Tropical analytic geometry, Newton polygons, and tropical intersections
By Joseph Rabinoff. 2010
85 citations recorded by the source corpus.
In this paper we use the connections between tropical algebraic geometry and rigid analytic geometry in order to prove two main results. We use tropical methods to prove a theorem about the Newton polygon for convergent power series in several variables: if f_1,...,f_n are n convergent power series in n variables with coefficients in a non-Archimedean field K, we give a formula for the valuations and multiplicities of the common zeros of f_1,...,f_n. We use rigid-analytic methods to show that stable complete intersections of tropical hypersurfaces compute algebraic multiplicities even when the intersection is not tropically proper. These results are naturally formulated and proved using the theory of tropicalizations of rigid-analytic spaces, as introduced by Einsiedler-Kapranov-Lind [EKL06] and Gubler [Gub07b]. We have written this paper to be as readable as possible both to tropical and arithmetic geometers.
Subfields: Algebra and Number Theory, Computational Theory and Mathematics, Geometry and Topology
View Paper: https://www.semanticscholar.org/paper/50b76d4a50f3c97c9d7624559d8817e6766683f6
How researchers see this paper
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In Algebra and Number Theory
- Matthew Baker
- Sam Payne
- Joseph Rabinoff
- Martin Ulirsch
- David Jensen
- Omid Amini
- Laura Demarco
- Lucia Caporaso
In Computational Theory and Mathematics
- Sam Payne
- Matthew Baker
- Martin Ulirsch
- Joseph Rabinoff
- David Jensen
- Dhruv Ranganathan
- Omid Amini
- Lucia Caporaso
In Geometry and Topology
- Sam Payne
- Matthew Baker
- Martin Ulirsch
- Joseph Rabinoff
- David Jensen
- Dhruv Ranganathan
- Omid Amini
- Lucia Caporaso
Citations in the corpus
- On the structure of non-archimedean analytic curves (2013, background): “This is a polyhedral domain in the sense of [23]; more precisely, it is the affinoid domain with ring of analytic functions”
- On the structure of nonarchimedean analytic curves (2014, methodology): “Gan m = trop −1(R). We use trop to define several analytic domains in A1,an: • For a ∈K× the standard closed ball of radius |a|is B(a) = trop−1([val(a),∞]). This is a polyhedral domain in the sense of [Rab12]; more precisely, it is the affinoid domain with ring of analytic functions Kha−1ti= ( X∞ n=0 ”
- Functorial tropicalization of logarithmic schemes: the case of constant coefficients (2013, background): “F. If F=SpecPis affine, we can formally describe this stratification following [Pay09, Section 3] or [Rab12, Proposition 3.4]. Write σfor the cone Hom(P,R≥0)as well as NR(σ)=Hom(P,R). Proposition 3.12 ([Rab12] Proposition 3.4). There is a natural stratification G τ≺σ NR/Specτ −∼→ N R(σ) ofNR(σ)bylocall”
- Nonarchimedean geometry, tropicalization, and metrics on curves (2011, background): “one σ= σP is pointed. Definition4.5. ThepolyhedraldomainassociatedtoPistheinverseimage undertrop : Yan σ → NR(σ) of the closure of Pin NR(σ) and is denoted U P. These polyhedral domains, introduced in [Rab12], directly generalize the polytopal domains studied by Gubler in [Gub07b]. Indeed, a polytopa”