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基于重力驱动细胞浓缩的纳光子细胞裂解和聚合酶链反应,用于快速检测病原体。

Nanophotonic Cell Lysis and Polymerase Chain Reaction with Gravity-Driven Cell Enrichment for Rapid Detection of Pathogens.

机构信息

Department of Bioengineering , University of California , Berkeley , California 94720 , United States.

UC Berkeley and UCSF Joint Graduate Program in Bioengineering , University of California , Berkeley , California 94720 , United States.

出版信息

ACS Nano. 2019 Dec 24;13(12):13866-13874. doi: 10.1021/acsnano.9b04685. Epub 2019 Dec 4.

DOI:10.1021/acsnano.9b04685
PMID:31756079
Abstract

Rapid and precise detection of pathogens is a critical step in the prevention and identification of emergencies related to health and biosafety as well as the clinical management of community-acquired urinary tract infections or sexually transmitted diseases. However, a conventional culture-based pathogen diagnostic method is time-consuming, permitting physicians to use antibiotics without ample clinical data. Here, we present a nanophotonic ight-driven ntegrated cell lysis and polymerase chain reaction (PCR) on a chip with ravity-driven cell enrichment ealth echnology (LIGHT) for rapid precision detection of pathogens (<20 min). We created the LIGHT, which has the three functions of (1) selective enrichment of pathogens, (2) photothermal cell lysis, and (3) photonic PCR on a chip. We designed the gravity-driven cell enrichment via a nanoporous membrane on a chip that allows an effective bacterial enrichment of 40 000-fold from a 1 mL sample in 2 min. We established a light-driven photothermal lysis of preconcentrated bacteria within 1 min by designing the network of nanoplasmonic optical antenna on a chip for ultrafast light-to-heat conversion, created the nanoplasmonic optical antenna network-based ultrafast photonic PCR on a chip, and identified . Finally, we demonstrated the end-point detection of up to 10 CFU/mL of in 10 min. We believe that our nanophotonic LIGHT will provide rapid and precise identification of pathogens in both developing and developed countries.

摘要

快速准确地检测病原体是预防和识别与健康和生物安全相关的紧急情况以及社区获得性尿路感染或性传播疾病的临床管理的关键步骤。然而,传统的基于培养的病原体诊断方法耗时较长,使得医生在没有充足临床数据的情况下使用抗生素。在这里,我们提出了一种基于光驱动的纳米光子集成细胞裂解和聚合酶链反应(PCR)芯片与基于重力的细胞富集健康技术(LIGHT),用于快速精确检测病原体(<20 分钟)。我们创建了 LIGHT,它具有(1)病原体的选择性富集,(2)光热细胞裂解和(3)芯片上的光子 PCR 三种功能。我们通过芯片上的纳米多孔膜设计了基于重力的细胞富集,允许从 1 毫升样品中有效富集 40000 倍的细菌,在 2 分钟内完成。我们通过设计芯片上的纳米等离子体光天线网络实现了预先浓缩细菌的光驱动光热裂解,用于超快的光到热转换,创建了基于纳米等离子体光天线网络的超快芯片上光子 PCR,并进行了鉴定。最后,我们证明了在 10 分钟内可以达到 10 个 CFU/mL 的终点检测。我们相信,我们的纳米光子 LIGHT 将为发展中国家和发达国家快速准确地识别病原体提供帮助。

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