Age and experience-related improvements in gap detection in the rat

The ability to accurately process brief, successive acoustic signals rapidly presented to the central nervous system is believed to underlie successful language development. The limits of temporal resolution of the auditory system, often assessed using gap detection tasks, has been widely studied in...

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Veröffentlicht in:Brain research. Developmental brain research 2004-09, Vol.152 (2), p.83-91
Hauptverfasser: Friedman, Jennifer T., Peiffer, Ann M., Clark, Matthew G., Benasich, April A., Fitch, R. Holly
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container_end_page 91
container_issue 2
container_start_page 83
container_title Brain research. Developmental brain research
container_volume 152
creator Friedman, Jennifer T.
Peiffer, Ann M.
Clark, Matthew G.
Benasich, April A.
Fitch, R. Holly
description The ability to accurately process brief, successive acoustic signals rapidly presented to the central nervous system is believed to underlie successful language development. The limits of temporal resolution of the auditory system, often assessed using gap detection tasks, has been widely studied in relation to developing and decoding speech. In the present study, a reflex modification paradigm was used to investigate potential shifts in gap detection thresholds in rats across development, with test sessions beginning on postnatal day (P) 15, P35 and P64. We found that thresholds decreased over the course of development. These thresholds were determined to lie between 10 and 20 ms for the P15 and P35 groups, and between 5 and 10 ms for the P64 group. Moreover, we observed improvements in gap detection thresholds in all age groups over 5 days of testing, including the youngest age group (P15). These later results suggest that experience-dependent plasticity mechanisms at the level of sensory processing are operational and observable both very early in development, and also in adult animals. The present findings also demonstrate maturational improvements in silent gap detection using a pre-pulse inhibition paradigm.
doi_str_mv 10.1016/j.devbrainres.2004.06.007
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subjects Acoustic Stimulation
Aging - physiology
Animals
Animals, Newborn
Auditory
Auditory Pathways - growth & development
Auditory Threshold - physiology
Brain - growth & development
Development
Experience
Female
Gap detection
Language Development Disorders - physiopathology
Learning - physiology
Male
Neuronal Plasticity - physiology
Plasticity
Rats
Rats, Wistar
Reaction Time - physiology
Speech Perception
Time Factors
title Age and experience-related improvements in gap detection in the rat
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