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Hyper Evidential Deep Learning to Quantify Composite Classification Uncertainty

ICLR 2024 · Label-efficient and robust learning › Recognition and long-tail · approach: Loss design and classifier theory · 1 citations (OpenAlex)

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Proposes Hyper-Evidential Neural Network (HENN), which places a grouped Dirichlet distribution over class probabilities to learn from composite labels and quantify a new "vagueness" uncertainty, trained with a UPCE loss plus KL regularizer.

Problem

Deep classifiers trained on composite (set-valued) labels from ambiguous images cannot quantify uncertainty arising from composite labels in the training data; existing partial-label, conformal, and evidential methods do not address this.

Approach

Model predictions as hyper-opinions in Subjective Logic via a grouped Dirichlet distribution, so the network outputs evidence for singleton classes and composite sets; define a vagueness measure (total belief mass on composite sets) and train with an uncertainty partial cross-entropy loss plus a KL regularizer.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
Add the proposed KL regularization to UPCE (ablation)HENN · Nonliving26, M=15, 7×7 blurOverJS: 78.25 -> 86.93Helped
Add the proposed KL regularization to UPCE (ablation)HENN · Nonliving26, M=15, 7×7 blurCompJS: 62.89 -> 94.78Helped
Add the proposed KL regularization to UPCE (ablation)HENN · Nonliving26, M=15, 7×7 blurAcc: 84.96 -> 85.19Mixed
Restrict KL regularization to singleton classes (ablation)HENN · Nonliving26, M=15, 7×7 blurCompJS: 94.78 -> 94.15Hurt
Replace KL regularization with GDD entropy regularization (ablation)HENN · Nonliving26, M=15, 7×7 blurOverJS: 86.93 vs 86.68No clear effect
Use HENN instead of the strongest reported baseline (DNN)composite prediction · tinyImageNet, M=10, 3×3 blurCompJS: 66.9 -> 93.4Helped
Use HENN instead of the strongest reported baseline (DNN)composite prediction · Living17, M=10, 3×3 blurCompJS: 81.0 -> 96.5Helped
Use HENN instead of the strongest reported baseline (DNN)composite prediction · Nonliving26, M=10, 3×3 blurCompJS: 62.0 -> 96.8Helped

Surprising findings

Limitations

Experimental setup

Datasets: TinyImageNet Living17 Nonliving26 CIFAR100

Benchmarks: TinyImageNet Living17 Nonliving26 CIFAR100

Metrics: OverJS CompJS Accuracy AUROC

Baselines: DNN ENN E-CNN RAPS PiCO

Builds on: evidential deep learning subjective logic uncertainty cross-entropy loss partial cross-entropy loss

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