On the history of solid-state diffusion

被引:8
|
作者
Tuijn, C [1 ]
机构
[1] UNIV AMSTERDAM,VAN DER WAALS ZEEMAN INST,NL-1018 XE AMSTERDAM,NETHERLANDS
关键词
history; model of solid-state diffusion; mechanism for solid-state diffusion; vacancy mechanism; interstitial mechanism; ring mechanism; place exchange; Schottky mechanism; Frenkel mechanism; Smekal's model; Kirkendall effect;
D O I
10.4028/www.scientific.net/DDF.141-142.1
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
The development of models for solid-state diffusion in the period 1900-1950 is described, Several models have been proposed, i.e. the moving column by von Hevesy, the interstitial and vacancy mechanism by Frenkel, the ring mechanism in different versions by Rosenhain and Langmuir, diffusion along inner surfaces of tiny channels in the crystals by Smekal. Also direct place exchange was considered as a possibility. Arguments in favour and against the models were based on many experiments on diffusion as well as on electrolytical conductivity in salts, and on diffusion in metals and alloys. The first measurements concerned the diffusion of ''impurities'' in metals; self-diffusion could only be measured in lead and bismuth, which have natural radioactive isotopes. Impurity diffusion appeared to be faster than self-diffusion. It is described how the thermodynamic basis was laid by Wagner and Schottky, who derived equations for the number of defects in compounds, which have a composition which deviates from the stoichiometric ratio. The first calculations of formation energy and migration energy for different mechanisms were performed by Jest. The decisive experiments and calculations in favour of the vacancy mechanism, which took place in the period 1940-1950, are treated in detail.
引用
收藏
页码:1 / 47
页数:47
相关论文
共 50 条
  • [1] On the history of models for solid-state diffusion
    Tuijn, C
    DEFECT AND DIFFUSION FORUM, 1997, 143 : 11 - 18
  • [2] On the behaviour of Kirkendall markers in solid-state interdiffusion
    Paul, A
    Van Dal, MJH
    Kodentsov, AA
    Van Loo, FJJ
    ARCHIVES OF METALLURGY AND MATERIALS, 2004, 49 (02): : 259 - 276
  • [3] Solid-State Analysis of Monohydrated Halide Salts of Paracetamol
    Trzybinski, Damian
    Domagala, Slawomir
    Kubsik, Marcin
    Wozniak, Krzysztof
    CRYSTAL GROWTH & DESIGN, 2016, 16 (03) : 1156 - 1161
  • [4] A physico-chemical approach in binary solid-state interdiffusion
    Ghosh, C.
    Paul, A.
    ACTA MATERIALIA, 2007, 55 (06) : 1927 - 1939
  • [5] On the Spatial Stability and Bifurcation of the Kirkendall Plane during Solid-State Interdiffusion
    Kodentsov, A. A.
    Paul, A.
    van Dal, M. J. H.
    Cserhati, Cs.
    Gusak, A. M.
    van Loo, F. J. J.
    CRITICAL REVIEWS IN SOLID STATE AND MATERIALS SCIENCES, 2008, 33 (3-4) : 210 - 233
  • [6] The advent of solid-state thermodynamics, kinetics and electrochemistry in the 20th century
    Schmalzried, H
    ZEITSCHRIFT FUR PHYSIKALISCHE CHEMIE-INTERNATIONAL JOURNAL OF RESEARCH IN PHYSICAL CHEMISTRY & CHEMICAL PHYSICS, 2004, 218 (12): : 1385 - 1399
  • [7] Solid-state stability and kinetic study of three glucocorticoid hormones: prednisolone, prednisone and cortisone
    Ledeti, Ionut
    Bengescu, Cosmina
    Circioban, Denisa
    Vlase, Gabriela
    Vlase, Titus
    Tomoroga, Carmen
    Buda, Valentina
    Ledeti, Adriana
    Dragomirescu, Anca
    Murariu, Marius
    JOURNAL OF THERMAL ANALYSIS AND CALORIMETRY, 2020, 141 (03) : 1053 - 1065
  • [8] Numerical models of Martian mantle evolution induced by magmatism and solid-state convection beneath stagnant lithosphere
    Ogawa, Masaki
    Yanagisawa, Takatoshi
    JOURNAL OF GEOPHYSICAL RESEARCH-PLANETS, 2011, 116
  • [9] Hierarchically structured AgO films with nano-porosity for photocatalyst and all solid-state thin film battery
    Xu, W.
    Wang, S. Q.
    Zhang, Q. Y.
    Ma, C. Y.
    Wang, Q.
    Wen, D. H.
    Li, X. N.
    JOURNAL OF ALLOYS AND COMPOUNDS, 2019, 802 (210-216) : 210 - 216
  • [10] Defect chemistry engineering of Ga-doped garnet electrolyte with high stability for solid-state lithium metal batteries
    Chen, Sihan
    Li, Jun
    Liu, Keke
    Sun, Xiaochen
    Wan, Jingwei
    Zhai, Huiyu
    Tang, Xinfeng
    Tan, Gangjian
    CHINESE PHYSICS B, 2024, 33 (08)