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The analysis shows existence of unique solutions for nematic liquid crystal flows, suggesting strong mathematical foundations for modeling fluids.
The Ericksen-Leslie model for nematic liquid crystal flows in case of an isothermal and incompressible fluid with general Leslie stress and anisotropic elasticity, i.e. with general Ericksen stress tensor, is shown for the first time to be strongly well-posed. Of central importance is a fully nonlinear boundary condition for the director field, which, in this generality, is necessary to guarantee that the system fulfills physical principles. The system is shown to be locally, strongly well-posed in the Lₚ L p -setting. More precisely, the existence and uniqueness of a local, strong Lₚ L p -solution to the general system is proved and it is shown that the director d satisfies |d|₂≡ 1 | d | 2 ≡ 1 provided this holds for its initial data d₀ d 0 . In addition, the solution is shown to depend continuously on the data. The results are proven without any structural assumptions on the Leslie coefficients and in particular without assuming Parodi’s relation.
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Hieber et al. (2025) studied this question.
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