I'm also excited to share the first application of MeRN to study metabolic regulation in mouse embryos (including mutants)! Nick Dias of the Smith Lab led this work with me, in collaboration with the @jswlab. Now on bioRxiv! 🧵 1/
https://t.co/0cRjFykJSF
This has been an incredible, collaborative effort co-led with @WilliamNColgan in the @JswLab and with Zach Smith’s group at Yale and the @maxplanckpress and his amazing group members @CAbiologist , Jason Hou, and Minming Wang and our other wonderful collaborators.
A fantastic collaboration with @LukeKoblan! Excited to see what the developmental biology community can learn from these data. Check out our CELLxLINEAGE explorer: https://t.co/4BFCFA1OCA
1/ Excited to share our new preprint from a joint collaboration between @JswLab + @Bruce_Ksander!
Aging is marked by a progressive loss of resilience to stress. Can we systematically search the human ORFome for genes that make vulnerable cells more resilient?
Performing such a genome-scale ORF screen led us to NKX2-5—a heart transcription factor we engineered to restore vision, and improve health in aged mice.
A breakdown🧵
🔗 https://t.co/WVIO7JOx3p
We’re hiring a Technical Assistant I/II in the Weissman Lab @WhiteheadInst to work on in vivo functional genomics with multimodal readouts.
Our technicians have had incredible success going on to PhD & MD/PhD programs. Apply or send great candidates our way!
Excited to share our new preprint led by
@YiChenNeumann with incredible collaborators @labs_mann, @BenGewurz, @StephenE92884, and @hopfnerlab
to characterize the function of thousands of viral microproteins from human-infecting viruses! https://t.co/iRXXkWES0N
Excited to share my PhD work, now on @bioRxiv! 🎓🦠Viruses are packed with small ORFs with unknown function. At @JswLab w/ collaborators, we built a pan-viral microprotein atlas that uncovered the oncogenic activity of BNLF2b, an EBV gene linked to cancer.
https://t.co/KYzeoMBvb5
Excited to share my PhD work, now on @bioRxiv! 🎓🦠Viruses are packed with small ORFs with unknown function. At @JswLab w/ collaborators, we built a pan-viral microprotein atlas that uncovered the oncogenic activity of BNLF2b, an EBV gene linked to cancer.
https://t.co/KYzeoMBvb5
Impressive work from @JShendure & co. reconstructing an E13.5 lineage tree with DNA Typewriter. A great complement to our PEtracer lineage atlas spanning E7.5-E10.0 (https://t.co/HwuJc2y7ha). Excited to see what an integrated analysis of these datasets reveals!
Thrilled to post thread re: new single-cell lineage of mouse embryo reconstructed w/ DNA Typewriter. One animal, zygote to late organogenesis (E13.5). Tree has 1,340,794 transcriptionally profiled, annotated tips (cells), 1,142,588 dated internal nodes, rooted at zygote
1/n
Excited to see our work now published https://t.co/oa2wneGAIX!
Lysosomal dysfunction has long been considered a hallmark of aging, but we still know remarkably little about what actually changes inside lysosomes as organisms grow old. Using rapid lysosome isolation and metabolomics, we built the first atlas of lysosomal aging across tissues.
📣 new preprint multimodal atlas. Imaging + scRNA, 57M cells. 🧬🔬
Cells are complex dynamical systems — but most ways we measure them destroy them. We asked: how does live imaging compare to scRNA-seq, the field’s gold std?
The answer surprised us 🧵
https://t.co/RG0PZ1KTHW
What is the global structure of cell-state space—and how do perturbations drive transitions within it?
Excited to share our new preprint (https://t.co/ZTlAY4eaJf), a work in collaboration with @JswLab.
A few years in the making in the @JswLab with @WilliamNColgan, Zack Smith, and the rest of our fantastic team: Comprehensive Lineage Tracing Maps the Landscape of Cell Fate Decisions in Mouse Embryogenesis. Excited to hear everyone's thoughts!