Astrocytes are the key component of the central nervous system (CNS), serving as pivotal regulators of neuronal synapse formation and maturation through their ability to dynamically and bidirectionally communicate with synapses throughout life. In the past 20 years, numerous astrocyte-derived molecules promoting synaptogenesis have been discovered. However, our understanding of the cell biological basis underlying intra-neuron processes and astrocyte-mediated synaptogenesis is still in its infancy. Here, we provide a comprehensive overview of the various ways astrocytes talk to neurons, and highlight astrocytes’ heterogeneity that allow them to displays regional-specific capabilities in boosting synaptogenesis. Finally, we conclude with pro...
Synaptic plasticity is the capacity of a preexisting connection between two neurons to change in str...
Research in the last two decades has made clear that astrocytes play a crucial role in the brain bey...
Astrocytic Ca2+ signals can be fast and local, supporting the idea that astrocytes have the ability ...
Research on glial cells over the past 30 years has confirmed the critical role of astrocytes in path...
Astrocytes are one of the most abundant cell types in our brain. They modulate the brain homeostasis...
International audienceThe idea that astrocytes may be active partners in synaptic information proces...
Astrocytes influence neuronal maturation and function by providing trophic support, regulating the e...
Interactions between neurons and astrocytes underpin normal brain function. Astrocytes fulfil a vari...
Astrocytes are the most abundant cell type in the mammalian brain. Interest in astrocyte function ha...
Summary: Human astrocytes network with neurons in dynamic ways that are still poorly defined. Our ab...
AbstractHere we provide evidence that astrocytes affect neuronal synaptogenesis by the process of ad...
Astrocytes are the most abundant cell type in the brain. They were long considered only as passive s...
Astrocytes are key to neuronal trophic support, development, and synaptic signalling and plasticity....
Investigating interactions of glia cells and synapses during development and in adulthood is the foc...
The complexity of the signaling network that underlies astrocyte-synapse interactions may seem disco...
Synaptic plasticity is the capacity of a preexisting connection between two neurons to change in str...
Research in the last two decades has made clear that astrocytes play a crucial role in the brain bey...
Astrocytic Ca2+ signals can be fast and local, supporting the idea that astrocytes have the ability ...
Research on glial cells over the past 30 years has confirmed the critical role of astrocytes in path...
Astrocytes are one of the most abundant cell types in our brain. They modulate the brain homeostasis...
International audienceThe idea that astrocytes may be active partners in synaptic information proces...
Astrocytes influence neuronal maturation and function by providing trophic support, regulating the e...
Interactions between neurons and astrocytes underpin normal brain function. Astrocytes fulfil a vari...
Astrocytes are the most abundant cell type in the mammalian brain. Interest in astrocyte function ha...
Summary: Human astrocytes network with neurons in dynamic ways that are still poorly defined. Our ab...
AbstractHere we provide evidence that astrocytes affect neuronal synaptogenesis by the process of ad...
Astrocytes are the most abundant cell type in the brain. They were long considered only as passive s...
Astrocytes are key to neuronal trophic support, development, and synaptic signalling and plasticity....
Investigating interactions of glia cells and synapses during development and in adulthood is the foc...
The complexity of the signaling network that underlies astrocyte-synapse interactions may seem disco...
Synaptic plasticity is the capacity of a preexisting connection between two neurons to change in str...
Research in the last two decades has made clear that astrocytes play a crucial role in the brain bey...
Astrocytic Ca2+ signals can be fast and local, supporting the idea that astrocytes have the ability ...