利用器官芯片和单细胞力光谱技术揭示登革热NS1诱导的机械病理机制

IF 5.5 2区 医学 Q2 MATERIALS SCIENCE, BIOMATERIALS
Huaqi Tang, Tom M. J. Evers, Mehrad Babaei and Alireza Mashaghi*, 
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引用次数: 0

摘要

毛细血管渗漏是严重登革热的一个标志,但其确切机制尚不清楚。新出现的证据强调,登革病毒靶向机械活性内皮细胞是登革休克综合征的一个关键因素。病毒非结构蛋白1 (NS1)已被确定为一个核心角色,它独立于促炎细胞因子,破坏内皮完整性并诱导血管高通透性。本研究通过结合单细胞力谱和微血管芯片平台,对ns1诱导的内皮病理进行了直接评估。我们证明NS1显著改变内皮细胞力学,降低细胞刚度和损害连接完整性,从而直接将这些力学改变与血管功能障碍联系起来。这些发现为理解登革热的机械病理学建立了框架,并为制定靶向治疗策略以减轻严重疾病后果提供了平台。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Revealing Mechanopathology Induced by Dengue NS1 Using Organ Chips and Single-Cell Force Spectroscopy

Capillary leakage is a hallmark of severe dengue, yet its precise mechanisms remain elusive. Emerging evidence highlights the dengue virus’s targeting of mechanically active endothelial cells as a key contributor to dengue shock syndrome. The viral nonstructural protein 1 (NS1) has been identified as a central player, disrupting endothelial integrity and inducing vascular hyperpermeability independently of pro-inflammatory cytokines. This study provides a direct assessment of NS1-induced endothelial pathology by combining single-cell force spectroscopy and a microvessel-on-a-chip platform. We demonstrate that NS1 significantly alters endothelial cell mechanics, reducing cell stiffness and compromising junctional integrity, thereby directly linking these mechanical alterations to vascular dysfunction. These findings establish a framework for understanding the mechano-pathology of dengue and offer a platform for developing targeted therapeutic strategies to mitigate severe disease outcomes.

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来源期刊
ACS Biomaterials Science & Engineering
ACS Biomaterials Science & Engineering Materials Science-Biomaterials
CiteScore
10.30
自引率
3.40%
发文量
413
期刊介绍: ACS Biomaterials Science & Engineering is the leading journal in the field of biomaterials, serving as an international forum for publishing cutting-edge research and innovative ideas on a broad range of topics: Applications and Health – implantable tissues and devices, prosthesis, health risks, toxicology Bio-interactions and Bio-compatibility – material-biology interactions, chemical/morphological/structural communication, mechanobiology, signaling and biological responses, immuno-engineering, calcification, coatings, corrosion and degradation of biomaterials and devices, biophysical regulation of cell functions Characterization, Synthesis, and Modification – new biomaterials, bioinspired and biomimetic approaches to biomaterials, exploiting structural hierarchy and architectural control, combinatorial strategies for biomaterials discovery, genetic biomaterials design, synthetic biology, new composite systems, bionics, polymer synthesis Controlled Release and Delivery Systems – biomaterial-based drug and gene delivery, bio-responsive delivery of regulatory molecules, pharmaceutical engineering Healthcare Advances – clinical translation, regulatory issues, patient safety, emerging trends Imaging and Diagnostics – imaging agents and probes, theranostics, biosensors, monitoring Manufacturing and Technology – 3D printing, inks, organ-on-a-chip, bioreactor/perfusion systems, microdevices, BioMEMS, optics and electronics interfaces with biomaterials, systems integration Modeling and Informatics Tools – scaling methods to guide biomaterial design, predictive algorithms for structure-function, biomechanics, integrating bioinformatics with biomaterials discovery, metabolomics in the context of biomaterials Tissue Engineering and Regenerative Medicine – basic and applied studies, cell therapies, scaffolds, vascularization, bioartificial organs, transplantation and functionality, cellular agriculture
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