2015
DOI: 10.5802/aif.2927
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Geometry and Spectrum in 2D Magnetic Wells

Abstract: 24 pages, 2 figuresThis paper is devoted to the classical mechanics and spectral analysis of a pure magnetic Hamiltonian in $\R^2$. It is established that both the dynamics and the semiclassical spectral theory can be treated through a Birkhoff normal form and reduced to the study of a family of one dimensional Hamiltonians. As a corollary, recent results by Helffer-Kordyukov are extended to higher energies

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Cited by 50 publications
(80 citation statements)
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“…Remark 2.4. The case of purely magnetic Schrödinger operators when the magnetic field has a global non-degenerate minimum has been treated in [15,36].…”
Section: Main Steps In the Proofmentioning
confidence: 99%
“…Remark 2.4. The case of purely magnetic Schrödinger operators when the magnetic field has a global non-degenerate minimum has been treated in [15,36].…”
Section: Main Steps In the Proofmentioning
confidence: 99%
“…Under the assumption (2.12), the known spectral asymptotics (which are actually the same in this case) of the Dirichlet and Neumann eigenvalues will lead us to the asymptotics given in the righthand side of (2.13). Under the additional assumption that inf x∈Ω |B 0 (x)| is attained at a unique minimum in Ω and that this minimum is non degenerate, a complete asymptotics of λ N (tA 0 ) can be given (see Helffer-Mohamed [15], Helffer-Kordyukov [13,14], Raymond-Vu Ngoc [23] ) and the monotonicity/strong diamagnetism property holds for large values of t (see Chapter 3 in [4]). Hence the definition of H c 3 (κ) is clear in this case.…”
Section: 2mentioning
confidence: 99%
“…This fact was noticed, for instance, in the papers by Helffer and Morame [18,19] where numerous techniques have been developed to analyze the magnetic Laplacian and its eigenfunctions. Even more recently in [16,34,17], in cases without boundary, subtle localization properties of the magnetic eigenfunctions have played a fundamental role in the semiclassical spectral theory (and we will meet again this aspect in the nonlinear context). In cases with boundaries, the Robin condition is physically motivated by inhomogeneous superconductors (see for instance the linear and nonlinear contributions by Kachmar [21,22,23,20]): in this context, the Robin condition is sometimes called "de Gennes condition".…”
Section: Some Perspectives 39mentioning
confidence: 81%