Molecular Imaging Using Bioluminescence

Byeong‐il Lee, J. Min
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引用次数: 6

Abstract

Recent progress in the development of non-invasive imaging technologies continues to strengthen the role of molecular imaging in biological research. Small animal imaging with bioluminescence has been validated recently in a variety of research models and have been shown to provide continuous quantitative monitoring of the location(s), magnitude, and time-variation of gene delivery and/or expression. This article reviews the role of in vivo bioluminescence imaging technologies as they have been used in imaging gene delivery and gene expression for molecular imaging applications. The studies published to date demonstrate that bioluminescence imaging tools will help to understand human diseases through small animal models. disease progression at a molecular pathological level; and (7) To create the possibility of achieving all of the above goals of imaging in a rapid, reproducible, and quantitative manner, so as to be able to monitor time-dependent experimental, developmental, environmental, and therapeutic influences on gene products in the same animal or patient. Diverse optical imaging technologies have been used to investigate molecular events in biology research which is focused on characterizing molecular interaction, signal transduction, enzyme activity, receptor/transporter status and biodistribution of various optical substrates (tracers). The underlying principles of in vitro optical imaging can now be tailored to in vivo optical imaging modalities such as bioluminescence and fluorescence imaging. The development, validation, and application of bioluminescence imaging techniques in living subjects should further enhance our understanding of disease mechanisms and go hand in hand with the development of molecular imaging (1-3).
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利用生物发光进行分子成像
近年来,非侵入性成像技术的发展不断加强了分子成像在生物学研究中的作用。生物发光小动物成像最近已经在各种研究模型中得到验证,并已被证明可以提供基因传递和/或表达的位置、大小和时间变化的连续定量监测。本文综述了体内生物发光成像技术在分子成像应用中用于基因传递和基因表达成像的作用。迄今为止发表的研究表明,生物发光成像工具将有助于通过小动物模型了解人类疾病。在分子病理水平上的疾病进展;(7)创造以快速、可重复和定量的方式实现上述所有成像目标的可能性,以便能够在同一动物或患者中监测随时间变化的实验、发育、环境和治疗对基因产物的影响。不同的光学成像技术已被用于研究生物学研究中的分子事件,其重点是表征分子相互作用、信号转导、酶活性、受体/转运体状态和各种光学底物(示踪剂)的生物分布。体外光学成像的基本原理现在可以调整为体内光学成像模式,如生物发光和荧光成像。生物发光成像技术在活体中的发展、验证和应用应进一步增强我们对疾病机制的理解,并与分子成像的发展齐头并进(1-3)。
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