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This paper establishes theoretical performance bounds for constructing complex multiclass classifiers by combining simple binary decisions, specifically analyzing the fundamental limits when those binary components are hyperplanes in a Gaussian setting. The study provides explicit analytical results and empirical validation across various decoding regimes, offering critical insights into optimizing distributed learning architectures where agents perform minimal tasks.
Fundamental limits of distributed multiclass classification from simple binary decisions
arXiv:2607.19334v1 Announce Type: cross Abstract: We consider the problem of constructing a $K$-class classifier from the combination of $O(\log K)$ simple binary classifiers -- this is a natural paradigm to construct a sophisticated classifier in a distributed manner with each agent performing a relatively straightforward task. We study the fundamental performance limits of such a classifier when the corresponding binary classifiers are hyperplanes. For a stylized Gaussian setting where the $K$ class centers are independent Gaussian points in $\mathbb R^d$ and the observations are corrupted by Gaussian noise, we derive explicit performance bounds across several decoding and dimensional regimes. Extensive simulation experiments provide strong empirical validation of the presented theoretical results.
Abstract:We consider the problem of constructing a $K$-class classifier from the combination of $O(\log K)$ simple binary classifiers -- this is a natural paradigm to construct a sophisticated classifier in a distributed manner with each agent performing a relatively straightforward task. We study the fundamental performance limits of such a classifier when the corresponding binary classifiers are hyperplanes. For a stylized Gaussian setting where the $K$ class centers are independent Gaussian points in $\mathbb R^d$ and the observations are corrupted by Gaussian noise, we derive explicit performance bounds across several decoding and dimensional regimes. Extensive simulation experiments provide strong empirical validation of the presented theoretical results.
Machine Learning (stat.ML); Information Theory (cs.IT); Machine Learning (cs.LG); Statistics Theory (math.ST)
arXiv:2607.19334 [stat.ML]
(or arXiv:2607.19334v1 [stat.ML] for this version)
https://doi.org/10.48550/arXiv.2607.19334 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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