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Enhanced robustness digital holographic microscopy for demanding environment of space biology

机译:增强鲁棒性的数字全息显微镜,适用于苛刻的空间生物学环境

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We describe an optimized digital holographic microscopy system (DHM) suitable for high-resolution visualization of living cells under conditions of altered macroscopic mechanical forces such as those that arise from changes in gravitational force. Experiments were performed on both a ground-based microgravity simulation platform known as the random positioning machine (RPM) as well as during a parabolic flight campaign (PFC). Under these conditions the DHM system proved to be robust and reliable. In addition, the stability of the system during disturbances in gravitational force was further enhanced by implementing post-processing algorithms that best exploit the intrinsic advantages of DHM for hologram autofocusing and subsequent image registration. Preliminary results obtained in the form of series of phase images point towards sensible changes of cytoarchitecture under states of altered gravity.
机译:我们描述了一种优化的数字全息显微系统(DHM),适用于在改变的宏观机械力(例如那些由重力变化引起的宏观机械力)的条件下进行活细胞的高分辨率可视化。在称为随机定位机(RPM)的地面微重力仿真平台以及抛物线飞行战役(PFC)期间均进行了实验。在这些条件下,DHM系统被证明是坚固且可靠的。此外,通过实施后处理算法进一步增强了系统在重力干扰期间的稳定性,该后处理算法可以最大程度地利用DHM的全息自动聚焦和后续图像配准的内在优势。以一系列相图形式获得的初步结果表明,在重力改变的状态下,细胞结构发生了明显变化。

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