The paper describes LepR^LH neurons as a lateral hypothalamic neuronal population that encodes anxiogenic stimuli and supports adaptive responses under anxiety-provoking conditions.
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LepR^LH neurons
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leptin-sensitive neuronal subpopulations in the lateral hypothalamus, LH LepR neurons
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Activation of LepR^LH neurons promotes exploration of new terrain, eating despite an anxiogenic environment, and limits maladaptive excessive locomotion in an anorexia nervosa disease model.
exploration of new terrain, eating despite anxiogenic environment and limiting maladaptive excessive locomotion in an anorexia nervosa disease model
Activation of LepR^LH neurons enables adaptive responses under anxiogenic conditions.
the activation of LepR<LH> neurons enabled adaptive responses under anxiogenic conditions
LepR^LH neurons are inhibited by input from the prefrontal cortex in high-anxiety animals.
and were inhibited by input from the prefrontal cortex
LepR^LH neuronal subpopulations encode anxiogenic stimuli.
we identified leptin-sensitive neuronal subpopulations in the lateral hypothalamus (LH; LepR<LH>) that encode anxiogenic stimuli
Leptin-sensitive neuronal subpopulations in the lateral hypothalamus enable adaptive fulfillment of vital needs despite anxiogenic conditions in healthy and pathological states.
Thus, leptin-sensitive neuronal subpopulations in the LH enable adaptive fulfillment of vital needs despite anxiogenic conditions, both in healthy and pathological states.
Activity of LepR^LH neurons predicts the anxiety level of individual animals.
The activity of LepR<LH> neurons predicted the anxiety level of individual animals
In high-anxiety animals, LepR^LH neurons differentiate poorly among anxiogenic stimuli.
In high-anxiety animals, LepR<LH> neurons differentiated poorly among anxiogenic stimuli