2017
DOI: 10.1353/ajm.2017.0011
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On finite Morse index solutions of higher order fractional Lane-Emden equations

Abstract: We classify finite Morse index solutions of the following nonlocal Lane-Emden equation (−∆) s u = |u| p−1 u R n for 1 < s < 2 via a novel monotonicity formula. For local cases s = 1 and s = 2 this classification is provided by Farina in [10] and Davila, Dupaigne, Wang and Wei in [8], respectively. Moreover, for the nonlocal case 0 < s < 1 finite Morse index solutions are classified by Davila, Dupaigne and Wei in [7].

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Cited by 40 publications
(55 citation statements)
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“…Note also that it is wellknown that there is a correspondence between the regularity of stable solutions on bounded domains and the Liouville theorems for stable solutions on the entire space, via rescaling and a blow-up procedure. For the classification of solutions of above nonlocal equations on the entire space we refer interested readers to [12,16,24,30], and for the local equations to [19][20][21] and references therein. For the case of systems, as discussed in [14,22,33], set Q := {(λ, γ) : λ, γ > 0} and define…”
Section: Introduction and Main Resultsmentioning
confidence: 99%
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“…Note also that it is wellknown that there is a correspondence between the regularity of stable solutions on bounded domains and the Liouville theorems for stable solutions on the entire space, via rescaling and a blow-up procedure. For the classification of solutions of above nonlocal equations on the entire space we refer interested readers to [12,16,24,30], and for the local equations to [19][20][21] and references therein. For the case of systems, as discussed in [14,22,33], set Q := {(λ, γ) : λ, γ > 0} and define…”
Section: Introduction and Main Resultsmentioning
confidence: 99%
“…In this section, we establish some technical integral estimates for stable solutions of systems. Most of the ideas and methods applied in this section are inspired by the ones developed in the literature, see for example [17,20,21,23,24]. We start with the Gelfand system.…”
Section: Integral Estimates For Stable Solutionsmentioning
confidence: 99%
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“…Here, η ǫ is a standard cut-off function η ǫ ∈ C 1 c (R + ) at the origin and at infinity that is η ǫ = 1 for ǫ < r < ǫ −1 and η ǫ = 0 for either r < ǫ/2 or r > 2/ǫ. Applying similar ideas provided in [24], we get…”
Section: Local Case: Bi-laplacian Operatormentioning
confidence: 97%
“…For the case of 1 < s < 2, there are various definitions for the fractional operator (−∆) s , see [9,12,24,47]. From the Fourier transform one can define the fractional Laplacian by…”
mentioning
confidence: 99%