揭示淀粉样蛋白原纤维的多方面潜力:从致病神话到生物技术奇迹。

IF 4.9 Q1 BIOPHYSICS
Biophysical reviews Pub Date : 2024-09-30 eCollection Date: 2024-12-01 DOI:10.1007/s12551-024-01232-3
Gauri Tyagi, Shinjinee Sengupta
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引用次数: 0

摘要

淀粉样蛋白原纤维历来因与阿尔茨海默病和帕金森病等疾病有关而被污名化,现在被认为是一类具有非凡潜力的独特功能蛋白。这些高度有序的、交叉的β片蛋白聚集体存在于生命的所有领域,起着至关重要的生理作用。在细菌中,像卷曲纤维这样的功能性淀粉样蛋白对表面粘附、生物膜形成和病毒DNA包装至关重要。真菌朊病毒利用淀粉样蛋白构象来调节翻译、代谢和毒力,而哺乳动物淀粉样蛋白是黑色素合成、激素储存和抗菌防御的组成部分。淀粉样蛋白支架的稳定性和疏水性为这些不同的生物学功能奠定了基础。除了它们的自然作用,淀粉样蛋白原纤维在生物医学、纳米技术和材料科学方面提供了独特的能力。它们卓越的机械强度和生物相容性使其成为控制药物输送、组织工程支架和酶固定化的理想材料。某些淀粉样蛋白固有的荧光和光学特性在生物传感器、分子探针和光电子器件中开辟了创新的应用。此外,淀粉样蛋白原纤维可以模板金属纳米线,增强导电材料,并通过与聚合物结合形成纳米复合材料。这种对淀粉样蛋白功能多样性的新认识激发了对其分子机制、稳定性和可调特性的深入研究。通过揭示功能性淀粉样蛋白结构的复杂性,研究人员旨在利用其非凡的特性来进行突破性的生物医学治疗、先进的纳米材料和可持续的生物技术创新。这篇综述探讨了淀粉样蛋白从病理实体到生物技术奇迹的转变之旅,强调了它们在农业、环境修复和工业过程中的巨大潜力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Unveiling the multifaceted potential of amyloid fibrils: from pathogenic myths to biotechnological marvels.

Amyloid fibrils, historically stigmatized due to their association with diseases like Alzheimer's and Parkinson's, are now recognized as a distinct class of functional proteins with extraordinary potential. These highly ordered, cross-β-sheet protein aggregates are found across all domains of life, playing crucial physiological roles. In bacteria, functional amyloids like curli fibers are essential for surface adhesion, biofilm formation, and viral DNA packaging. Fungal prions exploit amyloid conformations to regulate translation, metabolism, and virulence, while mammalian amyloids are integral to melanin synthesis, hormone storage, and antimicrobial defense. The stability and hydrophobic nature of amyloid scaffolds underpin these diverse biological functions. Beyond their natural roles, amyloid fibrils offer unique capabilities in biomedicine, nanotechnology, and materials science. Their exceptional mechanical strength and biocompatibility make them ideal for controlled drug delivery, tissue engineering scaffolds, and enzyme immobilization. The intrinsic fluorescence and optical properties of certain amyloids open up innovative applications in biosensors, molecular probes, and optoelectronic devices. Furthermore, amyloid fibrils can template metal nanowires, enhance conducting materials, and form nanocomposites by integrating with polymers. This newfound appreciation for the functional diversity of amyloids has ignited intense research efforts to elucidate their molecular mechanisms, stability, and tunable properties. By unraveling the structural intricacies of functional amyloids, researchers aim to harness their remarkable attributes for groundbreaking biomedical therapies, advanced nanomaterials, and sustainable biotechnological innovations. This review explores the transformative journey of amyloids from pathological entities to biotechnological marvels, highlighting their vast potential across agriculture, environmental remediation, and industrial processes.

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来源期刊
Biophysical reviews
Biophysical reviews Biochemistry, Genetics and Molecular Biology-Biophysics
CiteScore
8.90
自引率
0.00%
发文量
93
期刊介绍: Biophysical Reviews aims to publish critical and timely reviews from key figures in the field of biophysics. The bulk of the reviews that are currently published are from invited authors, but the journal is also open for non-solicited reviews. Interested authors are encouraged to discuss the possibility of contributing a review with the Editor-in-Chief prior to submission. Through publishing reviews on biophysics, the editors of the journal hope to illustrate the great power and potential of physical techniques in the biological sciences, they aim to stimulate the discussion and promote further research and would like to educate and enthuse basic researcher scientists and students of biophysics. Biophysical Reviews covers the entire field of biophysics, generally defined as the science of describing and defining biological phenomenon using the concepts and the techniques of physics. This includes but is not limited by such areas as: - Bioinformatics - Biophysical methods and instrumentation - Medical biophysics - Biosystems - Cell biophysics and organization - Macromolecules: dynamics, structures and interactions - Single molecule biophysics - Membrane biophysics, channels and transportation
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