Abstract:We consider the following system of Liouville equations:We show the existence of at least n − n 3 global branches of nonradial solutions bifurcating from u1(x) = u2(x) = U (x) = log 64 (2 + µ) (8 + |x| 2 ) 2 at the values µ = −2 n 2 + n − 2 n 2 + n + 2 for any n ∈ N.
“…To prove Theorem 1.2, we need to introduce the following lemma, which is slightly different from Lemma A.3 in [2].…”
Section: Axially Asymmetric Solutionsmentioning
confidence: 99%
“…We note that all the improper integrals are well defined due to the behavior of P m n (y) andP m n (y) at y = ±1 and the simplicity of the zeros of P m n (y) in (−1, 1) and the oddness of P 0 n (y) and evenness of P m n (y) when n, m are odd. See Lemma A.3 of [2] for a detailed explanation. Proof of Theorem 1.2.…”
Section: Axially Asymmetric Solutionsmentioning
confidence: 99%
“…The main difficulty is that the kernel of the nature associated operator is not one dimensional. In order to overcome this obstacle, we follow the method from [2] by searching for spaces with some symmetry. Multiple two-dimensional solutions of mean field equation on flat tori bifurcating from trivial solution can be seen in [10].…”
Section: Introductionmentioning
confidence: 99%
“…we have that Q∂2 u,u T(ρ n , 0)[w 0 , w 0 ] = 0. Hence(∂ u T(ρ n , 0)) −1 (I − Q)∂ 2 u,u T(ρ n , 0)[w 0 , w 0 ] = (∂ u T(ρ n , 0)) −1 ∂ 2 u,u T(ρ n , 0)[w 0 , w 0 ],and we denote this term as φ.…”
We study the following mean field equationwhere ρ is a real parameter. We obtain the existence of multiple axially asymmetric solutions bifurcating from u = 0 at the values ρ = 4n(n + 1)π for any odd integer n ≥ 3.
“…To prove Theorem 1.2, we need to introduce the following lemma, which is slightly different from Lemma A.3 in [2].…”
Section: Axially Asymmetric Solutionsmentioning
confidence: 99%
“…We note that all the improper integrals are well defined due to the behavior of P m n (y) andP m n (y) at y = ±1 and the simplicity of the zeros of P m n (y) in (−1, 1) and the oddness of P 0 n (y) and evenness of P m n (y) when n, m are odd. See Lemma A.3 of [2] for a detailed explanation. Proof of Theorem 1.2.…”
Section: Axially Asymmetric Solutionsmentioning
confidence: 99%
“…The main difficulty is that the kernel of the nature associated operator is not one dimensional. In order to overcome this obstacle, we follow the method from [2] by searching for spaces with some symmetry. Multiple two-dimensional solutions of mean field equation on flat tori bifurcating from trivial solution can be seen in [10].…”
Section: Introductionmentioning
confidence: 99%
“…we have that Q∂2 u,u T(ρ n , 0)[w 0 , w 0 ] = 0. Hence(∂ u T(ρ n , 0)) −1 (I − Q)∂ 2 u,u T(ρ n , 0)[w 0 , w 0 ] = (∂ u T(ρ n , 0)) −1 ∂ 2 u,u T(ρ n , 0)[w 0 , w 0 ],and we denote this term as φ.…”
We study the following mean field equationwhere ρ is a real parameter. We obtain the existence of multiple axially asymmetric solutions bifurcating from u = 0 at the values ρ = 4n(n + 1)π for any odd integer n ≥ 3.
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