Nanofluidic innovations and advances in fabrication of lab-on-a-chip systems in health care to bridge nanoengineering and medicine

Sucharitha Palagati , Ramesh Reddy Kudamala , Kishore Bandarapalle , Jayasankar Reddy Veeram , Bhaskar Reddy Kesavan
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Abstract

The field of nanofluidics is advancing significantly in lab-on-a-chip applications, where the unique properties of nanoscale matter enhance devices using nanopores or nanochannels. Innovations in nanofabrication have led to advanced nanofluidic systems that consolidate multiple processing steps into single devices, referred to as “labs-on-a-chip” or “micro total analysis systems.” Nanofluidics and lab-on-a-chip technologies are transforming the way we process and examine small quantities of fluids. These innovations abridge entire laboratories into compact chips, enabling quicker, more economical, and more accurate experiments and analyses. By controlling fluids at the nanoscale, researchers can leverage distinctive physical properties to create novel applications. In a way to foster disease diagnostics to cutting-edge drug development, these miniature devices are significantly influencing health care as personalised medical tools. This article highlights advancements in integrated micro- and nanofluidic devices, illustrating how nanochannels can enhance various functions in chemical analysis, such as sample preparation, fluid handling, separation, and detection. It also addresses challenges faced by these systems, particularly in efficient sample preparation processes like filtration and cell lysis. The development of artificial nanochannels aims to overcome technical hurdles in creating durable protein pore sensors. Despite potential applications, the adoption of novel nanofluidic devices has been slow, partly due to the gap between device development and commercialization. To establish a pipeline of promising technologies, challenges like system integration, cost, regulatory approval, and clinical acceptance must be addressed.
纳米流控技术在医疗保健芯片实验室系统制造中的创新与进展,为纳米工程与医学搭建桥梁
纳米流体领域在芯片实验室应用中取得了显著进展,纳米尺度物质的独特性质增强了使用纳米孔或纳米通道的器件。纳米制造的创新导致了先进的纳米流体系统,将多个处理步骤整合到单个设备中,被称为“芯片实验室”或“微全分析系统”。纳米流体学和芯片实验室技术正在改变我们处理和检测少量流体的方式。这些创新将整个实验室缩短为紧凑的芯片,实现更快,更经济,更准确的实验和分析。通过在纳米尺度上控制流体,研究人员可以利用独特的物理特性来创造新的应用。从某种程度上促进疾病诊断到尖端药物开发,这些微型设备作为个性化医疗工具对医疗保健产生了重大影响。本文重点介绍了集成微流体和纳米流体器件的进展,说明了纳米通道如何增强化学分析中的各种功能,如样品制备,流体处理,分离和检测。它还解决了这些系统面临的挑战,特别是在高效的样品制备过程中,如过滤和细胞裂解。人工纳米通道的发展旨在克服制造耐用蛋白质孔传感器的技术障碍。尽管有潜在的应用,但采用新型纳米流体器件的速度很慢,部分原因是器件开发与商业化之间存在差距。为了建立一个有前途的技术管道,必须解决系统集成、成本、监管批准和临床接受等挑战。
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