Our countdown is never complete without a @TheCleversLab story! 😎
Their study of an in vitro model of mouse dorsal tongue epithelium holds 4th place in our countdown. 👏
If you missed the article in September, read it now. 👇
https://t.co/9Zx1uselD0
Using fluorescence real-time imaging and an in vitro implantation model, we show that human embryo attachment begins with direct cell fusion via syncytin-2–MFSD2A interaction.
With @TheCleversLab.
Great work by @NoordzijTomas & @CelottiMartina! @_Hubrecht
https://t.co/cG8P4J7Pbm
Daisong Wang and Sangho Lim describe human gut organoids with Peyer's patch M cells. M cells not only transport antigens: like professional antigen-presenting cells, they process and present gluten (the celiac disease antigen) directly to T cells https://t.co/q6Efm59SZi
4/4 This work was a true team effort between @_amolf, @ihb_research, and the @_Hubrecht — led by @DanielKruegerDK and Kasper Spoelstra. Huge thanks to all collaborators for making it possible.
1/4 Gut renewal is not passive “crowd control.” Instead of being pushed out by crowding or dying from apoptosis, cells compete in a mechanical tug-of-war. Weaker cells are eliminated—reframing intestinal homeostasis as a force-regulated process. https://t.co/y17pTHBkuj
3/4 This reveals a safeguard mechanism: epithelial cells constantly test each other’s mechanical strength. Too little (or too much) force destabilizes the barrier, linking extrusion to diseases like tufting enteropathy. Gut renewal is an active, force-regulated process.
Do you want to learn how to make mouse thymus organoids?
Our lab recently published a STAR Protocol on generating thymic epithelial organoids from adult mouse thymus tissue.
Read it here: https://t.co/6cx5mM1C2E
#Thymus#Organoids#STARProtocol#TEC
Check out new @TheScientistLLC article highlighting our postdoc @AmandaARolf ’s work on a novel pancreatic organoid model that includes all three key cell types, offering new insights into pancreatic development: https://t.co/Aa1jQotXit
📢New human fetal pancreatic organoid model generates all three key cell types of the pancreas. New paper in @CellCellPress by @AmandaARolf , @HansClevers and collaborators. See the article here: https://t.co/xcuc8drybh
Recent work from our lab explored the role of multiple nuclear receptors in the human small #intestine. Using #organoids and small molecules, we activated and then studied one nuclear receptor at the time through transcriptome characterization.
https://t.co/DtD0iWurgL
Watch back the 2024 EMBL Kafatos Lecture where @HansClevers presented about the application of organoids in disease modeling at the @_knaw Amsterdam. #embl#knaw#organoids https://t.co/JcgrhhDx03
Exciting study! Organoid models reveal a novel role for human tuft cells in gut regeneration upon damage. Video: Tuft cell division is triggered by IL-4, visualized in human gut AVIL-Clover reporter organoids (Credit: Daniel Krueger) https://t.co/gXhem2rw0B
One bacterial protein as a complement to #Matrigel/#BME: The #integrin -binding domain of the Yersinia bacterial protein Invasin, coated as a single protein, maintains a defined long-term culture of various epithelial cells as “2D #organoid sheets”.
https://t.co/yeT3ieLmhf
Do you want to genetically engineer your organoids rapidly and accurately? Check out our recently published STAR Protocol about implementing Base and Prime Editors in organoids! A protocol developed by @CelottiMartina and @geurts_maarten
https://t.co/dI1J8W9Vgr
Another great collaboration with @Axel_R_Huber, @Cayetanopm, @JoskeUbels, @HansClevers, @BoxtelLab and many others. Random forest trained with #organoid#colibactin mutations => identification of pks-linked mutations in every 8th #colorectal tumor genome! https://t.co/HUbf9A3NCf.