This study provides direct evidence that VEXAS-specific TE govern HSC clonal dominance, thereby uncovering a regulatory axis underlying HSC biology and disease mechanisms, opening a therapeutic strategy directed towards the repetitive genome.
Efficient and precise correction of STAT1 GOF mutations by base editing is demonstrated, with maintenance of the correction through long-term engraftment in vivo, which represents the first application of gene editing to correct a dominant gain-of-function mutation causing immunodeficiency.
Robert Torrance, K. Orf, Nathan White et al.· Blood· 0 citations
It is found that TSC in chronic infection harbor a LEF1+ TSC pool sharing the core stemness epigenetic and molecular program observed in autoimmune LEF1+ TSC, discovering LEF1 as the master regulator defining T cell stemness and identify novel targets for therapeutic intervention.
Katrina M. Hawley, S. Miakicheva, P. Zumbo et al.· Journal of Immunology· 0 citations
It is reported that Prdm15 deficiency in HSPCs induces the accumulation of immature hematopoietic stem cells in mice, establishing PRDM15 as a critical epigenetic regulator of HSPCs, offering valuable insights into the molecular mechanisms underlying hematopoietic homeostasis.
Qi-Wen Dong, Wei-Wei Xiao, Junsong Huang et al.· Journal of genetics and geno...· 0 citations
Genetic Id2 loss uncouples Tfh differentiation from effector activity, positioning Id2 inhibition as a novel therapeutic strategy to selectively disrupt pathogenic Tfh-GCB crosstalk in cGVHD.
Yujie Zhao, Eun Ko, Cameron McDonald-Hyman et al.· Journal of Immunology· 0 citations
Single-cell RNA sequencing indicates that adulthood Rack1 deletion in type I interferon-I-responsive cells leads to aberrant lineage-geneset-scores of transcriptional HSCs and the emergence of stressed HSCs, and Mechanistically, RACK1 prevents HSC loss through maintaining the protein level of LDB1.
L. Deng, Jun-Jie Du, Zhe Xu et al.· Cell Death & Disease· 0 citations
Using mice carrying a mutation in the CBFβ2 isoform, it is demonstrated that CBFβ2 haploinsufficiency rewires transcriptional regulatory circuits in adult bone marrow progenitors, rendering them permissive for an early life-restricted Tγδ17 cells.
Michela Frascoli, Alyssa Berthelette, Joonsoo Kang et al.· Journal of Immunology· 0 citations
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