979. Wärmestrahlung in dispersen feststoffsystemen. Chemie Ingenieur Technik 51 (9): 839–851.
245. Gusarov, A.V. 2019. Statistical approach to radiative transfer in the heterogeneous media of
thin-wall morphology-ii: Applications. Journal of Heat Transfer 141 (1): 012701.
246. Zhang, Zuoyi. 2016. The shandong shidao bay 200 mwe high-temperature gas-cooled reactor
pebble-bed module (htr-pm) demonstration power plant: An engineering and technological
innovation. Engineering 2 (1): 112–118.
247. Feng, Y.T., and K. Han. 2012. An accurate evaluation of geometric view factors for modelling
radiative heat transfer in randomly packed beds of equally sized spheres. International Journal
of Heat & Mass Transfer 55 (23–24): 6374–6383.
248. Ren, Cheng, Yang Xingtuan, Jia Haijun, Jiang Yueyuan, and Xiong Wei. 2017. Theoretical
analysis of effective thermal conductivity for the chinese htr-pm heat transfer test facility.
Applied Sciences 7 (1): 76.
249. Vargas, Watson L., and J.J. McCarthy. 2001. Heat conduction in granular materials. AIChE
Journal 47 (5): 1052–1059.
250. Zhong, Wenqi, Yu. Aibing, Guanwen Zhou, Jun Xie, and Hao Zhang. 2016. Cfd simulation of
dense particulate reaction system: Approaches, recent advances and applications. Chemical
Engineering Science 140: 16–43.
251. Yang, B., F. Bai, Y. Wang, and Z. Wang. 2019. Study on standby process of an air-based solid
packed bed for flexible high-temperature heat storage: Experimental results and modelling.
Applied Energy 238: 135–146.