Synapses are packed with mitochondria, complex organelles with roles in energy metabolism, cell signaling, and calcium homeostasis. However, the precise mechanisms by which mitochondria influence neurotrans mission remain undefined. In this review, the authors discuss pharmacological and genetic analyses of synaptic mitochondrial function, focusing on their role in Ca2+ buffering and ATP production. Additionally, they will summarize recent data that implicate synaptic mitochondria in the regulation of neurotransmitter release during intense neuronal activity and link these findings to the pathogenesis of neurodegenerative diseases that feature disrupted synaptic mitochondria, including amyotrophic lateral sclerosis and hereditary spastic pa...
Synaptic plasticity in the adult brain is believed to represent the cellular mechanisms of learning ...
Mitochondria are dynamic cellular organelles that consistently migrate, fuse, and divide to modulate...
Mitochondria are central regulators of neuronal homeostasis and survival, and increasingly viewed as...
Cell types rich in mitochondria, including neurons, display a high energy demand and a need for calc...
Cell types rich in mitochondria, including neurons, display a high energy demand and a need for calc...
Cell types rich in mitochondria, including neurons, display a high energy demand and a need for calc...
The brain is one of the most energy-consuming organs in the mammalian body, and synaptic transmissio...
Mitochondria play many important biological roles, including ATP production, lipid biogenesis, ROS r...
Mitochondrial electron transport generates the ATP that is essential for the excitability and surviv...
Efforts to understand how mitochondrial dysfunction contributes to neurode-generation have primarily...
Mitochondria are the main suppliers of neuronal adenosine triphosphate and play a critical role in b...
Synaptic plasticity in the adult brain is believed to represent the cellular mechanisms of learning ...
Synaptic plasticity in the adult brain is believed to represent the cellular mechanisms of learning ...
Synaptic plasticity in the adult brain is believed to represent the cellular mechanisms of learning ...
Synaptic plasticity in the adult brain is believed to represent the cellular mechanisms of learning ...
Synaptic plasticity in the adult brain is believed to represent the cellular mechanisms of learning ...
Mitochondria are dynamic cellular organelles that consistently migrate, fuse, and divide to modulate...
Mitochondria are central regulators of neuronal homeostasis and survival, and increasingly viewed as...
Cell types rich in mitochondria, including neurons, display a high energy demand and a need for calc...
Cell types rich in mitochondria, including neurons, display a high energy demand and a need for calc...
Cell types rich in mitochondria, including neurons, display a high energy demand and a need for calc...
The brain is one of the most energy-consuming organs in the mammalian body, and synaptic transmissio...
Mitochondria play many important biological roles, including ATP production, lipid biogenesis, ROS r...
Mitochondrial electron transport generates the ATP that is essential for the excitability and surviv...
Efforts to understand how mitochondrial dysfunction contributes to neurode-generation have primarily...
Mitochondria are the main suppliers of neuronal adenosine triphosphate and play a critical role in b...
Synaptic plasticity in the adult brain is believed to represent the cellular mechanisms of learning ...
Synaptic plasticity in the adult brain is believed to represent the cellular mechanisms of learning ...
Synaptic plasticity in the adult brain is believed to represent the cellular mechanisms of learning ...
Synaptic plasticity in the adult brain is believed to represent the cellular mechanisms of learning ...
Synaptic plasticity in the adult brain is believed to represent the cellular mechanisms of learning ...
Mitochondria are dynamic cellular organelles that consistently migrate, fuse, and divide to modulate...
Mitochondria are central regulators of neuronal homeostasis and survival, and increasingly viewed as...