Scientific reports · 2026
Neuronal expression of retinoid-related orphan receptor gamma (RORγ) and revisiting its role in the central nervous system.
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Reid Logan, Ganapathiraju Srikar, Mancinelli Sophia, Kagan Daniel, Sprouse Gia, Li Alex, Fazio Marcello, German William, Fan Chuangxin, Saengsot Rojana, Feustel Paul, Huang Yunfei
Аннотация
Retinoid-related orphan receptor gamma (RORγ) is a lineage-defining transcription factor for T helper 17 (Th17) cells and has long been considered selectively expressed within the immune system. However, accumulating evidence has implicated Th17 cells and other RORγ-expressing immune populations in embryonic brain development and central nervous system (CNS) function. Notably, RORγ-Cre-mediated deletion of the tuberous sclerosis complex (TSC) has been reported to cause spontaneous seizures and premature lethality, leading to the conclusion that RORγ-expressing immune cells directly regulate CNS physiology. Using multiple RORγ-based reporter mouse lines, we identified unexpected and widespread neuronal labeling throughout the forebrain and cerebellum. RORγ-Cre: GFPf/- mice exhibited robust GFP expression in neurons. Neuronal recombination was evident prenatally and independently validated using the mT/mG reporter line, indicating transient RORγ expression in embryonic neurons. In contrast, a RORγ-GFP reporter showed no detectable RORγ expression in the postnatal brain, either at baseline or following pilocarpine-induced status epilepticus. These findings demonstrate that RORγ expression is not restricted to the immune lineage and reveal previously unrecognized developmental expression in the embryonic brain. Consequently, seizures observed following RORγ-Cre-mediated deletion of TSC1 are likely to arise from direct neuronal loss of TSC1. Our results call for careful reinterpretation of prior studies attributing CNS phenotypes to RORγ-expressing immune cells based on RORγ-Cre-driven genetic models. This work identifies transient neuronal RORγ expression as a critical confounder in immune-targeted genetic studies and reveals a previously unrecognized embryonic expression of RORγ in neurons that may contribute to neurodevelopment. Our findings further raise the possibility that embryonic neurons represent unintended off-targets when deploying therapeutic strategies involving RORγ ligands.