Prototype-Rule Neurosymbolic Regularization for Rank-Constrained Tensor Neural Networks under Label Scarcity

📅 2026-09-30
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🤖 AI Summary
This study addresses the lack of class-geometric constraints in tensor networks under label-scarce scenarios by proposing a rank-constrained tensor network method that integrates differentiable prototype rules with neuro-symbolic mechanisms. By introducing prototype regularization to embed semantic priors into the tensor decomposition process, the proposed approach effectively enhances the model's representational capacity under low-rank constraints. The method is applied to hyperspectral image classification tasks. Experimental evaluations on the Botswana dataset demonstrate an 8.82 percentage point improvement in macro F1-score for spatial assessment, validating the superiority of prototype-guided tensor networks in few-shot settings.
📝 Abstract
Rank-constrained tensor neural networks reduce the parameterization of high-order inputs, but they do not explicitly constrain class geometry in the learned representation. This study investigates whether a differentiable prototype-rule can provide a complementary inductive bias for Rank-R tensor learning under limited supervision. The proposed framework augments the Rank-R objective with prototype-based regularization and optionally fuses prototype evidence with neural logits at inference. Four hyperspectral benchmarks are evaluated with four Rank-R configurations under both seven-fold stratification and spatially separated folds that mitigate leakage; a separate spatial study varies the class support budget from 2 to 20 samples. Under spatial evaluation, full neurosymbolic inference changes Macro-F1 score by +8.82 percentage points on Botswana, +5.49 on Indian Pines, +1.59 on Pavia University, and -0.62 on Salinas. Most of the benefit arises from training-time regularization, whereas inference fusion is small and dataset dependent.
Problem

Research questions and friction points this paper is trying to address.

tensor neural networks
label scarcity
rank constraint
hyperspectral classification
neurosymbolic learning
Innovation

Methods, ideas, or system contributions that make the work stand out.

Neurosymbolic regularization
Rank-constrained tensor neural networks
Prototype learning
Label scarcity
Hyperspectral classification
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