Sleep pressure is differentially regulated by molecularly distinct subtypes of Lhx6-positive and Lhx6-negative neurons of the zona incerta.
Parris Washington Chandler, Sang‐Soo Lee, Leighton H. Duncan…·Seth Blackshaw
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Johns Hopkins UniversityORCID 0000-0002-1329-0655Unclaimed ORCID profile · follow to get notified of new preprints
8 papers
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Parris Washington Chandler, Sang‐Soo Lee, Leighton H. Duncan…·Seth Blackshaw
Qiang Liu, Jiali Xiong, Dong Won Kim…·Mark N. Wu
The paper identifies an extra-SCN brain oscillator in the lateral amygdala that coordinates cellular and behavioral rhythms through mWAKE/ANKFN1 expression.
Matthew P. Brown, Shubha Verma, Isabelle Palmer…·Mark N. Wu
This study identifies E1 neurons in Drosophila that regulate the transition from arousal to sleep at dusk through light-dependent mechanisms.
Mehmet F. Keleş, Ali Osman Berk Şapcı, Casey Brody…·Mark N. Wu
FlyVISTA is a machine learning platform that identifies sleep-associated microbehaviors in Drosophila by analyzing high-resolution video data and annotating body parts.
Ian David Blum, Mehmet F. Keleş, El‐Sayed Baz…·Mark N. Wu
The paper shows that astroglial calcium signaling in Drosophila increases with sleep need and is required for homeostatic sleep rebound, identifying TyrRII as a key receptor involved in this process.
Benjamin J. Bell, Annette A. Wang, Dong Won Kim…·Mark N. Wu
The paper characterizes mWake expression in the adult mouse brain, identifying its presence in neurons and non-neuronal cells across multiple brain regions and providing single-cell RNA sequencing analysis of hypothalamic mWake+ cells.
Benjamin J. Bell, Qiang Liu, Dong Won Kim…·Mark N. Wu
This study identifies a conserved clock-regulated neural network in mice and Drosophila that controls arousal and sleep, showing that mWake+ cells are critical for circadian-dependent neural excitability.
Xitong Liang, Margaret C.W. Ho, Yajun Zhang…·Paul H. Taghert
The paper identifies a circadian pathway in Drosophila where morning and evening oscillators drive pre-motor centers via specific dopaminergic neurons, resulting in a two-peak locomotor activity pattern.