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Main Authors: Bhosale, Swapnil, Frateanu, Cosmin, Clark, Camilla, Jasonas, Arnoldas, Mitchell, Chris, Zhu, Xiatian, Ithapu, Vamsi Krishna, Ferroni, Giacomo, Bilen, Cagdas, Parekh, Sanjeel
Format: Preprint
Published: 2025
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Online Access:https://arxiv.org/abs/2511.00641
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author Bhosale, Swapnil
Frateanu, Cosmin
Clark, Camilla
Jasonas, Arnoldas
Mitchell, Chris
Zhu, Xiatian
Ithapu, Vamsi Krishna
Ferroni, Giacomo
Bilen, Cagdas
Parekh, Sanjeel
author_facet Bhosale, Swapnil
Frateanu, Cosmin
Clark, Camilla
Jasonas, Arnoldas
Mitchell, Chris
Zhu, Xiatian
Ithapu, Vamsi Krishna
Ferroni, Giacomo
Bilen, Cagdas
Parekh, Sanjeel
contents Deploying accurate event detection on resource-constrained devices is challenged by the trade-off between performance and computational cost. While Early-Exit (EE) networks offer a solution through adaptive computation, they often fail to enforce a coherent hierarchical structure, limiting the reliability of their early predictions. To address this, we propose Hyperbolic Early-Exit networks (HypEE), a novel framework that learns EE representations in the hyperbolic space. Our core contribution is a hierarchical training objective with a novel entailment loss, which enforces a partial-ordering constraint to ensure that deeper network layers geometrically refine the representations of shallower ones. Experiments on multiple audio event detection tasks and backbone architectures show that HypEE significantly outperforms standard Euclidean EE baselines, especially at the earliest, most computationally-critical exits. The learned geometry also provides a principled measure of uncertainty, enabling a novel triggering mechanism that makes the overall system both more efficient and more accurate than a conventional EE and standard backbone models without early-exits.
format Preprint
id arxiv_https___arxiv_org_abs_2511_00641
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle More Than A Shortcut: A Hyperbolic Approach To Early-Exit Networks
Bhosale, Swapnil
Frateanu, Cosmin
Clark, Camilla
Jasonas, Arnoldas
Mitchell, Chris
Zhu, Xiatian
Ithapu, Vamsi Krishna
Ferroni, Giacomo
Bilen, Cagdas
Parekh, Sanjeel
Sound
Artificial Intelligence
Deploying accurate event detection on resource-constrained devices is challenged by the trade-off between performance and computational cost. While Early-Exit (EE) networks offer a solution through adaptive computation, they often fail to enforce a coherent hierarchical structure, limiting the reliability of their early predictions. To address this, we propose Hyperbolic Early-Exit networks (HypEE), a novel framework that learns EE representations in the hyperbolic space. Our core contribution is a hierarchical training objective with a novel entailment loss, which enforces a partial-ordering constraint to ensure that deeper network layers geometrically refine the representations of shallower ones. Experiments on multiple audio event detection tasks and backbone architectures show that HypEE significantly outperforms standard Euclidean EE baselines, especially at the earliest, most computationally-critical exits. The learned geometry also provides a principled measure of uncertainty, enabling a novel triggering mechanism that makes the overall system both more efficient and more accurate than a conventional EE and standard backbone models without early-exits.
title More Than A Shortcut: A Hyperbolic Approach To Early-Exit Networks
topic Sound
Artificial Intelligence
url https://arxiv.org/abs/2511.00641