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  4. ASIC1a affects hypothalamic signaling and regulates the daily rhythm of body temperature in mice
 
research article

ASIC1a affects hypothalamic signaling and regulates the daily rhythm of body temperature in mice

Peng, Zhong
•
Ziros, Panos G.
•
Martini, Tomaz  
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August 17, 2023
Communications Biology

The body temperature of mice is higher at night than during the day. We show here that global deletion of acid-sensing ion channel 1a (ASIC1a) results in lower body temperature during a part of the night. ASICs are pH sensors that modulate neuronal activity. The deletion of ASIC1a decreased the voluntary activity at night of mice that had access to a running wheel but did not affect their spontaneous activity. Daily rhythms of thyrotropin-releasing hormone mRNA in the hypothalamus and of thyroid-stimulating hormone & beta; mRNA in the pituitary, and of prolactin mRNA in the hypothalamus and pituitary were suppressed in ASIC1a(-/-) mice. The serum thyroid hormone levels were however not significantly changed by ASIC1a deletion. Our findings indicate that ASIC1a regulates activity and signaling in the hypothalamus and pituitary. This likely leads to the observed changes in body temperature by affecting the metabolism or energy expenditure.

Global deletion of acid-sensing ion channel 1a (ASIC1a) in mice leads to lower body temperature during a part of the night as well as changes in the daily rhythm of hypothalamic signaling.

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Type
research article
DOI
10.1038/s42003-023-05221-2
Web of Science ID

WOS:001050068700004

Author(s)
Peng, Zhong
Ziros, Panos G.
Martini, Tomaz  
Liao, Xiao-Hui
Stoop, Ron
Refetoff, Samuel
Albrecht, Urs
Sykiotis, Gerasimos P.
Kellenberger, Stephan
Date Issued

2023-08-17

Publisher

NATURE PORTFOLIO

Published in
Communications Biology
Volume

6

Issue

1

Start page

857

Subjects

Biology

•

Multidisciplinary Sciences

•

Life Sciences & Biomedicine - Other Topics

•

Science & Technology - Other Topics

•

sensing ion channels

•

electrophysiological properties

•

paraventricular nucleus

•

synaptic plasticity

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quality-control

•

growth-hormone

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thyrotropin

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prolactin

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pituitary

•

neurons

Editorial or Peer reviewed

REVIEWED

Written at

EPFL

EPFL units
UPNAE  
Available on Infoscience
August 28, 2023
Use this identifier to reference this record
https://infoscience.epfl.ch/handle/20.500.14299/200254
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