Multiple normalized solutions for a competing system of Schrödinger equations

By Thomas Bartsch, Nicola Soave. Calculus of Variations and Partial Differential Equations, 2017

239 citations recorded by the source corpus.

We prove the existence of infinitely many solutions $$\lambda _1, \lambda _2 \in \mathbb {R}$$λ1,λ2∈R, $$u,v \in H^1(\mathbb {R}^3)$$u,v∈H1(R3), for the nonlinear Schrödinger system $$\begin{aligned} {\left\{ \begin{array}{ll} -\Delta u - \lambda _1 u = \mu u^3+ \beta u v^2 &{} \text {in }\mathbb {R}^3 \\ -\Delta v- \lambda _2 v = \mu v^3 +\beta u^2 v &{} \text {in }\mathbb {R}^3\\ u,v>0 &{} \text {in }\mathbb {R}^3 \\ \int _{\mathbb {R}^3} u^2 = a^2 \quad \text {and} \quad \int _{\mathbb {R}^3} v^2 = a^2, \end{array}\right. } \end{aligned}$$-Δu-λ1u=μu3+βuv2inR3-Δv-λ2v=μv3+βu2vinR3u,v>0inR3∫R3u2=a2and∫R3v2=a2,where $$a,\mu >0$$a,μ>0 and $$\beta \le -\mu $$β≤-μ are prescribed. Our solutions satisfy $$u\ne v$$u≠v so they do not come from a scalar equation. The proof is based on a new minimax argument, suited to deal with normalization conditions.

Subfields: Applied Mathematics, Control and Systems Engineering, Mathematical Physics

View Paper: https://www.semanticscholar.org/paper/4da9ce3acecf3eedf9ba7e736536725c902d181a

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In Applied Mathematics

  1. Thomas Bartsch
  2. Wenming Zou
  3. Houwang Li
  4. Louis Jeanjean
  5. R. Molle
  6. Gianmaria Verzini
  7. Giuseppe Riey
  8. Tianxiang Gou

In Control and Systems Engineering

  1. Thomas Bartsch
  2. Houwang Li
  3. Wenming Zou
  4. Gianmaria Verzini
  5. R. Molle
  6. Giuseppe Riey
  7. Louis Jeanjean
  8. Tianxiang Gou

In Mathematical Physics

  1. Thomas Bartsch
  2. Wenming Zou
  3. Houwang Li
  4. Louis Jeanjean
  5. R. Molle
  6. Gianmaria Verzini
  7. Giuseppe Riey
  8. Tianxiang Gou

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