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A Model of Subdiffusive Interface Dynamics with a Local Conservation of Minimum Height

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Abstract

We define a new model of interface roughening in one dimension which has the property that the minimum of interface height is conserved locally during the evolution. This model corresponds to the limit q → ∞ of the q-color dimer deposition-evaporation model introduced by us earlier [Hari Menon and Dhar, J. Phys. A: Math. Gen. 28:6517 (1995)]. We present numerical evidence from Monte Carlo simulations and the exact diagonalization of the evolution operator on finite rings that growth of correlations in this model is subdiffusive with dynamical exponent z≍2.5. For periodic boundary conditions, the variation of the gap in the relaxation spectrum with system size appears to involve a logarithmic correction term. Some generalizations of the model are briefly discussed.

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Koduvely, H.M., Dhar, D. A Model of Subdiffusive Interface Dynamics with a Local Conservation of Minimum Height. Journal of Statistical Physics 90, 57–77 (1998). https://doi.org/10.1023/A:1023291315658

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