凝聚
原细胞
生物矿化
生物分子
膜
化学
矿化(土壤科学)
化学工程
纳米技术
膜生物学
聚结(物理)
材料科学
色谱法
有机化学
生物化学
天体生物学
氮气
工程类
物理
作者
Chunyu Zhao,Xiaoliang Wang,Lianning Li,Hu Huang,Bingzhao Wu,Lei Zhang,Xin Huang
标识
DOI:10.1002/advs.202417832
摘要
Abstract The design and assembly of protocell models that can mimic the features and functions of life present a significant research challenge with the potential for far‐reaching impact. Inspired by the natural phenomenon of microbe‐induced mineralization, a way is developed to induce the spontaneous formation of mineralized membrane on the surface of coacervate droplets utilizing Fe 3+ ions. In particular, the effect of Fe 3+ ions on the microstructure of droplets at the molecular level is dissected by combining theoretical and experimental approaches. The reversible formation process of membrane can be regulated by redox reactions involving Fe 2+ /Fe 3+ ions within the coacervate. The formation of mineralized membrane not only enhances the stability of the coacervate droplets and prevents aggregation and coalescence, but also allows the aggregation of adjacent droplets together. The membranized coacervate assemblages retain the inherent properties of biomolecule sequestration and enzyme catalysis, and also demonstrate excellent resistance to high temperatures and pressures as well as good stability for over 30 days. This study will offer a new platform for the assembly of coacervate‐based life‐like biomimetic systems, as well as enhance the understanding of the interactions underlying various biological phenomena at the molecular level.
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