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A perturbation atlas of mouse neural organoids resolves macroglial reactivity and nominates drivers of degeneration

October 11, 2026
bioRxiv
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Jean-Samuel Dupré, Marina Signer, Jyoti Rao, Lukas Adam, Laura Gaspa-Toneu, Marina Almato-Bellavista, Irineja Cubela, Lorenca Sadiraj, Tobias Fuhrer, Julian Scherer, Teo Parés I Borrell, Manuel Schröter, Andreas Hierlemann, Mattia Zampieri, Matthias P. Lutolf, J. Gray Camp
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Understanding neuro-glial roles in homeostasis and disease requires scalable central nervous system (CNS) models, particularly as macroglia like astrocytes and Müller glia remain challenging to study in slow-developing human systems. Here, we generate and map the cellular diversity of mouse neural organoids spanning multiple brain regions and the retina. Benchmarking transcriptomic maturation against in vivo references captures postnatal neuromacroglial states within a month. We show that macroglia are highly responsive to inflammatory cues and adopt specific transcriptomic states also found in vivo . Through a single-cell perturbation screen targeting 13 Müller-glia-specific pathways, we map how certain inflammatory cytokines drive degeneration-like stress programs in photoreceptors and distinct reactive states in Müller glia, including an Oncostatin M-driven chaperone-associated state. Mechanistically, we identify gp130-STAT3 signaling as a targetable driver of macroglial reactivity and photoreceptor distress. Together, these single-cell atlases provide a foundation for dissecting cellular crosstalk and neuro-glial pathology in the mature CNS.