生物分子
癌细胞
体内
肽
癌症治疗
纳米医学
两亲性
生物物理学
内生
纳米技术
癌症
材料科学
化学
癌症影像学
癌症治疗
分子成像
药物输送
细胞
模块化设计
临床前影像学
光热治疗
体内分布
细胞生物学
生物化学
体外
转基因
癌症研究
纳米结构
连接器
生物活性
细胞膜
纳米材料
膜
生物
手性(物理)
作者
Li Xiang,Morgan E. Stewart,Kailin Mooney,Mingchong Dai,Samuel Drennan,Samantha Holland,Arnaud Quentel,Sinan Sabuncu,Benjamin R. Kingston,Isabel Dengos,Karla Bonic,Florian Goncalves,Xin Yi,Michael Henderson,Srivathsan Ranganathan,Bruce P. Branchaud,Leslie L. Muldoon,Ramon Barajas,Jared M. Fischer,Adem Yıldırım
标识
DOI:10.1002/adma.202509359
摘要
The interactions of nanomaterials with biomolecules in vivo determine their biological fate. Here, it is shown that self-assembled peptide amphiphile (PA) nanostructures can dynamically interact with endogenous biomolecules and take advantage of naturally occurring processes to target a broad range of solid tumors. In circulation, self-assembled PA nanostructures disassemble and reassemble mainly with lipoproteins, which prolongs blood circulation and dramatically improves tumor accumulation and retention. Mechanistic studies suggested that PAs internalize into cancer cells by assembling with their cell membranes and independently of specific receptors. By exploiting these interactions, a PA developed in this study (namely Self-Assembly - Glutamic acid, SA-E) demonstrates specific accumulation in various xenograft, syngeneic, patient-derived xenograft, or transgenic rodent models. In addition, SA-E enabled the effective delivery of highly potent chemotherapy to different syngeneic and xenografted tumors with reduced side effects. With its simple and modular design and universal tumor accumulation mechanism, SA-E represents a promising platform for broad applications in cancer imaging and therapy.
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