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Image-analysis based readout method for biochip: Automated quantification of immunomagnetic beads, micropads and patient leukemia cell

机译:基于图像分析的Biochip读数方法:免疫磁珠,微碳和患者白血病细胞的自动化量化

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摘要

For diagnosing and monitoring the progress of cancer, detection and quantification of tumor cells is utmost important. Beside standard bench top instruments, several biochip-based methods have been developed for this purpose. Our biochip design incorporates micron size immunomagnetic beads together with micropad arrays, thus requires automated detection and quantification of not only cells but also the micropads and the immunomagnetic beads. The main purpose of the biochip is to capture target cells having different antigens simultaneously. In this proposed study, a digital image processing-based method to quantify the leukemia cells, immunomagnetic beads and micropads was developed as a readout method for the biochip. Color, size-based object detection and object segmentation methods were implemented to detect structures in the images acquired from the biochip by a bright field optical microscope. It has been shown that manual counting and flow cytometry results are in good agreement with the developed automated counting. Average precision is 85 % and average error rate is 13 % for all images of patient samples, average precision is 99 % and average error rate is 1% for cell culture images. With the optimized micropad size, proposed method can reach up to 95 % precision rate for patient samples with an execution time of 90 s per image.
机译:为了诊断和监测癌症的进展,肿瘤细胞的检测和定量是最重要的。在标准台式仪器旁边,已经为此目的开发了几种基于生物芯片的方法。我们的Biochip设计将微米尺寸免疫磁珠与MicroPad阵列一起融合,因此需要自动检测和定量细胞,而且还需要微碳和免疫磁珠。 Biochip的主要目的是同时捕获具有不同抗原的靶细胞。在该提出的研究中,基于数字图像处理的方法来量化白血病细胞,免疫磁珠和微液作为Biochip的读出方法。实现了基于尺寸的对象检测和对象分割方法以通过明场光学显微镜检测从生物芯片获取的图像中的结构。已经表明,手动计数和流式细胞术结果与发发的自动计数良好。平均精度为85%,所有患者样品图像的平均误差率为13%,平均精度为99%,细胞培养图像的平均误差率为1%。利用优化的微户尺寸,提出的方法可以达到高达95%的患者样品精度,每个图像的执行时间为90秒。

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