相量图:推进荧光寿命分析和解释的通用循环。

IF 10.4 1区 生物学 Q1 BIOPHYSICS Annual Review of Biophysics Pub Date : 2021-05-06 DOI:10.1146/annurev-biophys-062920-063631
Leonel Malacrida, Suman Ranjit, David M Jameson, Enrico Gratton
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引用次数: 46

摘要

荧光寿命成像的相量法已成为分析生物样品中复杂荧光信号的常用方法。生物系统中复杂荧光衰减的相量表示的吸引力在于,整个细胞或组织的衰减的视觉表示可以用来很容易地解释与代谢和氧化应激相关的基本生物状态。基于自身荧光的表型分析为疾病表征和诊断提供了新的途径。相量法是一种复杂荧光衰减的变换,它不使用拟合来模拟衰减,因此具有与原始数据相同的信息内容。相量图对于给定系统是唯一的,具有高度可重复性,并提供了一种可靠的方法来评估分子相互作用的存在,如Förster共振能量转移或离子指示器的响应。最近的进展允许在荧光寿命成像显微镜中从相量图中定量多个组分,这是目前不可能使用数据拟合方法,特别是在生物系统中。
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The Phasor Plot: A Universal Circle to Advance Fluorescence Lifetime Analysis and Interpretation.

The phasor approach to fluorescence lifetime imaging has become a common method to analyze complicated fluorescence signals from biological samples. The appeal of the phasor representation of complex fluorescence decays in biological systems is that a visual representation of the decay of entire cells or tissues can be used to easily interpret fundamental biological states related to metabolism and oxidative stress. Phenotyping based on autofluorescence provides new avenues for disease characterization and diagnostics. The phasor approach is a transformation of complex fluorescence decays that does not use fits to model decays and therefore has the same information content as the original data. The phasor plot is unique for a given system, is highly reproducible, and provides a robust method to evaluate the existence of molecular interactions such as Förster resonance energy transfer or the response of ion indicators. Recent advances permitquantification of multiple components from phasor plots in fluorescence lifetime imaging microscopy, which is not presently possible using data fitting methods, especially in biological systems.

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来源期刊
Annual Review of Biophysics
Annual Review of Biophysics 生物-生物物理
CiteScore
21.00
自引率
0.00%
发文量
25
期刊介绍: The Annual Review of Biophysics, in publication since 1972, covers significant developments in the field of biophysics, including macromolecular structure, function and dynamics, theoretical and computational biophysics, molecular biophysics of the cell, physical systems biology, membrane biophysics, biotechnology, nanotechnology, and emerging techniques.
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