A Top-down Graph-based Tool for Modeling Classical Semantic Maps: A Crosslinguistic Case Study of Supplementary Adverbs
Zhu Liu, Cunliang Kong, Ying Liu, Maosong Sun

TL;DR
This paper introduces a top-down graph-based algorithm for automatically constructing semantic map models from cross-linguistic data, demonstrated through a case study on supplementary adverbs, improving efficiency over manual methods.
Contribution
The paper presents a novel top-down graph algorithm for automatic semantic map modeling, reducing manual effort and enhancing cross-linguistic concept comparison.
Findings
The algorithm effectively generates semantic maps comparable to human annotations.
It outperforms existing automated methods in efficiency and quality.
The tool is publicly available for further research and application.
Abstract
Semantic map models (SMMs) construct a network-like conceptual space from cross-linguistic instances or forms, based on the connectivity hypothesis. This approach has been widely used to represent similarity and entailment relationships in cross-linguistic concept comparisons. However, most SMMs are manually built by human experts using bottom-up procedures, which are often labor-intensive and time-consuming. In this paper, we propose a novel graph-based algorithm that automatically generates conceptual spaces and SMMs in a top-down manner. The algorithm begins by creating a dense graph, which is subsequently pruned into maximum spanning trees, selected according to metrics we propose. These evaluation metrics include both intrinsic and extrinsic measures, considering factors such as network structure and the trade-off between precision and coverage. A case study on cross-linguistic…
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Taxonomy
TopicsConstraint Satisfaction and Optimization · Semantic Web and Ontologies · Geographic Information Systems Studies
