Astrocyte Ca(2+) signalling has been proposed to link neuronal information in different spatial-temporal dimensions... new experimental approaches... are beginning to reveal an unexpected level of compartmentalization and sophistication in astrocytic Ca(2+) dynamics.
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astrocyte Ca2+ signalling
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astrocytic Ca2+ dynamics
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Astrocyte Ca2+ signalling has been proposed to link neuronal information across spatial-temporal dimensions for higher-level brain integration, but recent discrepant results challenge this view and expose insufficiencies in current understanding.
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Astrocyte Ca(2+) signalling has been proposed to link neuronal information in different spatial-temporal dimensions to achieve a higher level of brain integration. However, some discrepancies in the results of recent studies challenge this view and highlight key insufficiencies in our current understanding.
New experimental approaches with higher spatial-temporal resolution in intact brain preparations are revealing that astrocytic Ca2+ dynamics are highly compartmentalized and sophisticated.
Quoted textsource-backed
new experimental approaches that enable the study of astrocyte physiology at higher spatial-temporal resolution in intact brain preparations are beginning to reveal an unexpected level of compartmentalization and sophistication in astrocytic Ca(2+) dynamics
The newly revealed complexity of astrocytic Ca2+ dynamics must be considered to understand how astrocytes may contribute to brain information processing.
Quoted textsource-backed
This newly revealed complexity needs to be attentively considered in order to understand how astrocytes may contribute to brain information processing.