Analyzing Polysemy Evolution Using Semantic Cells
Yukio Ohsawa, Dingming Xue, Kaira Sekiguchi

TL;DR
This paper presents a novel evolutionary framework for analyzing how word polysemy develops over time through Semantic Cells, challenging traditional static learning paradigms.
Contribution
It introduces a method to study the evolution of polysemy by modifying Semantic Cells and analyzing sentence sequences, providing a new perspective on semantic change.
Findings
Polysemy increases monotonically when senses are ordered by their evolution.
Semantic Cells can model the dynamic evolution of word senses.
The approach offers a new methodology for semantic analysis from an evolutionary perspective.
Abstract
The senses of words evolve. The sense of the same word may change from today to tomorrow, and multiple senses of the same word may be the result of the evolution of each other, that is, they may be parents and children. If we view Juba as an evolving ecosystem, the paradigm of learning the correct answer, which does not move with the sense of a word, is no longer valid. This paper is a case study that shows that word polysemy is an evolutionary consequence of the modification of Semantic Cells, which has al-ready been presented by the author, by introducing a small amount of diversity in its initial state as an example of analyzing the current set of short sentences. In particular, the analysis of a sentence sequence of 1000 sentences in some order for each of the four senses of the word Spring, collected using Chat GPT, shows that the word acquires the most polysemy monotonically in…
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Taxonomy
MethodsRefunds@Expedia|||How do I get a full refund from Expedia? · Attention Is All You Need · Sparse Evolutionary Training · Cosine Annealing · Linear Layer · Byte Pair Encoding · Layer Normalization · Softmax · Discriminative Fine-Tuning · Attention Dropout
