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蛋白质组装体:源于自然和设计的纳米结构。

Protein Assemblies: Nature-Inspired and Designed Nanostructures.

机构信息

Department of Chemistry , University of Reading , Whiteknights , Reading RG6 6AD , United Kingdom.

出版信息

Biomacromolecules. 2019 May 13;20(5):1829-1848. doi: 10.1021/acs.biomac.9b00228. Epub 2019 Apr 4.

DOI:10.1021/acs.biomac.9b00228
PMID:30912925
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC7007009/
Abstract

Ordered protein assemblies are attracting interest as next-generation biomaterials with a remarkable range of structural and functional properties, leading to potential applications in biocatalysis, materials templating, drug delivery and vaccine development. This Review covers ordered protein assemblies including protein nanowires/nanofibrils, nanorings, nanotubes, designed two- and three-dimensional ordered protein lattices and protein-like cages including polyhedral virus-like cage structures. The main focus is on designed ordered protein assemblies, in which the spatial organization of the proteins is controlled by tailored noncovalent interactions (including metal ion binding interactions, electrostatic interactions and ligand-receptor interactions among others) or by careful design of modified (mutant) proteins or de novo constructs. The modification of natural protein assemblies including bacterial S-layers and cage-like and rod-like viruses to impart novel function, e.g. enzymatic activity, is also considered. A diversity of structures have been created using distinct approaches, and this Review provides a summary of the state-of-the-art in the development of these systems, which have exceptional potential as advanced bionanomaterials for a diversity of applications.

摘要

有序蛋白质组装体作为下一代生物材料引起了人们的兴趣,它们具有显著的结构和功能特性,有望在生物催化、材料模板、药物输送和疫苗开发等领域得到应用。本综述涵盖了有序蛋白质组装体,包括蛋白质纳米线/纳米纤维、纳米环、纳米管、设计的二维和三维有序蛋白质晶格以及类似蛋白质的笼状结构,如多面体型病毒样笼状结构。主要重点是设计的有序蛋白质组装体,其中蛋白质的空间组织由定制的非共价相互作用(包括金属离子结合相互作用、静电相互作用和配体-受体相互作用等)或通过对修饰(突变)蛋白或从头构建体的精心设计来控制。还考虑了对天然蛋白质组装体(包括细菌 S 层和笼状和棒状病毒)进行修饰以赋予新功能,例如酶活性。已经使用不同的方法创建了多种结构,本综述提供了这些系统最新发展的概述,这些系统作为先进的仿生材料具有广泛的应用潜力。

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1
Peptide-Based Nanotubes and Their Applications in Bionanotechnology.基于肽的纳米管及其在生物纳米技术中的应用。
Adv Mater. 2005 Sep;17(17):2037-2050. doi: 10.1002/adma.200401849. Epub 2005 Aug 29.
2
Supercharging enables organized assembly of synthetic biomolecules.超流作用能够实现合成生物分子的有序组装。
Nat Chem. 2019 Mar;11(3):204-212. doi: 10.1038/s41557-018-0196-3. Epub 2019 Jan 14.
3
Hypoxia-tropic Protein Nanocages for Modulation of Tumor- and Chemotherapy-Associated Hypoxia.缺氧靶向蛋白纳米笼用于调节肿瘤和化疗相关缺氧。
Biophys J. 2024 Jul 2;123(13):1763-1780. doi: 10.1016/j.bpj.2024.05.015. Epub 2024 May 18.
4
Glucose-Triggered Gelation of Supramolecular Peptide Nanocoils with Glucose-Binding Motifs.具有葡萄糖结合基序的超分子肽纳米线圈的葡萄糖触发凝胶化。
Adv Mater. 2024 Apr;36(16):e2311498. doi: 10.1002/adma.202311498. Epub 2023 Dec 26.
5
Single-particle cryo-EM analysis of the shell architecture and internal organization of an intact α-carboxysome.单颗粒冷冻电镜分析完整的α-羧基体的壳结构和内部组织。
Structure. 2023 Jun 1;31(6):677-688.e4. doi: 10.1016/j.str.2023.03.008. Epub 2023 Apr 3.
6
Zygote structure enables pluripotent shape-transforming deployable structure.合子结构促成多能性形状转变可展开结构。
PNAS Nexus. 2023 Mar 14;2(3):pgad022. doi: 10.1093/pnasnexus/pgad022. eCollection 2023 Mar.
7
Design, synthesis, and characterization of protein origami based on self-assembly of a brick and staple artificial protein pair.基于砖和订书钉人工蛋白对自组装的蛋白质折纸的设计、合成与表征。
Proc Natl Acad Sci U S A. 2023 Mar 14;120(11):e2218428120. doi: 10.1073/pnas.2218428120. Epub 2023 Mar 9.
8
Single-Molecule Sizing through Nanocavity Confinement.纳米腔限域中单分子的尺寸测定。
Nano Lett. 2023 Mar 8;23(5):1629-1636. doi: 10.1021/acs.nanolett.1c04830. Epub 2023 Feb 24.
9
Dissecting the general mechanisms of protein cage self-assembly by coarse-grained simulations.通过粗粒化模拟解析蛋白质笼自组装的一般机制。
Protein Sci. 2023 Feb;32(2):e4552. doi: 10.1002/pro.4552.
10
Recombinant vaccines in 2022: a perspective from the cell factory.2022 年的重组疫苗:来自细胞工厂的视角。
Microb Cell Fact. 2022 Oct 5;21(1):203. doi: 10.1186/s12934-022-01929-8.
ACS Nano. 2019 Jan 22;13(1):236-247. doi: 10.1021/acsnano.8b05399. Epub 2018 Dec 26.
4
Highly adjustable 3D nano-architectures and chemistries via assembled 1D biological templates.通过组装一维生物模板实现高度可调的 3D 纳米结构和化学。
Nanoscale. 2019 Jan 17;11(3):1091-1102. doi: 10.1039/c8nr04864a.
5
Functional protein nanostructures: a chemical toolbox.功能蛋白纳米结构:化学工具箱。
Chem Soc Rev. 2018 Dec 21;47(24):9069-9105. doi: 10.1039/c8cs00590g. Epub 2018 Nov 19.
6
Metal-Assisted Assembly of Protein Containers Loaded with Inorganic Nanoparticles.金属辅助组装装载无机纳米粒子的蛋白质容器。
Inorg Chem. 2018 Nov 5;57(21):13431-13436. doi: 10.1021/acs.inorgchem.8b01995. Epub 2018 Oct 15.
7
On-Axis Alignment of Protein Nanocage Assemblies from 2D to 3D through the Aromatic Stacking Interactions of Amino Acid Residues.通过氨基酸残基的芳香堆积相互作用,从 2D 到 3D 对蛋白质纳米笼组装体进行同轴对准。
ACS Nano. 2018 Nov 27;12(11):11323-11332. doi: 10.1021/acsnano.8b06091. Epub 2018 Oct 2.
8
Hyperexpandable, self-healing macromolecular crystals with integrated polymer networks.具有集成聚合物网络的超可扩展、自修复高分子晶体。
Nature. 2018 May;557(7703):86-91. doi: 10.1038/s41586-018-0057-7. Epub 2018 May 2.
9
Engineering the entropy-driven free-energy landscape of a dynamic nanoporous protein assembly.工程化动态纳米多孔蛋白质组装体的熵驱动自由能景观。
Nat Chem. 2018 Jul;10(7):732-739. doi: 10.1038/s41557-018-0053-4. Epub 2018 Apr 30.
10
Templated Assembly of a Functional Ordered Protein Macromolecular Framework from P22 Virus-like Particles.利用 P22 病毒样颗粒组装具有功能的有序蛋白质大分子框架
ACS Nano. 2018 Apr 24;12(4):3541-3550. doi: 10.1021/acsnano.8b00528. Epub 2018 Mar 26.