Knots, primes and class field theory

Fuente: arXiv
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Main Authors: Connes, Alain, Consani, Caterina
Format: Preprint
Published: 2025
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author Connes, Alain
Consani, Caterina
author_facet Connes, Alain
Consani, Caterina
contents In this paper, we present a geometric generalization of class field theory, demonstrating how adelic constructions, central to the spectral realization of zeros of L-functions and the geometric framework for explicit formulas in number theory, naturally extend the classical theory. This generalization transitions from the idele class group, which acts as the adelic analog of Galois groups, to a geometric framework associated with schemes and the ring of integers of global fields. This perspective provides a conceptual explanation for the role of the adele class space in the spectral realization of L-function zeros and identifies the idele class group as a generic point in this context. The sector $X_{\mathbb{Q}}$ of the adele class space corresponding to the Riemann zeta function gives the class field counterpart of the scaling topos. The main result is the construction of a functor mapping finite abelian extensions of $\mathbb{Q}$ to finite covers of $X_{\mathbb{Q}}$, with the monodromy of periodic orbits of length $\log p$ under the scaling action corresponding to the Galois action of the Frobenius at the prime p.
format Preprint
id arxiv_https___arxiv_org_abs_2501_06560
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Knots, primes and class field theory
Connes, Alain
Consani, Caterina
Number Theory
Algebraic Geometry
Mathematics Subject Classification 2020. 11R37, 11M06, 11M55, 14A15, 14F20, 57 K 10
In this paper, we present a geometric generalization of class field theory, demonstrating how adelic constructions, central to the spectral realization of zeros of L-functions and the geometric framework for explicit formulas in number theory, naturally extend the classical theory. This generalization transitions from the idele class group, which acts as the adelic analog of Galois groups, to a geometric framework associated with schemes and the ring of integers of global fields. This perspective provides a conceptual explanation for the role of the adele class space in the spectral realization of L-function zeros and identifies the idele class group as a generic point in this context. The sector $X_{\mathbb{Q}}$ of the adele class space corresponding to the Riemann zeta function gives the class field counterpart of the scaling topos. The main result is the construction of a functor mapping finite abelian extensions of $\mathbb{Q}$ to finite covers of $X_{\mathbb{Q}}$, with the monodromy of periodic orbits of length $\log p$ under the scaling action corresponding to the Galois action of the Frobenius at the prime p.
title Knots, primes and class field theory
topic Number Theory
Algebraic Geometry
Mathematics Subject Classification 2020. 11R37, 11M06, 11M55, 14A15, 14F20, 57 K 10
url https://arxiv.org/abs/2501.06560