What cell populations in the brainstem regulate appetite? Our single-cell study of the dorsal vagal complex identifies a role of GLP-1 and calcitonin receptor neurons and is out now in @NatMetabolism! https://t.co/OLgml0fOIv
Tweetorial:
Checking in at Obesity Week #OW2022 in San Diego. Excited to be presenting our work on the Transcriptional states underlying cagrilintide signaling in the dorsal vagal complex on Friday (32AB 1.45 pm PDT). With @tunepers, Martin G. Myers, and @novonordisk.
@Metabolcenter
After decades in the limelight, the hypothalamus shares the stage with the hindbrain and circuits controlling food intake @NatMetabolism https://t.co/rEA8DUgckY
More data in mice highlighting anti-aversive GIP action via brainstem GIPR circuits-GIPR neurons project locally and selectively inhibit nausea-related GFRAL neurons @CellReports https://t.co/FMtg13PUOV
More insight into GABAergic LepRbGlp1r neuronal populations and crucial roles in the control of food intake and body weight by #leptin in mice @biorxivpreprint#obesity https://t.co/Mq1YcpoHZv
Preclinical studies of GIP action on aversive pathways lead to the prediction that "combinatorial pharmaceutical targeting of GLP-1R and GIPR will increase efficacy in treating #obesity and #diabetes by reducing nausea and vomiting"
https://t.co/12lAaupBaZ
The brainstem may be important for the effects of GLP-1 and GIP receptor agonists on body weight. How can advancing single-cell techniques be applied to study incretin action in the brainstem?🕵️We wrote a review on this. https://t.co/wwbRlRHtxq @tunepers@pvtodorov@Metabolcenter
Absolutely foundational work from my pioneering labmate Ken Tao and @AUGCsoup, figuring out the wiring logic of vagus motor neurons:
https://t.co/x9oBgKdlft
#AIM2021 kicks off today! 🎉
Tune in from 16:00-17:30 CET for @pedrobeltrao
& @Prof_Lundberg.
Read more about their presentations, and register for free, on our website!
👇
https://t.co/wyPCA82tor
Fantastic paper from @icclarker@CrisGV85@mwheeler0 and @QuintanaLabHMS introducing RABID-seq, which virally barcodes connecting cells in the CNS, and investigates the effects of cellular interactions on single-cell gene expression https://t.co/2eDfnTSj2A
Mapping of cell populations in the brainstem bodes well for future obesity treatment
@metteludwig @DDA_Denmark & @Metabolcenter funded phd student. https://t.co/TGLHwsGLhu of international publication in @NatMetabolism Congrats. @tunepers
https://t.co/CF8Tobfqjt
The scientists believe the approach will unlock more secrets about the neurological control of appetite and energy balance #dkforsk https://t.co/0FQqTr9VZd
Delighted to share work from my postdoc, co-advised by @nevillesanjana and @tuuliel! It began with wanting to identify target genes for GWAS with CRISPR screens and single-cell seq. Brief look below, with shout-outs to my amazing co-authors!
Link: https://t.co/uPe3qVSspS
Danske forskere har dirket hjernens fedmeboks op. Studiet er publiceret i @NatMetabolism og åbner for ny viden om celler der er med til at regulere fedme. Peger på nye former for medicin mod overvægt.
https://t.co/CsaGdtIAYa
@tunepers@metteludwig@metabolcenter@novonordiskfond
'A #genetic map of the mouse dorsal vagal complex and its role in #obesity' in @NatMetabolism
CBMR's @tunepers and @metteludwig used an unbiased approach to characterize brainstem cell population that anti-obesity drugs likely act to reduce appetite.
🌐https://t.co/jDO40skyCo
This has been an enjoyable team effort between the Martin Myers lab, Charles Pyke, @lotte_bjerre, Anna Secher and their team at @novonordisk, and my amazing colleagues at the @tunepers lab at the @Metabolcenter. Looking forward to future collaborations! (7/7)
What cell populations in the brainstem regulate appetite? Our single-cell study of the dorsal vagal complex identifies a role of GLP-1 and calcitonin receptor neurons and is out now in @NatMetabolism! https://t.co/OLgml0fOIv
Tweetorial:
Thus, dorsal vagal complex cell populations associated with obesity predisposition suppress feeding and may represent therapeutic targets for obesity. (6/7)