Axon–glia interactions in the ascending auditory system

The auditory system detects and encodes sound information with high precision to provide a high‐fidelity representation of the environment and communication. In mammals, detection occurs in the peripheral sensory organ (the cochlea) containing specialized mechanosensory cells (hair cells) that initi...

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Veröffentlicht in:Developmental neurobiology (Hoboken, N.J.) N.J.), 2021-07, Vol.81 (5), p.546-567
Hauptverfasser: Kohrman, David C., Borges, Beatriz C., Cassinotti, Luis R., Ji, Lingchao, Corfas, Gabriel
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container_issue 5
container_start_page 546
container_title Developmental neurobiology (Hoboken, N.J.)
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creator Kohrman, David C.
Borges, Beatriz C.
Cassinotti, Luis R.
Ji, Lingchao
Corfas, Gabriel
description The auditory system detects and encodes sound information with high precision to provide a high‐fidelity representation of the environment and communication. In mammals, detection occurs in the peripheral sensory organ (the cochlea) containing specialized mechanosensory cells (hair cells) that initiate the conversion of sound‐generated vibrations into action potentials in the auditory nerve. Neural activity in the auditory nerve encodes information regarding the intensity and frequency of sound stimuli, which is transmitted to the auditory cortex through the ascending neural pathways. Glial cells are critical for precise control of neural conduction and synaptic transmission throughout the pathway, allowing for the precise detection of the timing, frequency, and intensity of sound signals, including the sub‐millisecond temporal fidelity is necessary for tasks such as sound localization, and in humans, for processing complex sounds including speech and music. In this review, we focus on glia and glia‐like cells that interact with hair cells and neurons in the ascending auditory pathway and contribute to the development, maintenance, and modulation of neural circuits and transmission in the auditory system. We also discuss the molecular mechanisms of these interactions, their impact on hearing and on auditory dysfunction associated with pathologies of each cell type.
doi_str_mv 10.1002/dneu.22813
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subjects Acoustic Stimulation
Animals
astrocytes
Auditory nerve
Auditory pathways
Auditory Pathways - physiology
Auditory system
Axons
Cochlea
Cochlea - physiology
Cortex (auditory)
Cortex (somatosensory)
Cortex (temporal)
glia
Glial cells
Hair cells
Hearing
hearing loss
Humans
Localization
Mammals
Molecular modelling
Neural networks
Neuroglia
Neuronal-glial interactions
neuron–glia interactions
oligodendrocytes
satellite glial cells
Schwann cells
Sense organs
Sound
supporting cells
Synaptic transmission
Vibrations
title Axon–glia interactions in the ascending auditory system
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