Deriving Contextualised Semantic Features from BERT (and Other Transformer Model) Embeddings
December 30, 2020 ยท Declared Dead ยท ๐ Workshop on Representation Learning for NLP
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Authors
Jacob Turton, David Vinson, Robert Elliott Smith
arXiv ID
2012.15353
Category
cs.CL: Computation & Language
Citations
34
Venue
Workshop on Representation Learning for NLP
Last Checked
4 months ago
Abstract
Models based on the transformer architecture, such as BERT, have marked a crucial step forward in the field of Natural Language Processing. Importantly, they allow the creation of word embeddings that capture important semantic information about words in context. However, as single entities, these embeddings are difficult to interpret and the models used to create them have been described as opaque. Binder and colleagues proposed an intuitive embedding space where each dimension is based on one of 65 core semantic features. Unfortunately, the space only exists for a small dataset of 535 words, limiting its uses. Previous work (Utsumi, 2018, 2020, Turton, Vinson & Smith, 2020) has shown that Binder features can be derived from static embeddings and successfully extrapolated to a large new vocabulary. Taking the next step, this paper demonstrates that Binder features can be derived from the BERT embedding space. This provides contextualised Binder embeddings, which can aid in understanding semantic differences between words in context. It additionally provides insights into how semantic features are represented across the different layers of the BERT model.
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