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Formulaic Language and Language Disorders

Published online by Cambridge University Press:  05 December 2012

Diana Van Lancker Sidtis
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Abstract

The importance of formulaic language is recognized by many branches of the language sciences. Second language learners acquire a language using a maturationally advanced neurological substrate, leading to a profile of formulaic language use and knowledge that differs from that of the prepuberty learner. Unlike the considerable interest in formulaic language seen in second language learning, attention paid to this theme in clinical communicative disorders has been limited. Historically, verbal expressions preserved in severe nonfluent aphasia, including counting, interjections, and memorized phrases, have been referred to as automatic speech. Closer examination of all forms of aphasic speech reveals a high proportion of formulaic expressions, while speech samples from persons with right hemisphere and subcortical damage show a significant impoverishment. These findings are supported by studies of persons with Alzheimer's disease, who have intact subcortical nuclei and abnormally high proportions of formulaic expressions, and Parkinson's disease, which is characterized by dysfunctional subcortical systems and impoverished formulaic language. Preliminary studies of schizophrenic speech also reveal a paucity of formulaic language. A dissociation between knowledge and use of the expressions is found in some of these populations. Observations in clinical adult subjects lead to a profile of cerebral function underlying production of novel and formulaic language, known as the dual processing model. Whereas the left hemisphere modulates newly created language, production of formulaic language is dependent on a right hemisphere/subcortical circuit. Implications of the dual process model for evaluation and treatment of language disorders are discussed.

Type
SECTION A: COGNITIVE PERSPECTIVES ON FORMULAIC LANGUAGE
Information
Annual Review of Applied Linguistics , Volume 32 , March 2012 , pp. 62 - 80
Copyright
Copyright © Cambridge University Press 2012

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References

ANNOTATED BIBLIOGRAPHY

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Proposes how learning in the basal ganglia may represent a recoding of cortically derived information within the striatum, leading to the development of chunked, procedural memory modules.

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Provides an interdisciplinary overview of formulaic language studies and methods for teaching this material.

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Compares role of rhythm and formulaicity in lyric production in nonfluent aphasic speakers.

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