Hilbert problem with measurable data for semilinear equations of the Vekua type
DOI:
https://doi.org/10.15407/dopovidi2022.02.003Keywords:
Hilbert boundary-value problem, measurable boundary data, logarithmic capacity, semilinear equations of the Vekua type, nonlinear sources, angular limits, nontangent pathsAbstract
We prove the existence of solutions for the Hilbert boundary-value problem with arbitrary measurable data for the nonlinear equations of the Vekua’s type ∂z f (z ) = h (z )q(f (z )). The found solutions differ from the classical ones, because our approach is based on the notion of boundary values in the sense of angular limits along nontangential paths. The results obtained can be applied to the establishment of existence theorems for the Poincaré and Neumann boundary-value problems for the nonlinear Poisson equations of the form ΔU (z )=H (z )Q(U (z )) with arbitrary measurable boundary data with respect to the logarithmic capacity. They can be also applied to the study of some semilinear equations of mathematical physics modeling such processes as the diffusion with absorption, plasma states, stationary burning etc. in anisotropic and inhomogeneous media.
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