on Selberg trace formula

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The selberg trace formula has two forms: one is for a setting of a semi simple group $G$ and its cocompact subgroup $Gamma$, and relates the geometric and spectral side of the canonical automorphic representation of $G$, which is normally we are talking about, another is for a Laplacian operator on a Riemannian surface, and relates the spectrum of it with the length of geodesic curves, which seems not a special case of the first form, although of course they have much similarity. I am just wondering if the second form can be reduced from the first form, what is the relation of them?










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  • Are you asking if every Riemann surface is of the form $G/Gamma$? This is the uniformization theorem.
    – Kimball
    Sep 6 at 22:58














up vote
1
down vote

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The selberg trace formula has two forms: one is for a setting of a semi simple group $G$ and its cocompact subgroup $Gamma$, and relates the geometric and spectral side of the canonical automorphic representation of $G$, which is normally we are talking about, another is for a Laplacian operator on a Riemannian surface, and relates the spectrum of it with the length of geodesic curves, which seems not a special case of the first form, although of course they have much similarity. I am just wondering if the second form can be reduced from the first form, what is the relation of them?










share|cite|improve this question





















  • Are you asking if every Riemann surface is of the form $G/Gamma$? This is the uniformization theorem.
    – Kimball
    Sep 6 at 22:58












up vote
1
down vote

favorite









up vote
1
down vote

favorite











The selberg trace formula has two forms: one is for a setting of a semi simple group $G$ and its cocompact subgroup $Gamma$, and relates the geometric and spectral side of the canonical automorphic representation of $G$, which is normally we are talking about, another is for a Laplacian operator on a Riemannian surface, and relates the spectrum of it with the length of geodesic curves, which seems not a special case of the first form, although of course they have much similarity. I am just wondering if the second form can be reduced from the first form, what is the relation of them?










share|cite|improve this question













The selberg trace formula has two forms: one is for a setting of a semi simple group $G$ and its cocompact subgroup $Gamma$, and relates the geometric and spectral side of the canonical automorphic representation of $G$, which is normally we are talking about, another is for a Laplacian operator on a Riemannian surface, and relates the spectrum of it with the length of geodesic curves, which seems not a special case of the first form, although of course they have much similarity. I am just wondering if the second form can be reduced from the first form, what is the relation of them?







modular-forms laplacian geodesic automorphic-forms






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asked Sep 5 at 10:34









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  • Are you asking if every Riemann surface is of the form $G/Gamma$? This is the uniformization theorem.
    – Kimball
    Sep 6 at 22:58
















  • Are you asking if every Riemann surface is of the form $G/Gamma$? This is the uniformization theorem.
    – Kimball
    Sep 6 at 22:58















Are you asking if every Riemann surface is of the form $G/Gamma$? This is the uniformization theorem.
– Kimball
Sep 6 at 22:58




Are you asking if every Riemann surface is of the form $G/Gamma$? This is the uniformization theorem.
– Kimball
Sep 6 at 22:58















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