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arXiv:2611.13337 · v1

VC-Dimension and Generalization in Geometric Machine Learning with Applications to Active Learning

首次提交 2026-11-10 07:03
版本更新 2026-11-10 07:03
雷达观测 2026-11-11 11:04
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摘要

We compute the VC-dimension of metric ball classifiers in the model spaces of Riemannian geometry (Euclidean, spherical, hyperbolic) and present upper and lower bounds on the VC-dimension of metric balls in several other situations, including general normed vector spaces (potentially infinite VC-dimension), vector spaces with ℓp\ell^p-norms (VC-dimension grows at least linearly in the dimension, faster than Euclidean for p=1p=1), flat tori, and general Riemannian manifolds (arbitrarily large VC-dimension after a conformal change). In several situations where the VC-dimension is large or even infinite, we prove generalization bounds under additional assumptions on the data distribution using covering arguments. Both in the VC-dimension and covering setting, we consider data on low-dimensional subsets of high-dimensional Euclidean spaces. As an application, we consider coverage-based algorithms in active learning.

作者备注:19 pages + appendices

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v1 · 2026-11-10 07:03 · 最新观测版本

VC-Dimension and Generalization in Geometric Machine Learning with Applications to Active Learning

We compute the VC-dimension of metric ball classifiers in the model spaces of Riemannian geometry (Euclidean, spherical, hyperbolic) and present upper and lower bounds on the VC-dimension of metric balls in several other situations, including general normed vector spaces (potentially infinite VC-dimension), vector spaces with ℓp\ell^p-norms (VC-dimension grows at least linearly in the dimension, faster than Euclidean for p=1p=1), flat tori, and general Riemannian manifolds (arbitrarily large VC-dimension after a conformal change). In several situations where the VC-dimension is large or even infinite, we prove generalization bounds under additional assumptions on the data distribution using covering arguments. Both in the VC-dimension and covering setting, we consider data on low-dimensional subsets of high-dimensional Euclidean spaces. As an application, we consider coverage-based algorithms in active learning.

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