自我参考数字全息显微镜

M. Kiss, Z. Gorocs, S. Tõkés
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引用次数: 1

摘要

通过开发自参考数字全息显微镜,可以记录全息图和数字重建低相干荧光物体的体积图像,如(自动)荧光生物样品(如藻类)。我们的目标是开发和制造一种简单、紧凑的便携式设备。与普通的全息方法相比,有一个传统的参考光束,参考光束应该与来自同一荧光源的物体光束一起产生,通过两个独立的光路成像(路径长度差接近于零)来获得干涉条纹。这些干涉形成了所有点源的独立全息图。来自不同源的波相互不相干,但具有固有的短相干长度。首先,我们测试了自参考数字全息显微镜设置,测试对象由LED光源照射,其光谱带宽与叶绿素等荧光光源相似。测量全息图的数字重建需要大量的处理。为了加速全息图的处理,并行实现处理似乎是必不可少的。使用gpu,我们能够在不损失重建精度的情况下大大提高算法的速度。
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Self-referenced digital holographic microscopy
By developing a self referenced digital holographic microscope it becomes possible to record holograms and numerically reconstruct volumetric images of low coherence fluorescent objects such as (auto)fluorescent biological samples (e.g. algae). Our goal was to develop and construct a simple, compact portable device. In contrast to the common holographic approaches where there is a conventional reference beam, a reference beam should be produced together with the object beam from the same fluorescent source via imaging it by two separate optical paths (with near zero path length differences) to get interferences fringes. These interference forms separate holograms of all the point sources. The waves coming from the separate sources are mutually incoherent but have an inherent short coherence length. Initially we have tested the self referenced digital holographic microscope setup with test objects illuminated by LED light source that has similar spectral bandwidth as the fluorescence sources like chlorophyll. Digital reconstructions of the measured holograms need considerable processing. To accelerate the hologram processing a parallel implementation of processing seems essential. Using GPU-s we were able to enhance the algorithm's speed considerably, without the loss of the reconstruction accuracy.
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