“…Following [9], we regularize the Hamiltonian (1). For each n ≥ 1 and E < 0, we introduce parameters ν and μ, a new variable q ∈ R 3 , and a functionψ by the formulas (3) E = − 1 4n 2 ν 2 , μ = ε 2 n 6 ν 4 , q = x n 2 ν , ψ(x) =ψ (q) n 2 .…”
Section: Regularizationmentioning
confidence: 99%
“…Then μ 1 and we can apply a quantum version of the averaging method [19], [20], [9] to the problem (4). The basic idea of this method is to find an invertible operator U and an operator S 1 + μS 2 such that…”
Section: Algebraic Averagingmentioning
confidence: 99%
“…Since in our problem the spectrum of the operator S 0 is integral, the condition (10) is satisfied. The operator U can be explicitly computed [9]. Define…”
Section: Algebraic Averagingmentioning
confidence: 99%
“…An algebraic method for constructing the asymptotics of the spectrum and the eigenfunctions of the operator (1) was introduced in [9]. It is based on an algebraic averaging of the perturbation, followed by the passage to the symmetry algebra, and a coherent transformation from the original representation of this algebra to an irreducible representation of that algebra in the space of functions over a Lagrangian submanifold in a symplectic leaf.…”
Section: Introductionmentioning
confidence: 99%
“…A possible approach to constructing asymptotics near cluster boundaries using "deformed" coherent states was outlined in [9], but so far it has not been justified in higher approximations.…”
Abstract. We investigate the second-order Zeeman effect in a magnetic field using irreducible representations of an algebra with the Karasev -Novikova quadratic commutation relations. To each such representation there corresponds a spectral cluster near the energy level of the unperturbed hydrogen atom. Using this model as an example, we describe a general method for constructing asymptotic solutions near the boundaries of spectral clusters based on a new integral representation. We also study the problem of computing quantum averages near the lower boundaries of clusters.
“…Following [9], we regularize the Hamiltonian (1). For each n ≥ 1 and E < 0, we introduce parameters ν and μ, a new variable q ∈ R 3 , and a functionψ by the formulas (3) E = − 1 4n 2 ν 2 , μ = ε 2 n 6 ν 4 , q = x n 2 ν , ψ(x) =ψ (q) n 2 .…”
Section: Regularizationmentioning
confidence: 99%
“…Then μ 1 and we can apply a quantum version of the averaging method [19], [20], [9] to the problem (4). The basic idea of this method is to find an invertible operator U and an operator S 1 + μS 2 such that…”
Section: Algebraic Averagingmentioning
confidence: 99%
“…Since in our problem the spectrum of the operator S 0 is integral, the condition (10) is satisfied. The operator U can be explicitly computed [9]. Define…”
Section: Algebraic Averagingmentioning
confidence: 99%
“…An algebraic method for constructing the asymptotics of the spectrum and the eigenfunctions of the operator (1) was introduced in [9]. It is based on an algebraic averaging of the perturbation, followed by the passage to the symmetry algebra, and a coherent transformation from the original representation of this algebra to an irreducible representation of that algebra in the space of functions over a Lagrangian submanifold in a symplectic leaf.…”
Section: Introductionmentioning
confidence: 99%
“…A possible approach to constructing asymptotics near cluster boundaries using "deformed" coherent states was outlined in [9], but so far it has not been justified in higher approximations.…”
Abstract. We investigate the second-order Zeeman effect in a magnetic field using irreducible representations of an algebra with the Karasev -Novikova quadratic commutation relations. To each such representation there corresponds a spectral cluster near the energy level of the unperturbed hydrogen atom. Using this model as an example, we describe a general method for constructing asymptotic solutions near the boundaries of spectral clusters based on a new integral representation. We also study the problem of computing quantum averages near the lower boundaries of clusters.
We study the Zeeman-Stark effect problem in the hydrogen atom located in an electromagnetic field by using irreducible representations of the Karasev-Novikova algebra with quadratic commutation relations. We find asymptotics of a series of eigenvalues and the corresponding eigenfunctions near the lower boundaries of spectral clusters. Bibliography: 10 titles. Illustrations: 1 figure.
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