败血症
巨噬细胞
炎症
免疫系统
免疫学
药品
医学
细胞因子
全身给药
主机响应
促炎细胞因子
失调家庭
先天免疫系统
炎症反应
药理学
全身炎症
化学
人类健康
下调和上调
免疫
抗生素
生物
吞噬作用
癌症研究
作者
Alexandria Hoffman,Elisabet Bjånes,Zhi-dong Zhou,Amirah Onanuga,Anh T. P. Ngo,Shawn Hannah,Natalie Chavarria,Samira Dahesh,Brooke T. Tran,Angela Meier,Yiyan Yu,Lei Sun,Liangfang Zhang,Weiwei Gao,Jessica J. Field,Victor Nizet,Alexandria Hoffman,Elisabet Bjånes,Zhi-dong Zhou,Amirah Onanuga
出处
期刊:ACS Nano
[American Chemical Society]
日期:2025-11-11
卷期号:19 (46): 39805-39815
标识
DOI:10.1021/acsnano.5c12658
摘要
Bacterial sepsis is a life-threatening immune dysregulation triggered by bacterial infection and propagated by a dysfunctional host response, culminating in systemic tissue damage and multiorgan failure. In the United States, sepsis results in the hospitalization of more than one million patients annually and accounts for nearly one in three hospital deaths. Despite decades of efforts to develop immunoregulatory sepsis therapies, no clinically approved treatments exist. Recent advances in nanotechnology have introduced innovative approaches, including cellular nanodecoys synthesized from natural macrophage membranes coated onto polymeric nanoparticle cores. Here we introduce a human macrophage membrane-derived drug candidate, CTI-111, capable of sequestering soluble microbial toxins, drivers of inflammation, and pro-inflammatory cytokines from multiple sources. Therapeutic administration of CTI-111 reduces inflammation and improves survival in multiple murine sepsis models. We further demonstrate that CTI-111 can bind multiple sepsis-associated human cytokines in the complex environment of septic serum ex vivo. Together, these findings highlight the potential of CTI-111 as a multifaceted therapy for sepsis.
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