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aluminium composites. International Communications in Heat and Mass Transfer 38 (8):
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containing oxide nanoparticles. Journal of Heat Transfer 121 (2): 280–289.
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Transfer 129 (3): 298–307.
153. Patel, Hrishikesh E., T. Sundararajan, and Sarit K. Das. 2003. An experimental investigation
into the thermal conductivity enhancement in oxide and metallic nanofluids, 12 (3):1015–
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155. Hao, Wu, Nan Gui, Xingtuan Yang, and Jiyuan Tu, and Shengyao Jiang. 2019. A New Uniform
Continuum Modeling of Conductive and Radiative Heat Transfer in Nuclear Pebble Bed.
Journal of Heat Transfer 141 (8): 06.
156. Polamuri, Dorca, and Sunil Kumar Thamida. 2015. Experimental determination of effective
thermal conductivity of granular material by using a cylindrical heat exchanger. International
Journal of Heat and Mass Transfer 81: 767–773.
157. Tien, C.L., and B.L. Drolen. 1987. Thermal radiation in particulate media with dependent and
independent scattering. Annual review of numerical fluid mechanics & heat transfer, vol. 1,
06–34. Washington, DC: Hemisphere Publishing Corp.
158. Walker, James S. 1999. Wavelets, vibrations and scalings (CRM monograph series 9). Bulletin
of the London Mathematical Society 31 (6): 740–743.
159. Lu, Zhou, Pu Hongming, Feicheng Wang, Hu Zhiqiang, and Liwei Wang. 2017. The expressive
power of neural networks: A view from the width. Advances in Neural Information Processing
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160. Zongxin, Wu, Dengcai Lin, and Daxin Zhong. 2002. The design features of the HTR-10.
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399
144. German, Randall M. 2014. Coordination number changes during powder densification. Powder Technology 253: 368–376.
145. Aichlmayr, H.T., and F.A. Kulacki. 2006. On the effective thermal conductivity of saturated
porous media 39 (1): 377–460.
146. 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.
147. Krupiczka, R. 1967. Analysis of thermal conductivity in granular materials. International
Chemical Engineering 7 (1): 122–144.
148. 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.
149. Samantray, Prasant Kumar, 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.
150. Carson, James K. 2011. Measurement and modelling of the thermal conductivity of dispersed
aluminium composites. International Communications in Heat and Mass Transfer 38 (8):
1024–1028.
151. Lee, S., S.U.-S. Choi, S. Li, and J.A. Eastman. 1999. Measuring thermal conductivity of fluids
containing oxide nanoparticles. Journal of Heat Transfer 121 (2): 280–289.
152. Kim, Sang Hyun, Sun Rock Choi, and Dongsik Kim. 2006. Thermal conductivity of metaloxide nanofluids: Particle size dependence and effect of laser irradiation. Journal of Heat
Transfer 129 (3): 298–307.
153. Patel, Hrishikesh E., T. Sundararajan, and Sarit K. Das. 2003. An experimental investigation
into the thermal conductivity enhancement in oxide and metallic nanofluids, 12 (3):1015–
1031.
154. Tsotsas, Evangelos. 2019. Particle-particle heat transfer in thermal DEM: Three competing
models and a new equation. International Journal of Heat and Mass Transfer 132: 939–943.
155. Hao, Wu, Nan Gui, Xingtuan Yang, and Jiyuan Tu, and Shengyao Jiang. 2019. A New Uniform
Continuum Modeling of Conductive and Radiative Heat Transfer in Nuclear Pebble Bed.
Journal of Heat Transfer 141 (8): 06.
156. Polamuri, Dorca, and Sunil Kumar Thamida. 2015. Experimental determination of effective
thermal conductivity of granular material by using a cylindrical heat exchanger. International
Journal of Heat and Mass Transfer 81: 767–773.
157. Tien, C.L., and B.L. Drolen. 1987. Thermal radiation in particulate media with dependent and
independent scattering. Annual review of numerical fluid mechanics & heat transfer, vol. 1,
06–34. Washington, DC: Hemisphere Publishing Corp.
158. Walker, James S. 1999. Wavelets, vibrations and scalings (CRM monograph series 9). Bulletin
of the London Mathematical Society 31 (6): 740–743.
159. Lu, Zhou, Pu Hongming, Feicheng Wang, Hu Zhiqiang, and Liwei Wang. 2017. The expressive
power of neural networks: A view from the width. Advances in Neural Information Processing
Systems 6231–6239.
160. Zongxin, Wu, Dengcai Lin, and Daxin Zhong. 2002. The design features of the HTR-10.
Nuclear Engineering & Design 218 (1): 25–32.