Solid-state nanopore counting of amplicons from recombinase polymerase isothermal amplification†

IF 3.5 Q2 CHEMISTRY, ANALYTICAL Sensors & diagnostics Pub Date : 2024-08-23 DOI:10.1039/D4SD00159A
Breeana Elliott, Martin Charron, John Pezacki, Erin McConnell and Vincent Tabard-Cossa
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Abstract

Single-molecule detection methods based on electrical readout can transform disease diagnostics by miniaturizing the downstream sensor to enable sensitive and rapid biomarker quantification at the point-of-care. In particular, solid-state nanopores can be used as single-molecule electrical counters for a variety of biomedical applications, including biomarker detection. Integrating nanopores with efficient DNA amplification methods can improve upon sensitivity and accessibility concerns often present in disease detection. Here, we present nanopores as biosensors downstream of a reverse-transcription recombinase polymerase amplification (RT-RPA)-based assay targeting synthetic SARS-CoV-2 RNA. We demonstrate the efficacy of nanopore-integrated RT-RPA for the direct electrical detection of target amplicons, and discuss challenges from RPA-based assays and adaptations that facilitate solid-state nanopore readout.

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对重组酶聚合酶等温扩增产生的扩增子进行固态纳米孔计数
基于电读出的单分子检测方法可通过微型化下游传感器,在医疗点实现灵敏、快速的生物标记物定量,从而改变疾病诊断方法。特别是,固态纳米孔可用作单分子电计数器,用于各种生物医学应用,包括生物标记物检测。将纳米孔与高效的 DNA 扩增方法相结合,可以改善疾病检测中经常出现的灵敏度和可及性问题。在这里,我们将纳米孔作为生物传感器,用于基于反转录重组聚合酶扩增(RT-RPA)的以合成 SARS-CoV-2 RNA 为目标的检测。我们展示了集成纳米孔的 RT-RPA 在直接电学检测目标扩增子方面的功效,并讨论了基于 RPA 的检测方法所面临的挑战以及促进固态纳米孔读出的适应性。
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Back cover Pursuing theranostics: a multimodal architecture approach. A review on Ti3C2Tx based nanocomposites for the electrochemical sensing of clinically relevant biomarkers Back cover Introduction to Supramolecular Sensors: From Molecules to Materials
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