Phenomenological coefficients for matter transport by vacancies from linear response theory: I. Derivation of Manning's equations for the impurity correlation factor
- 20 December 1981
- journal article
- Published by IOP Publishing in Journal of Physics C: Solid State Physics
- Vol. 14 (35) , 5453-5466
- https://doi.org/10.1088/0022-3719/14/35/006
Abstract
Liner response formulae for the phenomenological coefficients LAA, LAB, and LBB for matter transport by vacancies are calculated exactly for the five-frequency model of a very dilute FCC alloy of solute B in solvent A. The method reduces each formula to a set of random walk problems in the homogeneous system, and these are solved by Green function methods. In this paper the results for LBB are shown to be the same as that obtained by Manning in 1964 using the method of equivalent vacancy distributions. The key steps are noted and used in the following paper to calculate LAB and LAA.Keywords
This publication has 9 references indexed in Scilit:
- Phenomenological coefficients for matter transport by vacancies from linear response theory: II. Completion of the five-frequency modelJournal of Physics C: Solid State Physics, 1981
- Diffusion, correlation effects and jump frequency ratios in binary substitutional solid solutionsJournal of Physics F: Metal Physics, 1979
- Expression cinétique des coefficients phénoménologiques de diffusion LAA, LAB, LBB dans un alliage dilué A-BActa Metallurgica, 1974
- Theory of Phenomenological Coefficients in Solid-State Diffusion. I. General ExpressionsThe Journal of Chemical Physics, 1965
- Correlation Factors for Impurity Diffusion. bcc, Diamond, and fcc StructuresPhysical Review B, 1964
- Matter transport in solidsReports on Progress in Physics, 1964
- Correlation Factors for Impurity Diffusion—fcc LatticePhysical Review B, 1962
- Statistical-Mechanical Theory of Irreversible Processes. I. General Theory and Simple Applications to Magnetic and Conduction ProblemsJournal of the Physics Society Japan, 1957
- CXXXIII. Impurity diffusion in crystals (mainly ionic crystals with the sodium chloride structure)Journal of Computers in Education, 1955