Finite-State Registered Automata for Non-Concatenative Morphology.

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Bibliographic Details
Title: Finite-State Registered Automata for Non-Concatenative Morphology.
Authors: Cohen-Sygal, Yael1 yaelc@cs.haifa.ac.il, Wintner, Shuly1 shuly@cs.haifa.ac.il
Source: Computational Linguistics. Mar2006, Vol. 32 Issue 1, p49-82. 34p. 16 Diagrams, 4 Charts.
Subjects: Sequential machine theory, Morphology (Grammar), Phonology, Computational linguistics, Machine theory
Abstract: We introduce finite-state registered automata (FSRAs), a new computational device within the framework of finite-state technology, specifically tailored for implementing non-concatenative morphological processes. This model extends and augments existing finite-state techniques, which are presently not optimized for describing this kind of phenomena. We first define the model and discuss its mathematical and computational properties. Then, we provide an extended regular language whose expressions denote FSRAs. Finally, we exemplify the utility of the model by providing several examples of complex morphological and phonological phenomena, which are elegantly implemented with FSRAs. [ABSTRACT FROM AUTHOR]
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Database: Engineering Source
Description
Abstract:We introduce finite-state registered automata (FSRAs), a new computational device within the framework of finite-state technology, specifically tailored for implementing non-concatenative morphological processes. This model extends and augments existing finite-state techniques, which are presently not optimized for describing this kind of phenomena. We first define the model and discuss its mathematical and computational properties. Then, we provide an extended regular language whose expressions denote FSRAs. Finally, we exemplify the utility of the model by providing several examples of complex morphological and phonological phenomena, which are elegantly implemented with FSRAs. [ABSTRACT FROM AUTHOR]
ISSN:08912017
DOI:10.1162/coli.2006.32.1.49