Ruth C Wilkins, Matthew A Rodrigues, Lindsay A Beaton-Green
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引用次数: 0
摘要
生物剂量测定方法,包括双中心染色体测定法、细胞分裂阻滞微核试验和 DNA 损伤 γH2AX 标记法,用于确定电离辐射的剂量。在没有物理剂量测定或对物理剂量测定有疑问时,这些技术特别有用。虽然这些检测方法灵敏度高、特异性强,但在发生大规模辐射/核事件时,需要对标准方法进行调整,以提高样本吞吐量。最近对基于显微镜的检测方法进行了修改,从而在一定程度上提高了处理量,一些生物模拟网络已经建立并将继续得到加强。由于成像流式细胞仪(IFC)是一种可以自动对处理过的血液样本进行成像并分析辐射损伤标记物的技术,因此可以对基于显微镜的生物剂量测定技术进行修改,使其适用于 IFC,以进行高通量生物剂量测定。此外,分析模板可在联网的生物剂量测定实验室之间轻松共享,以提高能力和标准化程度。本综述介绍了 IFC 方法的最新进展及其在生物剂量测定中的应用。
The Application of Imaging Flow Cytometry to High-Throughput Biodosimetry.
Biodosimetry methods, including the dicentric chromosome assay, the cytokinesis-block micronucleus assay and the γH2AX marker of DNA damage are used to determine the dose of ionizing radiation. These techniques are particularly useful when physical dosimetry is absent or questioned. While these assays can be very sensitive and specific, the standard methods need to be adapted to increase sample throughput in the case of a large-scale radiological/nuclear event. Recent modifications to the microscope-based assays have resulted in some increased throughput, and a number of biodosimetry networks have been, and continue to be, established and strengthened. As the imaging flow cytometer (IFC) is a technology that can automatically image and analyze processed blood samples for markers of radiation damage, the microscope-based biodosimetry techniques can be modified for the IFC for high-throughput biological dosimetry. Furthermore, the analysis templates can be easily shared between networked biodosimetry laboratories for increased capacity and improved standardization. This review describes recent advances in IFC methodology and their application to biodosimetry.