BERT-Based Word Sense Disambiguation with Multi-Scale Feature Fusion

Word Sense Disambiguation (WSD) is a fundamental task in Natural Language Processing, challenged by the presence of polysemous words in context. This paper proposes a novel WSD model, MCGF-BERT, which integrates BERT-based contextual embeddings with multi-scale convolutional features and an adaptive gating mechanism. BERT encodes rich semantic context, while parallel convolutional layers capture local features at varying granularities. A lightweight gating unit fuses these features and enhances discriminative information for sense disambiguation. We first conduct experiments on a manually annotated Chinese WSD dataset containing 40 ambiguous target words, where our model achieves an accuracy of 85.04%, outperforming BiLSTM (77.12%) and standard BERT (81.37%). To assess the model's generalizability, we extend the evaluation to two standard English benchmarks: SemCor and ALL-WSD. On SemCor, our model achieves 75.3% accuracy, surpassing GlossBERT (73.2%) and BEM (72.8%). On ALL-WSD, MCGFBERT reaches 74.1%, which demonstrates consistent advantages across benchmarks. Ablation studies further verify the contributions of the multi-scale fusion and the gating mechanism, with performance drops of 2.6% and 1.9% when these modules are removed, respectively. While our model is designed with computational efficiency in mind, detailed profiling of parameter overhead and inference latency is left for future work.

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Published
2025-06-20
DOI
https://doi.org/10.1109/caibda65784.2025.11183214
Primary Topic
Natural Language Processing Techniques
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article
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article

BERT-Based Word Sense Disambiguation with Multi-Scale Feature Fusion

Xue-Yao Gao, Chunxiang Zhang, Xiangyu Ma
Natural Language Processing Techniques
article

BERT-Based Word Sense Disambiguation with Multi-Scale Feature Fusion

Xue-Yao Gao, Chunxiang Zhang, Xiangyu Ma
article en

Abstract

Word Sense Disambiguation (WSD) is a fundamental task in Natural Language Processing, challenged by the presence of polysemous words in context. This paper proposes a novel WSD model, MCGF-BERT, which integrates BERT-based contextual embeddings with multi-scale convolutional features and an adaptive gating mechanism. BERT encodes rich semantic context, while parallel convolutional layers capture local features at varying granularities. A lightweight gating unit fuses these features and enhances discriminative information for sense disambiguation. We first conduct experiments on a manually annotated Chinese WSD dataset containing 40 ambiguous target words, where our model achieves an accuracy of 85.04%, outperforming BiLSTM (77.12%) and standard BERT (81.37%). To assess the model's generalizability, we extend the evaluation to two standard English benchmarks: SemCor and ALL-WSD. On SemCor, our model achieves 75.3% accuracy, surpassing GlossBERT (73.2%) and BEM (72.8%). On ALL-WSD, MCGFBERT reaches 74.1%, which demonstrates consistent advantages across benchmarks. Ablation studies further verify the contributions of the multi-scale fusion and the gating mechanism, with performance drops of 2.6% and 1.9% when these modules are removed, respectively. While our model is designed with computational efficiency in mind, detailed profiling of parameter overhead and inference latency is left for future work.

Harbin University of Science and Technology (CN)
Openalex Percentile: Top 85%
Natural Language Processing Techniques
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