2015
DOI: 10.1002/mma.3706
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Equations of second order in time with quasilinear damping: existence in Orlicz spaces via convergence of a full discretisation

Abstract: A nonlinear evolution equation of second order with damping is studied. The quasilinear damping term is monotone and coercive but exhibits anisotropic and nonpolynomial growth. The appropriate setting for such equations is that of monotone operators in Orlicz spaces. Global existence of solutions in the sense of distributions is shown via convergence of the backward Euler scheme combined with an internal approximation.

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Cited by 4 publications
(3 citation statements)
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“…Assuming that A, B are operators on ``nice"" function spaces and by considering a sequence of approximating problems based on temporal discretization, the authors prove the existence of a weak solution to this doubly nonlinear problem. We also mention the related work [17], where the authors consider…”
Section: 2)mentioning
confidence: 99%
“…Assuming that A, B are operators on ``nice"" function spaces and by considering a sequence of approximating problems based on temporal discretization, the authors prove the existence of a weak solution to this doubly nonlinear problem. We also mention the related work [17], where the authors consider…”
Section: 2)mentioning
confidence: 99%
“…For the last step of the proof, it will be crucial to use the limit equation (4.5) not only for test functions in V ⊗ C 1 ([0, T ]), but for a more general class of test functions. We will use the following approximation result almost identical to [10,Lemma 4.3].…”
Section: Existence Via Convergence Of Approximate Solutionsmentioning
confidence: 99%
“…The remaining step is to show that α = σ(∇u). To this end, we use a variant of Minty's trick adapted to the case of nonreflexive Orlicz spaces (see also [10,11,19,27]). For k ≥ 0 we define…”
Section: Identification Of Initial and Final Valuesmentioning
confidence: 99%