Continuity and Harnack inequalities for local minimizers of non uniformly elliptic functionals with generalized Orlicz growth under the non-logarithmic conditions
Maria O. Savchenko, Igor I. Skrypnik, Yevgeniia A.Yevgenieva

TL;DR
This paper investigates the properties of local minimizers of complex elliptic functionals with generalized growth conditions, establishing continuity and Harnack inequalities under non-logarithmic assumptions that extend existing theories to new classes of functionals.
Contribution
It introduces new non-logarithmic conditions for elliptic functionals, broadening the scope of regularity results to include double-phase and variable exponent cases.
Findings
Established continuity of local minimizers under generalized conditions.
Proved Harnack inequalities for a wider class of elliptic functionals.
Extended regularity theory to non-uniformly elliptic and variable exponent functionals.
Abstract
We study the qualitative properties of functions belonging to the corresponding De Giorgi classes \begin{equation*} \int\limits_{B_{r(1-\sigma)}(x_{0})}\,\varPhi(x, |\nabla(u-k)_{\pm}|)\,dx \leqslant \gamma\,\int\limits_{B_{r}(x_{0})}\,\varPhi\bigg(x, \frac{(u-k)_{\pm}}{\sigma r}\bigg)\,dx, \end{equation*} where , , and the function satisfies the non-logarithmic condition \begin{equation*} \bigg(r^{-n}\int\limits_{B_{r}(x_{0})}[\varPhi\big(x,\frac{v}{r}\big)]^{s}\,dx\bigg)^{\frac{1}{s}}\bigg(r^{-n}\int\limits_{B_{r}(x_{0})}[\varPhi\big(x,\frac{v}{r}\big)]^{-t}\,dx\bigg)^{\frac{1}{t}}\leqslant c(K) \Lambda(x_{0},r),\quad r\leqslant v\leqslant K\,\lambda(r), \end{equation*} under some assumptions on the functions and and the numbers , . These conditions generalize the known logarithmic,…
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Taxonomy
TopicsNonlinear Partial Differential Equations · Advanced Mathematical Modeling in Engineering · Analytic and geometric function theory
