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Blow-up and global existence for semilinear parabolic equations on infinite graphs
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abstract
We investigate existence of global in time solutions and blow-up of solutions to the semilinear heat equation posed on infinite graphs. The source term is a general function $f(u)$. We always assume that the infimum of the spectrum of the Laplace operator $\lambda_1(G)$ on the graph is positive. According to an interaction between the behavior of $f$ close to $0$ and the value $\lambda_1(G)$, we get the existence of a global in time solution or blow-up of any nonnegative solution, provided that the initial datum is nontrivial.
Forward citations
Cited by 3 Pith papers
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Blow-up solutions of parabolic $p$-Laplacian inequalities on locally finite graphs
For parabolic p-Laplacian inequalities on locally finite graphs, sufficiently fast growing nonlinear sources force finite-time blow-up of solutions.
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Nonexistence results for the semilinear wave equation on graphs
On infinite weighted graphs, if the graph Laplacian of the distance grows slowly and suitable weighted volume growth holds, every very weak solution of the semilinear wave inequality is identically zero.
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On a semilinear parabolic equation with time-dependent source term on infinite graphs
For u_t = Δu + h(t)u^q on infinite graphs with λ1(G)>0, the paper claims blow-up for fast-growing h and global small data when ∫ h(t)e^{-λ1(q-1)t}dt is finite, but the general blow-up theorem is vitiated by a sign error.
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