Structured illumination microscopy using digital micromirror device and coherent light source

Meiqi Li, Yaning Li, Wenhui Liu, A. Lal, Shan Jiang, D. Jin, Houpu Yang, Shu Wang, Karl Zhanghao, P. Xi
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引用次数: 28

Abstract

Structured illumination microscopy (SIM) achieves doubled spatial resolution by exciting the specimen with a high-contrast, high-frequency sinusoidal pattern. Such an excitation pattern can be generated by interference between multiple laser beams, which are diffracted from a grating. In SIM, 2D imaging requires 9 patterns and 3D imaging requires 15 patterns. Compared to mechanical movement of gratings, opti-electro devices provide rapid switch of the excitation patterns, in which Digital Micro-mirror Device (DMD) is most common in industry. Here we model DMD as the blazed grating and report a fast and cost-efficient SIM. Our home-built DMD-based laser interference structured illumination microscopy (DMD-ISIM) system reveals the nuclear pore complex and microtubule in mammalian cells with doubled spatial resolution. We further proposed multi-color DMD-ISIM system with simulation, which could potentially exploit the full power of DMD-ISIM.
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采用数字微镜装置和相干光源的结构照明显微术
结构照明显微镜(SIM)实现双倍的空间分辨率,通过激发试样与高对比度,高频正弦模式。这种激发模式可以由多个激光束之间的干涉产生,这些激光束从光栅衍射出来。在SIM中,2D成像需要9种模式,3D成像需要15种模式。与光栅的机械运动相比,光电器件提供了快速的激励模式切换,其中数字微镜器件(DMD)在工业中最常见。在这里,我们将DMD建模为燃烧光栅,并报道了一种快速且经济高效的SIM。我们自制的基于dmd的激光干涉结构照明显微镜(DMD-ISIM)系统以双倍的空间分辨率揭示了哺乳动物细胞的核孔复合物和微管。我们进一步提出了多色DMD-ISIM仿真系统,可以充分利用DMD-ISIM的功能。
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Front Matter: Volume 11553 Structured illumination microscopy using digital micromirror device and coherent light source
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