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Discusses the use of computer simulation for studying the microphase separation of a two-dimensional diblock copolymer system under directional quenching. Time evolution of the domain morphologies; Faster growth rate of the triangular phase with the increase of the initial thermal fluctuation.

In general, the resistivity is inversely proportional to the electrical conductivity and is usually taken to be zero when the conducting fluid is of extremely high conductivity (e.g., ideal conductors). In this paper, the global well-posedness of strong solution to the one-dimensional compressible, viscous, heat-conductive, non-resistive magnetohydrodynamics equations with large data, and general heat-conductivity is proved. Moreover, the non-resistive limit is justified and the convergence rates in L2-norm are obtained, provided the heat-conductivity satisfies some growth condition. [ABSTRACT FROM AUTHOR]