微流控
流体学
杠杆(统计)
注意事项
纳米技术
免疫分析
再现性
生物标志物
计算机科学
材料科学
生物医学工程
化学
色谱法
医学
工程类
病理
免疫学
航空航天工程
生物化学
机器学习
抗体
作者
Gregory A. Weiss,Emily Sanders,Sanjana Sen,Aidan A. Gelston,Alicia M Santos,Xuan Luo,Keertna Bhuvan,Derek Y. Tang,Colin L. Raston
标识
DOI:10.1002/anie.202202021
摘要
Unlocking the potential of personalized medicine in point-of-care settings requires a new generation of biomarker and proteomic assays. Ideally, assays could inexpensively perform hundreds of quantitative protein measurements in parallel at the bedsides of patients. This goal greatly exceeds current capabilities. Furthermore, biomarker assays are often challenging to translate from benchtop to clinic due to difficulties achieving and assessing the necessary selectivity, sensitivity, and reproducibility. To address these challenges, we developed an efficient (<5 min), robust (comparatively lower CVs), and inexpensive (decreasing reagent use and cost by >70 %) immunoassay method. Specifically, the immunoblot membrane is dotted with the sample and then developed in a vortex fluidic device (VFD) reactor. All assay steps-blocking, binding, and washing-leverage the unique thin-film microfluidics of the VFD. The approach can accelerate direct, indirect, and sandwich immunoblot assays. The applications demonstrated include assays relevant to both the laboratory and the clinic.
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