Nano Biomedical Research Centre, Nano Biomedical Research Centre, Shanghai Jiao Tong University, Shanghai, 200030, China.
Division of Biomedical Engineering, James Watt School of Engineering, University of Glasgow, Oakfield Avenue, Glasgow, G12 8LT, UK.
Nat Commun. 2022 Mar 28;13(1):1635. doi: 10.1038/s41467-022-29101-1.
Accelerating the design of nucleic acid amplification methods remains a critical challenge in the development of molecular tools to identify biomarkers to diagnose both infectious and non-communicable diseases. Many of the principles that underpin these mechanisms are often complex and can require iterative optimisation. Here we focus on creating a generalisable isothermal nucleic acid amplification methodology, describing the systematic implementation of abstraction-based models for the algorithmic design and application of assays. We demonstrate the simplicity, ease and flexibility of our approach using a software tool that provides amplification schemes de novo, based upon a user-input target sequence. The abstraction of reaction network predicts multiple reaction pathways across different strategies, facilitating assay optimisation for specific applications, including the ready design of multiplexed tests for short nucleic acid sequence miRNAs or for difficult pathogenic targets, such as highly mutating viruses.
加速核酸扩增方法的设计仍然是开发用于识别传染病和非传染性疾病生物标志物的分子工具的关键挑战。这些机制所依据的许多原理往往很复杂,可能需要反复优化。在这里,我们专注于创建一种可推广的等温核酸扩增方法,描述了基于抽象的算法设计和检测应用的模型的系统实现。我们使用一个软件工具展示了我们方法的简单性、易用性和灵活性,该工具根据用户输入的目标序列提供新的扩增方案。反应网络的抽象预测了不同策略下的多种反应途径,便于针对特定应用进行检测优化,包括短核酸序列 miRNA 的多重检测或高度突变病毒等困难病原体靶标的检测的设计。