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      Finite-time singularities in the dynamical evolution of contact lines

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          Abstract

          We study finite-time singularities in the linear advection-diffusion equation with a variable speed on a semi-infinite line. The variable speed is determined by an additional condition at the boundary, which models the dynamics of a contact line of a hydrodynamic flow at a 180 contact angle. Using apriori energy estimates, we derive conditions on variable speed that guarantee that a sufficiently smooth solution of the linear advection--diffusion equation blows up in a finite time. Using the class of self-similar solutions to the linear advection-diffusion equation, we find the blow-up rate of singularity formation. This blow-up rate does not agree with previous numerical simulations of the model problem.

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          Nonnegative Solutions for a Long-Wave Unstable Thin Film Equation with Convection

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            The Rolling Motion of A Viscous Fluid On and Off a Rigid Surface

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              The moving contact line with a 180° advancing contact angle

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                Author and article information

                Journal
                1302.1218

                Analysis,Thermal physics & Statistical mechanics
                Analysis, Thermal physics & Statistical mechanics

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