We prove a short time existence result for a system consisting of a geometric evolution equation for a hypersurface and a parabolic equation on this evolving hypersurface. More precisely, we discuss a mean curvature flow scaled with a term that depends on a quantity defined on the surface coupled to a diffusion equation for that quantity. The proof is based on a splitting ansatz, solving both equations separately using linearization and a contraction argument. Our result is formulated for the case of immersed hypersurfaces and yields a uniform lower bound on the existence time that allows for small changes in the initial value of the height function
We consider the evolution of open curves driven by curve diffusion flow. This geometric evolution eq...
We consider the evolution of open curves driven by curve diffusion flow. This geometric evolution eq...
We study the evolution of a closed, convex hypersurface in ℝn+1 in direction of its normal vector, w...
We prove a short time existence result for a system consisting of a geometric evolution equation for...
We prove a short time existence result for a system consisting of a geometric evolution equation for...
We consider a geometric problem consisting of an evolution equation for a closed hypersurface couple...
We consider a geometric problem consisting of an evolution equation for a closed hypersurface couple...
We consider a geometric problem consisting of an evolution equation for a closed hypersurface couple...
AbstractWe consider closed immersed hypersurfaces in R3 and R4 evolving by a special class of constr...
A geometric evolution equation is a partial differential equation that evolves some kind of geometri...
AbstractWe introduce a geometric evolution equation of hyperbolic type, which governs the evolution ...
We consider the evolution of open curves driven by curve diffusion flow. This geometric evolution eq...
The evolution of hypersurfaces in the direction of the unit normal with speed equal to the reciproca...
summary:We prove the short-time existence of the hyperbolic inverse (mean) curvature flow (with or w...
Hyperbolic curvature flow is a geometric evolution equation that in the plane can be viewed as the n...
We consider the evolution of open curves driven by curve diffusion flow. This geometric evolution eq...
We consider the evolution of open curves driven by curve diffusion flow. This geometric evolution eq...
We study the evolution of a closed, convex hypersurface in ℝn+1 in direction of its normal vector, w...
We prove a short time existence result for a system consisting of a geometric evolution equation for...
We prove a short time existence result for a system consisting of a geometric evolution equation for...
We consider a geometric problem consisting of an evolution equation for a closed hypersurface couple...
We consider a geometric problem consisting of an evolution equation for a closed hypersurface couple...
We consider a geometric problem consisting of an evolution equation for a closed hypersurface couple...
AbstractWe consider closed immersed hypersurfaces in R3 and R4 evolving by a special class of constr...
A geometric evolution equation is a partial differential equation that evolves some kind of geometri...
AbstractWe introduce a geometric evolution equation of hyperbolic type, which governs the evolution ...
We consider the evolution of open curves driven by curve diffusion flow. This geometric evolution eq...
The evolution of hypersurfaces in the direction of the unit normal with speed equal to the reciproca...
summary:We prove the short-time existence of the hyperbolic inverse (mean) curvature flow (with or w...
Hyperbolic curvature flow is a geometric evolution equation that in the plane can be viewed as the n...
We consider the evolution of open curves driven by curve diffusion flow. This geometric evolution eq...
We consider the evolution of open curves driven by curve diffusion flow. This geometric evolution eq...
We study the evolution of a closed, convex hypersurface in ℝn+1 in direction of its normal vector, w...