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Original Articles

Perturbed Molecular Dynamics for Calculating Thermal Conductivity of Zirconia

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Pages 953-961 | Received 02 Feb 2004, Accepted 03 Mar 2004, Published online: 17 Jul 2006

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Susumu Fujii, Tatsuya Yokoi, Craig A. J. Fisher, Hiroki Moriwake & Masato Yoshiya. (2020) Quantitative prediction of grain boundary thermal conductivities from local atomic environments. Nature Communications 11:1.
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Xueming Yang, Congcong Duan, Jiangxin Xu, Yuanbin Liu & Bingyang Cao. (2019) A numerical study on the thermal conductivity of H2O/CO2/H2 mixtures in supercritical regions of water for coal supercritical water gasification system. International Journal of Heat and Mass Transfer 135, pages 413-424.
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Susumu Fujii, Tatsuya Yokoi & Masato Yoshiya. (2019) Atomistic mechanisms of thermal transport across symmetric tilt grain boundaries in MgO. Acta Materialia 171, pages 154-162.
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Susumu Fujii, Masato Yoshiya & Craig A. J. Fisher. (2018) Quantifying Anharmonic Vibrations in Thermoelectric Layered Cobaltites and Their Role in Suppressing Thermal Conductivity. Scientific Reports 8:1.
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Susumu Fujii & Masato Yoshiya. (2015) Manipulating Thermal Conductivity by Interfacial Modification of Misfit-Layered Cobaltites Ca3Co4O9. Journal of Electronic Materials 45:3, pages 1217-1226.
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Masato Yoshiya. (2016) Approaches toward Thermoelectric Materials by Computational Materials Science. Materia Japan 55:7, pages 320-324.
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Shigeki Matsunaga. (2015) Effect of Greenhouse Gases Dissolved in Seawater. International Journal of Molecular Sciences 17:1, pages 45.
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Susumu Fujii, Masato Yoshiya, Akuto Yumura, Yohei Miyauchi, Masahiro Tada & Hideyuki Yasuda. (2013) Impact of Dynamic Interlayer Interactions on Thermal Conductivity of Ca3Co4O9. Journal of Electronic Materials 43:6, pages 1905-1915.
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Shigeki Matsunaga. (2014) A molecular dynamics study of structure and thermal properties of carbon dioxide in sodium chloride aqueous solution. Journal of Physics: Conference Series 490, pages 012158.
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D.O. Demchenko & D.B. Ameen. (2014) Lattice thermal conductivity in bulk and nanosheet NaxCoO2. Computational Materials Science 82, pages 219-225.
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H. Tong, X. S. Miao, X. M. Cheng, H. Wang, L. Zhang, J. J. Sun, F. Tong & J. H. Wang. (2011) Thermal conductivity of chalcogenide material with superlatticelike structure. Applied Physics Letters 98:10.
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Masahiro Tada, Masato Yoshiya & Hideyuki Yasuda. (2010) Effect of Ionic Radius and Resultant Two-Dimensionality of Phonons on Thermal Conductivity in M x CoO2 (M = Li, Na, K) by Perturbed Molecular Dynamics. Journal of Electronic Materials 39:9, pages 1439-1445.
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Tatsumi Arima, Sho Yamasaki, Kazuya Idemitsu & Yaohiro Inagaki. (2008) Equilibrium and nonequilibrium molecular dynamics simulations of heat conduction in uranium oxide and mixed uranium?plutonium oxide. Journal of Nuclear Materials 376:2, pages 139-145.
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Feng Zhang, Qun Bo Fan, Fu Chi Wang & Hui Ling Zhang. (2008) Perturbation Molecular Dynamics Simulation of Thermal Conductivity of Zirconia. Key Engineering Materials 368-372, pages 1325-1327.
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