一种自制的荧光微球成像和定量的数字切片扫描仪和显微镜

William Henning, Julie B Andersen, L. Højgaard, G. Greisen, I. Law, A. Thorseth, A. Christensen
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引用次数: 1

摘要

目的:建立一种低成本的显微镜载玻片扫描仪,对新生仔猪脑组织进行数字化成像,定量检测组织中荧光微球。方法:采用标准数码单反(DSLR)相机对新生仔猪脑组织进行荧光成像。可下载的计算机算法用于检测脑组织载玻片中的荧光微球并计算区域脑血流量(rCBF)。通过与人工荧光微球计数的比较,验证了算法的精度。最后,通过添加光漫射膜进行了光场成像测试。结果:玻片扫描仪的成本是商业玻片扫描仪成本的一小部分。切片扫描仪能够以半自动方式对大量组织切片进行成像,并提供101 mm 2的大视场(FOV)和2.9 μm的分辨率。手动计数和自动计数的平均差值(SD)绝对值为0.32(1.5)个微球,范围从-5到5个微球/载玻片。自动计数和手动计数之间的相对总差异为-3.1%。结论:构建了切片扫描仪,开发并验证了组织中荧光微球检测的自动算法,与“金标准”人工计数有可接受的差异。当研究人员需要荧光微球的数字切片成像和定量时,切片扫描仪可以被视为一种低成本的选择。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A new self-made digital slide scanner and microscope for imaging and quantification of fluorescent microspheres
Objective: A low-cost microscope slide scanner was constructed for the purpose of digital imaging of newborn piglet brain tissue and to quantify fluorescent microspheres in tissue. Methods: Using a standard digital single-lens reflex (DSLR) camera, fluorescent imaging of newborn piglet brain tissue was performed. A computer algorithm available for download was created to detect fluorescent microspheres in the brain tissue slides and to calculate regional cerebral blood flow (rCBF). The precision of the algorithm was tested by comparing with manual counting of the fluorescent microspheres. Finally, bright-field imaging was tested by adding light diffuser film. Results: Cost of the slide scanner was a fraction of the cost of a commercial slide scanner. The slide scanner was able to image a large number of tissue slides in a semiautomatic manner and provided a large field of view (FOV) of 101 mm 2 combined with a resolution of 2.9 μm. The mean difference (SD) between manual and automatic counts was in absolute numbers 0.32 (1.5) microspheres ranging from -5 to 5 microspheres per slide. The relative total difference between automatic and manual counts was -3.1%. Conclusions: A slide scanner was constructed and an automatic algorithm to detect fluorescent microspheres in tissue was developed and validated and showed an acceptable difference to “gold standard” manual counting. The slide scanner can be regarded as a low-cost alternative for researchers when digital slide imaging and quantification of fluorescent microspheres are needed.
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