Model for diffusion on deformable lattices. II. Tracer diffusion

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Abstract

We present results of theoretical studies of tracer diffusion in a lattice-gas model that has been proposed to explain the anomalous diffusion anisotropy of H adatoms on a W(110) surface. This study complements our previous calculations of collective diffusion within the model (Ala-Nissila et al., preceding paper). We first perform extensive Monte Carlo random-walk simulations of tracer diffusion including only the intracell hard core interactions. We then use the Greens-function method to develop an analytic mean-field theory for the tracer-diffusion coefficients. We also present a derivation of an improved solution to second order in the Greens-function expansion. The range of validity of these analytic results is examined by comparison with the simulations. Finally, we compare the properties of tracer diffusion with collective diffusion. © 1991 The American Physical Society.

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Ala-Nissila, T., Kjoll, J., Ying, S. C., & Tahir-Kheli, R. A. (1991). Model for diffusion on deformable lattices. II. Tracer diffusion. Physical Review B, 44(5), 2133–2141. https://doi.org/10.1103/PhysRevB.44.2133

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