Isotope Dilution DNA Logic Circuits for Multiple Output and Absolute Quantification

IF 6.7 1区 化学 Q1 CHEMISTRY, ANALYTICAL Analytical Chemistry Pub Date : 2025-03-06 DOI:10.1021/acs.analchem.4c06637
Yiyan Zhu, Chao Wei, Ziyan Li, Yan Li, Rui Liu, Yi Lv
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Abstract

DNA logic circuits have gained great success in the past, thanks to their distinct performance regarding the scalability and correctness of computation. However, there are still two challenges often considered for DNA logic circuit-based computation. First, the mainstream optical probes are often subject to spectral overlapping interference for complex multitask analysis and outputs. Second, absolute quantification results traceable to the primary international system of units are mission impossible, especially for interlaboratory comparisons and quality assurances. Herein, we constructed DNA logic circuits encoded with lanthanide isotopes and decoded by elemental mass spectrometry. The 155Gd-enriched isotope and 145Nd-enriched isotope were incorporated in the DNA logic circuits for the isotope dilution-based absolute quantification of microRNAs. The proposed isotopic DNA logic circuits greatly enhance the multiplexity and computation accuracy, which poses a great potential for cancer biomarker-related diagnosis.

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DNA 逻辑电路凭借其在计算的可扩展性和正确性方面的独特性能,在过去取得了巨大成功。然而,基于 DNA 逻辑电路的计算通常仍面临两个挑战。首先,主流光学探针在进行复杂的多任务分析和输出时往往会受到光谱重叠干扰。其次,可追溯到主要国际单位制的绝对定量结果是不可能的,尤其是在实验室间比较和质量保证方面。在此,我们构建了用镧系同位素编码并用元素质谱解码的 DNA 逻辑电路。将富含 155Gd 的同位素和富含 145Nd 的同位素纳入 DNA 逻辑电路,用于基于同位素稀释的 microRNA 绝对定量分析。所提出的同位素 DNA 逻辑电路大大提高了复用性和计算精度,在癌症生物标志物相关诊断方面具有巨大潜力。
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来源期刊
Analytical Chemistry
Analytical Chemistry 化学-分析化学
CiteScore
12.10
自引率
12.20%
发文量
1949
审稿时长
1.4 months
期刊介绍: Analytical Chemistry, a peer-reviewed research journal, focuses on disseminating new and original knowledge across all branches of analytical chemistry. Fundamental articles may explore general principles of chemical measurement science and need not directly address existing or potential analytical methodology. They can be entirely theoretical or report experimental results. Contributions may cover various phases of analytical operations, including sampling, bioanalysis, electrochemistry, mass spectrometry, microscale and nanoscale systems, environmental analysis, separations, spectroscopy, chemical reactions and selectivity, instrumentation, imaging, surface analysis, and data processing. Papers discussing known analytical methods should present a significant, original application of the method, a notable improvement, or results on an important analyte.
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