fracture mechanics method for word embedding generation of neural probabilistic linguistic model

Clicks: 157
ID: 250999
2016
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Ranked #65 of 77 articles by views in Organic Chemistry Frontiers

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Abstract
Word embedding, a lexical vector representation generated via the neural linguistic model (NLM), is empirically demonstrated to be appropriate for improvement of the performance of traditional language model. However, the supreme dimensionality that is inherent in NLM contributes to the problems of hyperparameters and long-time training in modeling. Here, we propose a force-directed method to improve such problems for simplifying the generation of word embedding. In this framework, each word is assumed as a point in the real world; thus it can approximately simulate the physical movement following certain mechanics. To simulate the variation of meaning in phrases, we use the fracture mechanics to do the formation and breakdown of meaning combined by a 2-gram word group. With the experiments on the natural linguistic tasks of part-of-speech tagging, named entity recognition and semantic role labeling, the result demonstrated that the 2-dimensional word embedding can rival the word embeddings generated by classic NLMs, in terms of accuracy, recall, and text visualization.
Reference Key
bi2016computationalfracture Use this key to autocite in the manuscript while using SciMatic Manuscript Manager or Thesis Manager
Authors ;Size Bi;Xiao Liang;Ting-lei Huang
Journal Organic Chemistry Frontiers
Year 2016
DOI
10.1155/2016/3506261
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