Citations (20)
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Read on this site (10)
L.L. Boyer. (1985) Theory of melting based on lattice instability. Phase Transitions 5:1, pages 1-47.
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I. Yokoyama, I. Ohkoshi & T. Satoh. (1982) Thermal pressure coefficients of simple liquid metals based on the perc us - yevick phonon description. Physics and Chemistry of Liquids 12:2, pages 157-175.
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I. Yokoyama, I. Ohkoshi & W.H. Young. (1981) Specific Heats of Liquid Metals Based on the Percus-Yevick Phonon Description. Physics and Chemistry of Liquids 10:3, pages 273-277.
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Edward Siegel. (1981) Comparison of liquid and glass sides of the glass transition in polymers: Goldstein's theory as a manifestation of the gdcbmsup law of corresponding states and scaling and analytic expression for glass fictive temperature. Ferroelectrics 34:1, pages 127-132.
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Edward Siegel. (1976) Optical reflectivity of liquid metals at their melting temperatures. Physics and Chemistry of Liquids 5:1, pages 9-27.
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Edward Siegel. (1975) Equivalence of the Percus-Yevick Collective Coordinate Theoru of liquids with the Self Consistent Field Theory of Melting. Physics and Chemistry of Liquids 4:4, pages 241-253.
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Edward Slegel. (1975) Calculation of Sound Velocities of Liquid Metals at their Melting Point via the Percus-Yevick Theory of Melting. Physics and Chemistry of Liquids 4:4, pages 233-240.
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Edward Siegel. (1975) Virtual Crystal Model of Melting and the Structure Factor of Liquid Alloys. Physics and Chemistry of Liquids 4:4, pages 217-231.
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Edward Siegel. (1975) Sound Velocity in Liquid Binary Alloys as Calculated via the Percus-Yevick Liquid Phonon Dispersion Relation. Physics and Chemistry of Liquids 4:4, pages 211-215.
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Edward Siegel. (1975) Furthur Justification for the Concept of a Percus-Yevick Temperature in Liquid Metals. Physics and Chemistry of Liquids 4:4, pages 205-209.
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Articles from other publishers (10)
Isao Yokoyama,Yoshio Waseda,. (2005) Specific Heat of Liquid Metals at Constant Volume Based on the Percus-Yevick Phonon Theory. High Temperature Materials and Processes 24:1, pages 29-34.
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I. Yokoyama,T. Arai,. (1992) Debye Temperature for Liquid Metals Near the Melting Points. High Temperature Materials and Processes 10:3, pages 189-197.
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Isao Yokoyama,Takashi Arai,. (1988) Thermodynamic Properties of Liquid Metals Including Rare Metals Using Simple Model Theories. High Temperature Materials and Processes 8:1, pages 1-10.
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Sinichi Ono, Isao Yokoyama & Takeshi Satoh. (1984) Thermal pressure coefficients of liquid alkali metals. Journal of Non-Crystalline Solids 61-62, pages 559-564.
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I Ohkoshi, I Yokoyama, Y Waseda & W H Young. (1981) Percus-Yevick phonon theory of entropies of liquid metals. Journal of Physics F: Metal Physics 11:3, pages 531-539.
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Yoshio Waseda. (1981) The structure of liquids, amorphous solids and solid fast ion conductors. Progress in Materials Science 26:1, pages 1-122.
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Edward Siegel. (1980) Generalized-disorder collective-boson mode-softening universality principle. Journal of Non-Crystalline Solids 40:1-3, pages 453-467.
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P Gray, I Yokoyama & W H Young. (1980) Phonon theory of the entropy of liquid sodium. Journal of Physics F: Metal Physics 10:2, pages 197-206.
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Takeo Matsubara & Edward Siegel. (1979) Theory of melting of metallic fine particles in the percus-yevick limit: Application to metallic particles supported on SiO2 and C substrates (catalysts). Scripta Metallurgica 13:10, pages 913-918.
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Edward Siegel. (1974) Relationship between the vibrational theory of hardness and bulk modulus and melting phenomena in solids. Scripta Metallurgica 8:3, pages 171-174.
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