Ventromedial hypothalamic steroidogenic factor-1 (SF1) neurons are activated following exercise, and repeated training results in increased post-exercise SF1 neuron activation.
First-pass extracted concept
ventromedial hypothalamic steroidogenic factor-1 neurons
Aliases
SF1 neurons, ventromedial hypothalamic SF1 neurons
Evidence Snippets
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Ventromedial hypothalamic SF1 neurons are activated following exercise, and repeated training increases post-exercise SF1 neuron activation.
Ventromedial hypothalamic steroidogenic factor-1 (SF1) neurons are activated following exercise, and repeated training results in increased post-exercise SF1 neuron activation.
Stimulation of SF1 neurons following exercise enhances gains in endurance.
Conversely, stimulation of SF1 neurons following exercise enhances gains in endurance.
Inhibition of SF1 neuron output blocks endurance gains and metabolic improvements resulting from exercise training.
Inhibition of SF1 neuron output blocks endurance gains and metabolic improvements that result from exercise training.
Exercise-induced hypothalamic SF1 neuron activity is essential for coordinating physiological improvements following exercise training.
These results demonstrate that exercise-induced hypothalamic SF1 neuron activity is essential for the coordination of physiological improvements following exercise training.
Activation of the central nervous system following exercise is essential for subsequent endurance performance and metabolism benefits in mice.
In mice, we find that activation of the central nervous system following exercise is essential for subsequent endurance performance and metabolism benefits.
Exercise training increases intrinsic excitability and excitatory synapse density on SF1 neurons, consistent with hypothalamic plasticity encoding exercise history.
Exercise training increases the intrinsic excitability and density of excitatory synapses on SF1 neurons, suggesting that exercise history is encoded through hypothalamic plasticity.