Frontal mechanisms underlying primate calls recognition by humans

Abstract Introduction The ability to process verbal language seems unique to humans and relies not only on semantics but on other forms of communication such as affective vocalizations, that we share with other primate species—particularly great apes (Hominidae). Methods To better understand these p...

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Veröffentlicht in:Cerebral Cortex Communications 2023-10, Vol.4 (4), p.tgad019-tgad019
Hauptverfasser: Ceravolo, Leonardo, Debracque, Coralie, Pool, Eva, Gruber, Thibaud, Grandjean, Didier
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container_issue 4
container_start_page tgad019
container_title Cerebral Cortex Communications
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creator Ceravolo, Leonardo
Debracque, Coralie
Pool, Eva
Gruber, Thibaud
Grandjean, Didier
description Abstract Introduction The ability to process verbal language seems unique to humans and relies not only on semantics but on other forms of communication such as affective vocalizations, that we share with other primate species—particularly great apes (Hominidae). Methods To better understand these processes at the behavioral and brain level, we asked human participants to categorize vocalizations of four primate species including human, great apes (chimpanzee and bonobo), and monkey (rhesus macaque) during MRI acquisition. Results Classification was above chance level for all species but bonobo vocalizations. Imaging analyses were computed using a participant-specific, trial-by-trial fitted probability categorization value in a model-based style of data analysis. Model-based analyses revealed the implication of the bilateral orbitofrontal cortex and inferior frontal gyrus pars triangularis (IFGtri) respectively correlating and anti-correlating with the fitted probability of accurate species classification. Further conjunction analyses revealed enhanced activity in a sub-area of the left IFGtri specifically for the accurate classification of chimpanzee calls compared to human voices. Discussion Our data—that are controlled for acoustic variability between species—therefore reveal distinct frontal mechanisms that shed light on how the human brain evolved to process vocal signals.
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subjects Apes
Brain
Decision-making
Information management
title Frontal mechanisms underlying primate calls recognition by humans
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