Decoding Immune Reconstitution Failure in People Living with HIV through Single-cell Genomics
Yuxing WangiD, Shichen YangiD, Yue YuaniD, Mingli ZhuiD, Jun CheniD, Yong BaiiD, Shanshan Duan, Xuyang Shi, Tianyu Lu, Zongxing YangiD, Zhuoli HuangiD, Dingyan Yan, Yuhui ZhengiD, Xuanchi Zhou, Jun YaniD, Chang LiuiD, Wenhui Zhang, Yaling Huang, Chan Xu, Xiumei LiniD, Xue Wang, Jinchuan ShiiD, Xiaojing Xu, Lei Ge, Jiefang Yin, , Chuanyu LiuiD
Abstract
Immune non-responders (INRs), a subset of people living with HIV (PLWH), fail to achieve full immune reconstitution and remain at increased risk of morbidity, mortality, and non-AIDS-related illnesses. As the mechanisms underlying this impaired immune recovery remain poorly understood, we performed single-cell multi-omics profiling on peripheral blood mononuclear cells from 43 INRs, 47 immune responders and 53 healthy donors. Our dataset comprises 2,744,009 transcriptomes and 1,226,658 chromatin-accessibility profiles across 58 identified immune cell types. INRs exhibited markedly elevated inflammatory signaling, increased apoptotic activity, and dysregulation of immune-activating ligand-receptor interactions. Additionally, we identified 2,996 interaction cis-eGenes and 5,938 cis-caPeaks, and validated key cell type-specific cis-xQTL effects associated with immune reconstitution failure. Furthermore, we identified 3,551 sc-eQTLs and 872 cell-state interaction eQTLs (ieQTLs) in CD4+ T cells. A genotype-specific upregulation of OAS3 in INRs, likely regulated by STAT1, was identified based on these results. We developed scPRISM (single cell Predictive Reconstitution Immune Status Model), a multi-modal framework that integrates scRNA-seq and scATAC-seq data to perform the dual tasks of differentiating disease states and predicting gene expression from chromatin accessibility, thereby deciphering the cell type-specific cis-regulatory basis of the disease. Our study delineates the transcriptional and epigenomic landscape of immune dysregulation in INRs and provides new genetic insights into HIV-associated immune reconstitution failure. These findings offer a foundation for developing biomarkers and precision therapies to restore immune function in PLWH.
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