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Word Embedding Dimension Reduction via Weakly-Supervised Feature Selection

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arxiv 2407.12342 v2 pith:JKTGF6LW submitted 2024-07-17 cs.CL

classification cs.CL
keywords worddimensionembeddingfeaturereductionselectioncomputationalcosts
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As a fundamental task in natural language processing, word embedding converts each word into a representation in a vector space. A challenge with word embedding is that as the vocabulary grows, the vector space's dimension increases, which can lead to a vast model size. Storing and processing word vectors are resource-demanding, especially for mobile edge-devices applications. This paper explores word embedding dimension reduction. To balance computational costs and performance, we propose an efficient and effective weakly-supervised feature selection method named WordFS. It has two variants, each utilizing novel criteria for feature selection. Experiments on various tasks (e.g., word and sentence similarity and binary and multi-class classification) indicate that the proposed WordFS model outperforms other dimension reduction methods at lower computational costs. We have released the code for reproducibility along with the paper.

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  1. Quantum-inspired Embeddings Projection and Similarity Metrics for Representation Learning

    cs.CL 2025-01 conditional novelty 5.0 of 10

    A quantum-inspired, parameter-light projection head compressing BERT embeddings to 256 dimensions matches a classical dense head on TREC passage reranking and improves on small training sets.

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