Human microglia upregulate cytokine signatures and accelerate maturation of neural networks
Schmunk, G.; Chang, K. N.; Soliman, S. S.; Keefe, M. G.; Bogdanoff, D.; Tejera, D.; Ziffra, R. S.; Shin, D.; Allen, D. E.; Chhun, B. B.; McGinnis, C. S.; Winkler, E. A.; Abla, A. A.; Chang, E. F.; Gartner, Z. J.; Mehta, S. B.; Piao, X.; Hengen, K. B.; Nowakowski, T. J.
Show abstract
Microglia are the resident macrophages of the brain that emerge in early development and play vital role disease states, as well as in normal development. Many fundamental questions about microglia diversity and function during human brain development remain unanswered, as we currently lack cellular-resolution datasets focusing on microglia in developing primary tissue, or experimental strategies for interrogating their function. Here, we report an integrative analysis of microglia throughout human brain development, which reveals molecular signatures of stepwise maturation, as well as human-specific cytokine-associated subtype that emerges around the onset of neurogenesis. To demonstrate the utility of this atlas, we have compared microglia across several culture models, including cultured primary microglia, pluripotent stem cell-derived microglia. We identify gene expression signatures differentially recruited and attenuated across experimental models, which will accelerate functional characterization of microglia across perturbations, species, and disease conditions. Finally, we identify a role for human microglia in development of synchronized network activity using a xenotransplantation model of human microglia into cerebral organoids.
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