Template-controllable rolling circle amplification for dual protein sensitive analysis

Conjoint analysis of multiple protein biomarkers can improve the accuracy of disease analysis. Rolling circle amplification (RCA) generates different products by designing circular templates, which can subsequently bind with specific probes to generate various fluorescence signals; thus, it has pote...

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Veröffentlicht in:Journal of materials chemistry. B, Materials for biology and medicine Materials for biology and medicine, 2024-02, Vol.12 (6), p.1523-1529
Hauptverfasser: Wang, Gang, Tang, Shi, Dong, Yixi, Zou, Fangbo, Jiao, Jin, Xiang, Yang
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container_issue 6
container_start_page 1523
container_title Journal of materials chemistry. B, Materials for biology and medicine
container_volume 12
creator Wang, Gang
Tang, Shi
Dong, Yixi
Zou, Fangbo
Jiao, Jin
Xiang, Yang
description Conjoint analysis of multiple protein biomarkers can improve the accuracy of disease analysis. Rolling circle amplification (RCA) generates different products by designing circular templates, which can subsequently bind with specific probes to generate various fluorescence signals; thus, it has potential for application in the analysis of various protein biomarkers. Current RCA approaches to detect proteins commonly follow an indirect primer-controlled RCA mode. And the molecular beacon probe combines with RCA products through free collision to generate signals, resulting in lower reaction efficiency. Herein, we propose a direct template-controlled RCA mode using nanosheets as carriers and quenchers for fluorescent probes to simultaneously detect two protein biomarkers. A dual functional magnetic bead was first designed to recognize and capture two proteins while releasing two templates for subsequent RCA. RCA products compete with probes loaded on two-dimensional metal-organic framework nanosheets for hybridization, completing the transition from single-stranded to double-stranded DNA. Double-stranded DNA is far from the nanosheets, and the recovered fluorescence signal can be used to evaluate the concentration of target proteins. This method exhibits excellent analytical performance and can successfully achieve the analysis of Tau and AβO in Alzheimer's disease clinical cerebrospinal fluid samples. Conjoint analysis of multiple protein biomarkers can improve the accuracy of disease analysis.
doi_str_mv 10.1039/d3tb02478d
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Rolling circle amplification (RCA) generates different products by designing circular templates, which can subsequently bind with specific probes to generate various fluorescence signals; thus, it has potential for application in the analysis of various protein biomarkers. Current RCA approaches to detect proteins commonly follow an indirect primer-controlled RCA mode. And the molecular beacon probe combines with RCA products through free collision to generate signals, resulting in lower reaction efficiency. Herein, we propose a direct template-controlled RCA mode using nanosheets as carriers and quenchers for fluorescent probes to simultaneously detect two protein biomarkers. A dual functional magnetic bead was first designed to recognize and capture two proteins while releasing two templates for subsequent RCA. RCA products compete with probes loaded on two-dimensional metal-organic framework nanosheets for hybridization, completing the transition from single-stranded to double-stranded DNA. Double-stranded DNA is far from the nanosheets, and the recovered fluorescence signal can be used to evaluate the concentration of target proteins. This method exhibits excellent analytical performance and can successfully achieve the analysis of Tau and AβO in Alzheimer's disease clinical cerebrospinal fluid samples. 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source Royal Society Of Chemistry Journals 2008-
subjects Alzheimer's disease
Amplification
Biomarkers
Cerebrospinal fluid
Controllability
Deoxyribonucleic acid
DNA
DNA probes
Fluorescence
Fluorescent indicators
Hybridization
Metal-organic frameworks
Nanostructure
Neurodegenerative diseases
Probes
Proteins
Single-stranded DNA
Tau protein
title Template-controllable rolling circle amplification for dual protein sensitive analysis
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