By forming close contacts with synapses, astrocytes secrete neuroactive substances and remove neurotransmitters, thus influencing the processing of information by the nervous system. Here, we review recent work on astrocytes and their roles in regulating neuronal function and synaptic plasticity. Astrocytes are organized as networks and communicate with each other, thereby affecting larger neural circuits. They also provide a link between neurons and the vasculature, potentially changing the cerebral microcirculation. Recent work has provided insights into the relative contributions of specific astrocytic cues and transporters to synaptic transmission, plasticity, and animal behavior
Astrocytes play active roles in brain physiology. They respond to neurotransmitters and modulate neu...
Synaptic plasticity is the capacity of a preexisting connection between two neurons to change in str...
The central nervous system is composed of two main classes of cells: neurons and glia. This chapter ...
By forming close contacts with synapses, astrocytes secrete neuroactive substances and remove neurot...
By forming close contacts with synapses, astrocytes secrete neuroactive substances and remove neurot...
Synaptic plasticity, the ability of neurons to change the number and strength of their synapses, has...
The function and efficacy of synaptic transmission are determined not only by the composition and ac...
Research in the last two decades has made clear that astrocytes play a crucial role in the brain bey...
The function and efficacy of synaptic transmission are determined not only by the composition and ac...
Research in the last two decades has made clear that astrocytes play a crucial role in the brain bey...
Research in the last two decades has made clear that astrocytes play a crucial role in the brain bey...
Research in the last two decades has made clear that astrocytes play a crucial role in the brain bey...
International audienceClose structural and functional interactions of astrocytes with synapses play ...
Astrocytes are the major glial cells in the brain, which play a supporting role in the energy and nu...
Glial cells comprise 90% of the human brain.1 Glia are divided into two subtypes, the microglia whic...
Astrocytes play active roles in brain physiology. They respond to neurotransmitters and modulate neu...
Synaptic plasticity is the capacity of a preexisting connection between two neurons to change in str...
The central nervous system is composed of two main classes of cells: neurons and glia. This chapter ...
By forming close contacts with synapses, astrocytes secrete neuroactive substances and remove neurot...
By forming close contacts with synapses, astrocytes secrete neuroactive substances and remove neurot...
Synaptic plasticity, the ability of neurons to change the number and strength of their synapses, has...
The function and efficacy of synaptic transmission are determined not only by the composition and ac...
Research in the last two decades has made clear that astrocytes play a crucial role in the brain bey...
The function and efficacy of synaptic transmission are determined not only by the composition and ac...
Research in the last two decades has made clear that astrocytes play a crucial role in the brain bey...
Research in the last two decades has made clear that astrocytes play a crucial role in the brain bey...
Research in the last two decades has made clear that astrocytes play a crucial role in the brain bey...
International audienceClose structural and functional interactions of astrocytes with synapses play ...
Astrocytes are the major glial cells in the brain, which play a supporting role in the energy and nu...
Glial cells comprise 90% of the human brain.1 Glia are divided into two subtypes, the microglia whic...
Astrocytes play active roles in brain physiology. They respond to neurotransmitters and modulate neu...
Synaptic plasticity is the capacity of a preexisting connection between two neurons to change in str...
The central nervous system is composed of two main classes of cells: neurons and glia. This chapter ...