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Imbalances in Neurosymbolic Learning: Characterization and Mitigating Strategies

NeurIPS 2025 · Label-efficient and robust learning › Recognition and long-tail · approach: Contrastive learning for imbalanced data · 0 citations (OpenAlex)

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Characterizes class-specific learning imbalances in neurosymbolic learning caused by the symbolic component, and proposes marginal estimation plus LP-based training-time (ILP) and RSOT-based testing-time (CAROT) imbalance mitigation.

Problem

Neurosymbolic learning from weak labels produced by a symbolic function over hidden gold labels suffers class-specific learning imbalances, which existing long-tailed learning theory and methods do not capture or handle, since the hidden label marginal is unknown.

Approach

Shows theoretically that the symbolic component sigma itself induces class-specific risk imbalances even with uniform hidden labels; estimates the hidden label marginal from weak labels via polynomial system fitting; mitigates imbalance at training time via a batch linear program producing pseudolabels constrained by the marginal, and at testing time via robust semi-constrained optimal transport (

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
Use ILP training-time mitigation instead of training with SL aloneNeurosymbolic classifiers · MAX-M (M=4, LT ρ=5)accuracy: 55.48 ± 23.23 -> 78.56 ± 1.52Helped
Use ILP training-time mitigation instead of training with SL aloneNeurosymbolic classifiers · SMALLESTPARENT (LT ρ=5)accuracy: 67.94% -> 79.24%; 67.94% -> 81.27%Helped
Train with RECORDS and SL instead of SL aloneNeurosymbolic classifiers · SMALLESTPARENT (LT ρ=5)accuracy: 67.94% -> 48.15%Hurt
Use ILP (EMP) instead of SL aloneNeurosymbolic classifiers · MAX-M (M=3, LT ρ=50)accuracy: 66.74% -> 77.16%Helped
Use EMP ratios rather than gold ratios for ILP trainingILP · MAX-M (M=3, LT ρ=50)accuracy: 73.39 ± 9.35 -> 77.16 ± 3.46Helped
Use gold ratios rather than EMP ratios for ILP trainingILP · SMALLESTPARENT (LT ρ=5)accuracy: 79.24 ± 1.03 -> 81.27 ± 0.71Helped
Apply CAROT at test time to ILP (EMP)ILP (EMP) · SMALLESTPARENT (LT ρ=50)accuracy: 70.29% -> 80.71%Helped
Apply Logit Adjustment at test time to ILP (EMP)ILP (EMP) · SMALLESTPARENT (LT ρ=50)accuracy: 70.29 ± 1.62 -> 70.29 ± 1.62No clear effect
Apply CAROT at test time to RECORDSRECORDS · SMALLESTPARENT (LT ρ=15)accuracy: 50.14% -> 71.70%Helped
Apply CAROT at test time to RECORDSRECORDS · SMALLESTPARENT (LT ρ=5)accuracy: 48.15 ± 4.56 -> 69.04 ± 0.74Mixed
Apply CAROT at test time to a baseline modelSL and other baseline classifiers · SMALLESTPARENT (LT ρ=5)accuracyMixed
Use CAROT with less accurate estimated label ratiosCAROT · MAX-3 test-time evaluationaccuracy: more than 10%Hurt

Surprising findings

Limitations

Experimental setup

Datasets: MNIST CIFAR-10 HWF

Benchmarks: MAX-3 MAX-4 MAX-5 SMALLESTPARENT

Metrics: balanced accuracy class-specific accuracy

Baselines: SL SL + LA RECORDS RECORDS + LA ILP (GOLD) ILP (EMP)

Builds on: semantic loss Logit Adjustment RECORDS robust semi-constrained optimal transport Scallop

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