A tool for live-cell confocal imaging of temperature-dependent organelle dynamics.

Keiko Midorikawa, Yutaka Kodama
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Abstract

Intracellular organelles alter their morphology in response to ambient conditions such as temperature to optimize physiological activities in cells. Observing organelle dynamics at various temperatures deepens our understanding of cellular responses to the environment. Confocal laser microscopy is a powerful tool for live-cell imaging of fluorescently labeled organelles. However, the large contact area between the specimen and the ambient air on the microscope stage makes it difficult to maintain accurate cellular temperatures. Here, we present a method for precisely controlling cellular temperatures using a custom-made adaptor that can be installed on a commercially available temperature-controlled microscope stage. Using this adaptor, we observed temperature-dependent organelle dynamics in living plant cells; morphological changes in chloroplasts and peroxisomes were temperature dependent. This newly developed adaptor can be easily placed on a temperature-controlled stage to capture intracellular responses to temperature at unprecedentedly high resolution.

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对温度依赖性细胞器动态进行活细胞共聚焦成像的工具。
细胞内细胞器会根据温度等环境条件改变形态,以优化细胞内的生理活动。观察细胞器在不同温度下的动态可以加深我们对细胞对环境反应的理解。激光共聚焦显微镜是荧光标记细胞器活细胞成像的强大工具。然而,由于显微镜台上的样本与环境空气之间的接触面积较大,因此很难保持准确的细胞温度。在这里,我们介绍了一种使用定制适配器精确控制细胞温度的方法,这种适配器可以安装在市售的温控显微镜平台上。利用这种适配器,我们在活体植物细胞中观察到了与温度有关的细胞器动态;叶绿体和过氧物酶体的形态变化与温度有关。这种新开发的适配器可以很容易地安装在温控显微镜台上,以前所未有的高分辨率捕捉细胞内对温度的反应。
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