Very happy to share our venture into the wild world of imaging is now out on biorxiv. It has been the start of a very interesting journey with lots of interesting learnings along the way. I for sure will never make the mistake of considering a Jurkat a proper T cell again :)
Posts by Julie Matte
See some pretty T cells in our preprint
www.biorxiv.org/content/10.6...
Thanks to co‑first @obbakker.bsky.social and lead from @gosiatrynka.bsky.social and co‑authors: Madeline Ohl, Francesco Cisternino, Andrea Manrique Rincón, Anke Husmann, Florence Lichou, Tong Li, Kwasi Kwakwa, Anneliese Speak, Craig Glastonbury, Omer Ali Bayraktar, Carla Jones, Melina Claussnitzer.
🤝 We’re excited to get the community involved and see TGlow (and these pipelines) applied to all sorts of crazy — and not‑so‑crazy — biological questions.
💾 🤖 For the imaging enthusiasts: our open‑source Nextflow pipeline and R toolkit work across imaging assays — not just T cells or TGlow — and enable reproducible processing, visualisation, and single‑cell statistical analysis, all while preserving that beautiful cellular heterogeneity.
🧠 The result: we’ve profiled >400,000 primary human CD4⁺ and CD8⁺ T cells with TGlow, uncovering activation-, drug-, CRISPR-, and exhaustion‑specific morphological programs — from mitochondrial remodelling to cytoskeletal collapse to lipid biogenesis.
🔬 Inspired by image‑based profiling approaches like Cell Painting, we tailored the experimental and computational pipelines to the immune system: integrating cyclic imaging to include functional markers (activation, cell cycle, metabolism), and pushing deeper in z‑space to capture 3D architecture.
💡 TGlow bridges this gap: a high-dimensional phenotyping platform for lymphocytes with omics-level scale and resolution, offering a complementary lens on downstream cellular behaviours.
❓ With single-cell omics, we can now profile immune cells at scale, down to every RNA and protein. But some questions still persists: how, or even if, do these molecular changes translate to function? what unfolds inside the cell afterward?
Thrilled to share TGlow, our high‑content imaging platform for scalable single‑cell phenotyping of lymphocytes. It complements single‑cell omics by revealing what happens next inside the cell and does so at scale. Details in the thread & link to our preprint: www.biorxiv.org/content/10.6...
Out now on bioRxiv! 🧬🖥️
A team from the Cowley, Bassett, and @gosiatrynka.bsky.social labs integrate pooled iPSC phenotyping, transcriptomics, and CRISPR perturbations to identify genetic drivers of molecular and cellular phenotypes in microglia
www.biorxiv.org/content/10.1...
#neuroskyence
New OpenProblems paper out! 📝
Led by Malte Lücken with Smita Krishnaswamy, we present openproblems.bio – a community-driven platform benchmarking single-cell analysis methods.
Excited about transparent, evolving best practices for the field!
🔗 www.nature.com/articles/s41...
Pre-print time! Our new study on #systemsimmunology analysis of #Alzheimers patients is out now on @medrxivpreprint.bsky.social.
This is the culmination of a long collaboration with Rik Vandenberghe, Stephanie Humblet-Baron and Lidia Yshii's labs at KU Leuven. 🧵1/8
www.medrxiv.org/content/10.1...
🚨 SUPER EXCITED to share our new preprint on the mucosal and circulatory immune landscape of Crohn’s disease!
🩸 Blood is commonly used in biomarker discovery and drug development, but how well does it reflect what's actually happening in the gut? 👀
🧵 1/10
🔗 www.medrxiv.org/content/10.1...
Our new contribution to the quest to find causal GWAS genes! Sam Ghatan from my lab at @nygenome.org led a systematic comparison of eQTLs and CRISPRi+scRNA-seq screens. TL;DR: they provide highly complementary insights, with ortogonal pros and cons. 🧵👇
www.biorxiv.org/content/10.1...
Out today in Nature Biotechnology!
This Open Targets project created an atlas of tissue-specific protein associations for 11 human tissues, furthering our understanding of cell-type and tissue-specific function, and helping to prioritise more specific—and potentially safer—drug targets 🧬🖥️
Cell cycle duration determines oncogenic transformation capacity
Tumours usually originate from a specific cell type in a given tissue; cell types that have faster cycles are more likely to become cancerous
🧪
www.nature.com/articles/s41...
Explore human metabologenomics with GEMs, integrating 1000s of genes, proteins, and metabolites to uncover metabolism's mysteries! PMID:39300314, Nat Rev Genet 2025, @NatureRevGenet https://doi.org/10.1038/s41576-024-00768-0 #Medsky #Pharmsky #RNA #ASHG #ESHG 🧪
NEW Review online by Morgan Huse @mskcancercenter.bsky.social looks at how mechanical forces contribute to the potency, specificity and efficacy of the cytotoxic lymphocyte response
#immunosky
How can B cells rapidly proliferate and have mutations suppressed? A longstanding mystery solved involving transient mutation suppression capability of germinal centers
nature.com/articles/s41...
www.nature.com/articles/s41...
The stomach is an organ unique in its function, environment and exposures. How does this affect the mutations that normal cells in the stomach acquire? What does this reveal about the origins of stomach cancer? These questions and more in our @nature.com paper:
www.nature.com/articles/s41...
New research article from the lab led by the amazing @amydashwood.bsky.social !
In collaboration with @vib-switch-lab.bsky.social @cbdresearch.bsky.social we engineered variants of #IL2 designed for therapeutic use. 1/11
www.sciencedirect.com/science/arti...
Our paper on ancient human population structure is now published. We find that the ancestors of modern humans lived in multiple populations during the period when Homo sapiens evolved in Africa. www.nature.com/articles/s41...
Tomorrow is the last day to apply to the Leena Peltonen School of Human Genomics summer program (Wellcome Campus, UK) for scientists nearing the completion of their PhD. 1:1 mentorship from many fantastic tutors!
lpshg.com/how-to-apply/
We're delighted to share our work on scrambling the human genome using prime editing, repetitive elements, and recombinases in @science.org , led by @jonaskoeppel.bsky.social , @f-raphael.bsky.social , with @proftomellis.bsky.social and George Church.
www.science.org/doi/10.1126/...
Modern GWAS can identify 1000s of significant hits but it can be hard to turn this into biological insight. What key cellular functions link genetic variation to disease?
I'm very excited to present our new work combining associations and Perturb-seq to build interpretable causal graphs! A 🧵
"The main question when reviewing a paper should be whether its conclusions are likely to be correct, not whether it would be important if it were true. Real advances are built with bricks, not straw."
A perpetual must-read: www.nature.com/articles/545...
The Week in Bio #34. Research highlights from the week including randomisation of a super-enhancer, catalytic LYTACs from Lycia Therapeutics and de novo design of binders for snake venom. Link below.
Enhancer scrambling strategy
We are happy to share our enhancer scramble story, a strategy to create hundreds of stochastic deletions, inversions, and duplications within mammalian gene regulatory regions and associate these new architectures with gene expression levels 🧵
www.biorxiv.org/content/10.1...