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This research proposes Higher-Order Modular Attention (HOMA) to explicitly model triadic dependencies in sequence learning, addressing the limitations of standard pairwise self-attention mechanisms. Empirical results on controlled benchmarks and TAPE show that HOMA achieves competitive or superior performance with faster convergence when task structures extend beyond second-order interactions. The study provides a significant architectural advance for improving parameter efficiency in models handling complex intrinsic higher-order relationships.
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Beyond Pairwise Attention: Higher-Order Modular Attention for Efficient Sequence Learning

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arXiv:2603.11133v2 Announce Type: replace Abstract: Sequence modeling tasks can involve intrinsic higher-order dependencies, while standard self-attention assigns scores to token pairs and does not explicitly parameterize such interactions. We introduce Higher-Order Modular Attention (HOMA), which fuses pairwise attention with an explicit triadic attention pathway made tractable through overlapping blocks, local windows, and a low-rank projection. We compare HOMA with matched pairwise and purely triadic baselines on controlled PARITY and MATCH3 tasks, as well as TAPE benchmarks. HOMA is competitive with or outperforms the baselines, with its clearest advantages when the underlying dependencies extend beyond the explicitly modeled triadic order. These advantages are accompanied in several settings by faster convergence and improved parameter efficiency, with the learned nonlinear fusion providing an effective mechanism for combining the pairwise and triadic representations. Overall, our results provide empirical evidence that HOMA is an effective attention design when task structure extends beyond pairwise interactions.

Abstract:Sequence modeling tasks can involve intrinsic higher-order dependencies, while standard self-attention assigns scores to token pairs and does not explicitly parameterize such interactions. We introduce Higher-Order Modular Attention (HOMA), which fuses pairwise attention with an explicit triadic attention pathway made tractable through overlapping blocks, local windows, and a low-rank projection. We compare HOMA with matched pairwise and purely triadic baselines on controlled PARITY and MATCH3 tasks, as well as TAPE benchmarks. HOMA is competitive with or outperforms the baselines, with its clearest advantages when the underlying dependencies extend beyond the explicitly modeled triadic order. These advantages are accompanied in several settings by faster convergence and improved parameter efficiency, with the learned nonlinear fusion providing an effective mechanism for combining the pairwise and triadic representations. Overall, our results provide empirical evidence that HOMA is an effective attention design when task structure extends beyond pairwise interactions.

Machine Learning (cs.LG)

arXiv:2603.11133 [cs.LG]

(or arXiv:2603.11133v2 [cs.LG] for this version)

https://doi.org/10.48550/arXiv.2603.11133 Focus to learn more arXiv-issued DOI via DataCite

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