I/UCRC FRP: MicroSURF (MicroSuperhydrophobicUltraRapidFluidics) for Enhanced Diagnostics

I/UCRC FRP：用于增强诊断的 MicroSURF（微超疏水超快速流体）

• 批准号: 1535592
• 负责人: Michelle Khine
• 金额: $ 20万
• 依托单位: University of California-Irvine
• 依托单位国家: 美国
• 项目类别: Standard Grant
• 财政年份: 2015
• 资助国家: 美国
• 起止时间: 2015-09-01 至 2017-08-31
• 项目状态: 已结题
• 来源: https://www.nsf.gov/awardsearch/showAward?AWD_ID=1535592&HistoricalAwards=false
• 关键词: UCRC; FRP; MicroSURF; MicroSuperhydrophobicUltraRapidFluidics; Enhanced

By leveraging the unique physics of flow on non-wetting superhydrophobic surfaces, this research seeks to overcome the persistent bottlenecks associated with manipulating fluids at extremely small volumes (microfluidics). While microfluidics holds much promise for early and deployable disease diagnostics, practical challenges associated with such precision manipulations have heretofore hindered its widespread dissemination. Microfluidics on superhydrophobic surfaces can solve many disease diagnostic problems by enabling: loss-less sample manipulations, novel hydrodynamic properties, extremely fast and controlled flows, and enhanced mixing. The knowledge and insight generated through this research will significantly improve and propel the field of microfluidics forward by elucidating the fundamental mechanisms of enhanced flow through engineered surface effects. It will also enable practical implementation and deployment of these mechanisms for real-world impact. Broader impacts of the work include the potential for mass manufacture superhydrophobic surfaces in commodity plastics and integration of them into microfluidic devices already in use. Additional impacts include K-12 science and engineering outreach programs, one entitled "A Hundred Tiny Hands" developed for children (ages 5 and up) where they can design and make their own superhydrophobic building blocks as part of our 'Inventor's Toolboxes' while learning modern science and engineering concepts with our accompanying comic books. This research involves the creation and implementation of superhydrophobic surfaces in commodity plastics on the large scale with standard roll to roll manufacturing, which allows the optimization of such substrates and enables the ability to inexpensively integrate them into standard microfluidics devices. This research systematically designs and optimizes both superhydrophobic surfaces and microfluidic designs to best leverage surface enhancements for key microfluidic-enabled diagnostic functionalities. Goals of the research are to create mass manufacturable configurable superhydrophobic surfaces tailored for specific microfluidic applications so they can be integrated into commercial microfluidic devices by probing the physics at the micro- and nano-scale. Other goals include pushing the current limits of our understanding of the physics of microfluidics, with an outcome that is physically tangible: i.e., mass manufactured diagnostic devices with significantly improved performance due to integrated superhydrophobic surfaces.

通过利用非润湿超疏水表面上流动的独特物理特性，这项研究旨在克服与极小体积（微流体）操纵流体相关的持续瓶颈。虽然微流体技术在早期和可部署的疾病诊断方面有很大的希望，但与这种精确操作相关的实际挑战迄今为止阻碍了其广泛传播。超疏水表面上的微流体技术可以解决许多疾病诊断问题，实现：无损失的样品操作，新颖的流体动力学特性，极快和受控的流动，以及增强的混合。通过这项研究产生的知识和见解将通过阐明通过工程表面效应增强流动的基本机制来显着改善和推动微流体领域的发展。它还将使这些机制的实际实施和部署能够产生实际影响。这项工作的更广泛影响包括在商品塑料中大规模制造超疏水表面的潜力，以及将它们集成到已经使用的微流体设备中。其他影响包括K-12科学和工程外展计划，一个名为“一百只小手”的儿童（5岁及以上），他们可以设计和制作自己的超疏水积木作为我们的“发明者的工具箱”的一部分，同时学习现代科学和工程概念与我们的配套漫画书。这项研究涉及在标准卷对卷制造中大规模地在商品塑料中创建和实现超疏水表面，这允许优化此类基底，并能够将其廉价地集成到标准微流体设备中。这项研究系统地设计和优化了超疏水表面和微流体设计，以最好地利用表面增强技术实现关键的微流体诊断功能。该研究的目标是为特定的微流体应用量身定制可大规模制造的可配置超疏水表面，以便通过在微米和纳米尺度上探测物理学，将它们集成到商业微流体设备中。其他目标包括推动我们对微流体物理学的理解的当前极限，其结果是物理上有形的：即，由于集成的超疏水表面，大规模制造的诊断装置具有显著改进的性能。