荧光原位杂交
原位
荧光
核酸
细菌
微生物学
分子探针
病菌
鉴定(生物学)
生物
杂交探针
抗生素
微流控
化学
计算生物学
核糖体RNA
细菌细胞结构
原位杂交
抗菌剂
分子诊断学
分子生物学
复式(建筑)
荧光显微镜
纳米技术
核酸热力学
生物传感器
适体
注意事项
16S核糖体RNA
作者
Lai Wei,Fangchi Shao,Sayuni Dharmasena,Sixuan Li,Jiyuan Yang,Arman Mirmiran,Pengfei Zhang,Shawna Lewis,Karen C. Carroll,Kuangwen Hsieh,Tza‐Huei Wang
出处
期刊:Small
[Wiley]
日期:2025-12-08
卷期号:22 (3): e10292-e10292
标识
DOI:10.1002/smll.202510292
摘要
Accurate and timely diagnosis of infections, including pathogen detection and antibiotic susceptibility testing (AST), is essential to effective disease management and combating antibiotic resistance. Here, SWIFT-FISH (Sensitive, Wash-free, Immediate, microFluidic, Thermal permeabilization-facilitated Fluorescence In Situ Hybridization), a novel diagnostic platform enabling bacterial identification (ID) in ≈5 min is reported, complemented by rapid AST. SWIFT-FISH significantly accelerates the conventional FISH workflow through transient thermal permeabilization, allowing intracellular hybridization of fluorescent peptide nucleic acid (PNA) probes to bacterial 16S ribosomal RNA (rRNA) without the conventional fixation step. SWIFT-FISH is then directly detected in solution within a continuous-flow microfluidic platform equipped with in-line single-cell resolution multi-color laser-induced fluorescence (LIF) detection. This approach boosts the cell-to-background ratio, which obviates the conventional washing step, while also enabling continuous cell delivery as a means for improving detection sensitivity. Using 3 broad-based probes and incorporating machine learning-based analysis, SWIFT-FISH demonstrates scalable identification of 6 bacterial species with ≈99% accuracy. Finally, by quantifying bacterial proliferation, SWIFT-FISH readily enables rapid phenotypic AST with ≈1 h turnaround time. SWIFT-FISH thus represents a simple, rapid, sensitive, and versatile diagnostic technology with significant potential to enhance clinical microbiology and antibiotic stewardship.
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