Guggenheim Emily J, Lynch Iseult, Rappoport Joshua Z
Physical Science of Imaging in the Biomedical Sciences (PSIBS) Doctoral Training Centre (DTC), Birmingham, Edgbaston, UK; School of Geography, Earth and Environmental Sciences, Birmingham, Edgbaston, UK.
School of Geography, Earth and Environmental Sciences, Birmingham, Edgbaston, UK.
Int J Biochem Cell Biol. 2017 Feb;83:65-70. doi: 10.1016/j.biocel.2016.12.008. Epub 2016 Dec 21.
Reflectance imaging is a broad term that describes the formation of images by the detection of illumination light that is back-scattered from reflective features within a sample. Reflectance imaging can be performed in a variety of different configurations, such as confocal, oblique angle illumination, structured illumination, interferometry and total internal reflectance, permitting a plethora of biomedical applications. Reflectance imaging has proven indispensable for critical investigations into the safety and understanding of biomedically and environmentally relevant nano-materials, an area of high priority and investment. The non-destructive in vivo imaging ability of reflectance techniques permits alternative diagnostic strategies that may eventually facilitate the eradication of some invasive biopsy procedures. Reflectance can also provide additional structural information and clarity necessary in fluorescent based in vivo studies. Near-coverslip interrogation techniques, such as reflectance interferometry and total internal reflection, have provided a label free means to investigate cell-surface contacts, cell motility and vesicle trafficking in vivo and in vitro. Other key advances include the ability to acquire superresolution reflectance images providing increased spatial resolution.
反射成像(Reflectance imaging)是一个广义术语,用于描述通过检测从样本内反射特征反向散射的照明光来形成图像的过程。反射成像可以通过多种不同的配置来进行,如共聚焦、斜角照明、结构照明、干涉测量和全内反射,从而实现大量的生物医学应用。反射成像已被证明对于生物医学和环境相关纳米材料的安全性关键研究以及理解这些材料不可或缺,这是一个高度优先且投入巨大的领域。反射技术的非侵入性体内成像能力允许采用替代诊断策略,最终可能有助于消除一些侵入性活检程序。反射成像还可以为基于荧光的体内研究提供必要的额外结构信息和清晰度。近盖玻片检测技术,如反射干涉测量和全内反射,提供了一种无标记的方法来研究体内和体外的细胞表面接触、细胞运动和囊泡运输。其他关键进展包括能够获取提供更高空间分辨率的超分辨率反射图像。