Local Zeta Functions and Koba-Nielsen String Amplitudes
M. Bocardo-Gaspar, H. Garc\'ia-Compe\'an, Edgar Y. L\'opez, W. A., Z\'u\~niga-Galindo

TL;DR
This paper surveys the relationship between Koba-Nielsen amplitudes and local zeta functions, exploring their connections through p-adic string limits, algebraic geometry, and potential implications for string theory and number theory.
Contribution
It introduces Koba-Nielsen amplitudes as a new class of local zeta functions and analyzes their properties and limits, linking string amplitudes with algebraic-geometric integrals.
Findings
Koba-Nielsen amplitudes are meromorphically continuable functions.
Limit p→1 of p-adic amplitudes relates to Denef-Loeser amplitudes.
Explicit calculations for 4 and 5 points demonstrate these connections.
Abstract
This article is a survey of our recent work on the connections between Koba-Nielsen amplitudes and local zeta functions (in the sense of Gel'fand, Weil, Igusa, Sato, Bernstein, Denef, Loeser, etc.). Our research program is motivated by the fact that the p-adic strings seem to be related in some interesting ways with ordinary strings. For instance, connections through the adelic relations and through the limit when p tends to 1. Gerasimov and Shatashvili studied the limit p tends to 1 of the p-adic effective action introduced by Brekke, Freund, Olson and Witten. They showed that this limit gives rise to a boundary string field theory, which was previously proposed by Witten in the context of background independent string theory. Explicit computations in the cases of 4 and 5 points show that the Feynman amplitudes at the tree level of the Gerasimov-Shatashvili Lagrangian are related with…
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Taxonomy
Topicsadvanced mathematical theories · Black Holes and Theoretical Physics · Topological and Geometric Data Analysis
