Tame Embeddings, Volume Growth, and Complexity of Moduli Spaces

Fuente: arXiv
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Autores principales: Grimm, Thomas W., Prieto, David, van Vliet, Mick
Formato: Preprint
Publicado: 2025
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author Grimm, Thomas W.
Prieto, David
van Vliet, Mick
author_facet Grimm, Thomas W.
Prieto, David
van Vliet, Mick
contents Quantum gravity is expected to impose constraints on the moduli spaces of massless fields that can arise in effective quantum field theories. A recent proposal asserts that the asymptotic volume growth of these spaces is severely restricted, and related to the existence of duality symmetries. In this work we link this proposal to a tameness criterion, by suggesting that any consistent moduli space should admit a tame isometric embedding into Euclidean space. This allows us to promote the volume growth constraint to a local condition, and give the growth coefficient a geometric interpretation in terms of complexity. We study the implications of this proposal for the emergence of dualities, as well as for the curvature and infinite distance limits of moduli spaces.
format Preprint
id arxiv_https___arxiv_org_abs_2503_15601
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Tame Embeddings, Volume Growth, and Complexity of Moduli Spaces
Grimm, Thomas W.
Prieto, David
van Vliet, Mick
High Energy Physics - Theory
Quantum gravity is expected to impose constraints on the moduli spaces of massless fields that can arise in effective quantum field theories. A recent proposal asserts that the asymptotic volume growth of these spaces is severely restricted, and related to the existence of duality symmetries. In this work we link this proposal to a tameness criterion, by suggesting that any consistent moduli space should admit a tame isometric embedding into Euclidean space. This allows us to promote the volume growth constraint to a local condition, and give the growth coefficient a geometric interpretation in terms of complexity. We study the implications of this proposal for the emergence of dualities, as well as for the curvature and infinite distance limits of moduli spaces.
title Tame Embeddings, Volume Growth, and Complexity of Moduli Spaces
topic High Energy Physics - Theory
url https://arxiv.org/abs/2503.15601