2014
DOI: 10.1063/1.4903182
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Gaussian distributions, Jacobi group, and Siegel-Jacobi space

Abstract: Let N be the space of Gaussian distribution functions over R, regarded as a 2-dimensional statistical manifold parameterized by the mean µ and the deviation σ. In this paper we show that the tangent bundle of N , endowed with its natural Kähler structure, is the Siegel-Jacobi space appearing in the context of Number Theory and Jacobi forms. Geometrical aspects of the Siegel-Jacobi space are discussed in detail (completeness, curvature, group of holomorphic isometries, space of Kähler functions, relationship to… Show more

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Cited by 11 publications
(16 citation statements)
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“…For the convenience of the reader, the paper starts with a discussion on the relation between Kähler geometry and statistics (see Section 2). The material presented is mostly taken from [Mol14], except for Proposition 2.19 which seems to be new. We shall present the subject in a uniform way by using the concept of dually flat structure.…”
Section: Kähler Toric Manifold Dually Flat Spacementioning
confidence: 99%
See 2 more Smart Citations
“…For the convenience of the reader, the paper starts with a discussion on the relation between Kähler geometry and statistics (see Section 2). The material presented is mostly taken from [Mol14], except for Proposition 2.19 which seems to be new. We shall present the subject in a uniform way by using the concept of dually flat structure.…”
Section: Kähler Toric Manifold Dually Flat Spacementioning
confidence: 99%
“…The coordinate expression for the Fisher metric h F is the Hessian of the cumulant generating function: h F (θ) = Hess(ψ) = e θ . It follows from this and Proposition 2.17 that T P is Kähler isomorphic to C endowed with the Kähler metricg z (u, v) = e x Real(uv),where z, u, v ∈ C, z = x + iy, x, y ∈ R. The space of Kähler functions on T P = C is spanned by 1, e x , e 2 (to see this, use Proposition 2.25 in[Mol14]). Let ϕ : C → C be a diffeomorphism satisfying…”
mentioning
confidence: 94%
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“…Example 6.11 (Normal distributions [Mol14]). Let N be the set of Gaussian distributions, as defined in Example 6.4.…”
Section: Proof See [An00]mentioning
confidence: 99%
“…As such, the metric has (NOAB). This metric is of independent interest, and for a more complete discussion, we refer the reader to the work of Molitor [26]. We will note a few of its curvature properties in passing.…”
Section: A Complete Complex Surface With (Noab) One Question Of Consi...mentioning
confidence: 99%