Jason Rizo

So excited to share our new work beautifully lead by @madisonstrine where we identify new properties of early life T cells. doi.org/10.64898/2026.…. @YaleMed @YaleIBIO @YalePediatrics

Excited to share a new preprint from the lab led by @LukeKoblan and @WilliamNColgan in which we describe our efforts to define a quantitative cell fate map of mouse embryogenesis! biorxiv.org/content/10.648…

Cambridge → Boston → Cambridge again: I’m thrilled to return to Cambridge(UK) to open my lab @GurdonInstitute @Cambridge_Uni !🥳 (mzhulab.com) We study how dev timing shapes and being shaped by plasticity, evolution & ageing. 🚩Hiring at all levels: pls email! 📩

@zhumeng123 @GurdonInstitute @Cambridge_Uni This is awesome news. Huge congrats and def looking forward to some cool science from your lab @zhumeng123 🔥🙌🏼!!!

New paper out in @CellStemCell . We uncover unexpected complexity in how metabolism changes when the embryo implants or when stem cells exit naive pluripotency, revealing a central role for dynamic TCA cycle rewiring in cell fate decisions. cell.com/cell-stem-cell…

Primate brain development is slow, allowing extended epigenetic shaping, with the cerebral cortex among the most diversifying structures during this period. Amazing work👇 science.org/doi/full/10.11…

What has changed in mama bear brain (well, actually mice) to make her risk her life to attack a potential threat and protect her young? Oxytocin is the key! Happy to share our new study led by two awesome postdocs: Takashi Yamaguchi and Rongzhen Yan. nature.com/articles/s4158…

🚨Why can’t mammals regenerate limbs like frog tadpoles or salamanders? In our new paper in @ScienceMagazine, we show that species-specific oxygen sensing acts as a gatekeeper for initiating limb regeneration 🐭🐸 🔗 science.org/doi/10.1126/sc… #EvoDevo

1/n 🤩 Beyond excited to share our recent paper, published today @NatureComms!! 🤩 This study represents, in my view, one of the most striking phenotypes we ever found with really important findings and implications. nature.com/articles/s4146…

Mapping the maternal–fetal interface through pregnancy in high resolution @Nature @UCSF nature.com/articles/d4158… nature.com/articles/s4158…

Our Human Multiomic Development Atlas paper is out in Nature today! A heart-felt "thank you" to all co-authors for their tireless work on this complex yet exciting project! Congrats all! nature.com/articles/s4158…

Huge congratulations to the incredible @23andMeResearch Team for getting this over the finish line. And as always, a huge thank you to the @23andMe participants who made all this research possible! Check out the full paper here: nature.com/articles/s4158…

Our paper is now out in Science! Super excited to share our discovery that #mitochondria #pearling is the elusive mechanism driving the regular distribution and inheritance of #mtDNA nucleoids 🧬 [1/6]

Our paper is out in Nature Physics🎉 We uncovered how mouse epiblast cells acquire orientational order guided by tissue boundaries, combining 3D quantitative imaging with theory. A wonderful collaboration with @ErzbergerGroup and @pguruciaga at @embl! nature.com/articles/s4156…

🥳I am happy to share our latest manuscript published in @NatureCellBio We use #Gastruloids to study #CellCompetition during early mammalian development and find not only that it's highly pronounced in our system but also tightly restricted in time (1/12) nature.com/articles/s4155…

Whole-body molecular and cellular mapping of the laboratory mouse @CellCellPress @UChicagoPME cell.com/cell/fulltext/… 🇨🇳🇺🇸

@abelardovrc Heeeey, congrats!!!

8 años después, soy médico🩺

Whole-embryo spatial transcriptomics at subcellular resolution from gastrulation to organogenesis | Science science.org/doi/10.1126/sc…

🚨 Today in @Nature, we report GEMINI—a genetically encoded intracellular memory device that writes cellular dynamics into tree-ring-like fluorescent patterns within cytoplasmic protein assemblies.[1/n] nature.com/articles/s4158…

Cool preprint! The authors combine CRISPR screening with spatial transcriptomics in 3D tumor spheroids, revealing how the extracellular matrix shapes gene regulation in ways that bulk methods completely miss. biorxiv.org/content/10.110…