1. DeephESC 2.0: Deep Generative Multi Adversarial Networks for improving the classification of hESC
- Author
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Bir Bhanu, Rajkumar Theagarajan, and Fernández-Hilario, Alberto
- Subjects
Science and Technology Workforce ,Intravital Microscopy ,Computer science ,Image Processing ,Cell ,Human Embryonic Stem Cells ,Video Recording ,Biologists ,02 engineering and technology ,Signal-To-Noise Ratio ,Careers in Research ,Regenerative Medicine ,Machine Learning ,Mathematical and Statistical Techniques ,Computer-Assisted ,Animal Cells ,0202 electrical engineering, electronic engineering, information engineering ,Image Processing, Computer-Assisted ,Induced pluripotent stem cell ,Cells, Cultured ,0303 health sciences ,Multidisciplinary ,Cultured ,Artificial neural network ,Stem Cells ,Cell Differentiation ,Prenatal development ,Professions ,medicine.anatomical_structure ,Generic Health Relevance ,Medicine ,020201 artificial intelligence & image processing ,Stem cell ,Cellular Types ,Research Article ,Pluripotency ,Cell type ,Computer and Information Sciences ,Neural Networks ,Science Policy ,Imaging Techniques ,General Science & Technology ,Science ,Cell Potency ,Cells ,Research and Analysis Methods ,03 medical and health sciences ,Computer ,Fluorescence Imaging ,medicine ,Humans ,Stem Cell Research - Embryonic - Human ,030304 developmental biology ,business.industry ,Embryogenesis ,Biology and Life Sciences ,Pattern recognition ,Cell Biology ,Neural Networks (Computer) ,Stem Cell Research ,Embryonic stem cell ,Convolution ,People and Places ,Scientists ,Population Groupings ,Artificial intelligence ,Neural Networks, Computer ,business ,Classifier (UML) ,Mathematical Functions ,Generative grammar ,Developmental Biology ,Neuroscience - Abstract
Human embryonic stem cells (hESC), derived from the blastocysts, provide unique cellular models for numerous potential applications. They have great promise in the treatment of diseases such as Parkinson's, Huntington's, diabetes mellitus, etc. hESC are a reliable developmental model for early embryonic growth because of their ability to divide indefinitely (pluripotency), and differentiate, or functionally change, into any adult cell type. Their adaptation to toxicological studies is particularly attractive as pluripotent stem cells can be used to model various stages of prenatal development. Automated detection and classification of human embryonic stem cell in videos is of great interest among biologists for quantified analysis of various states of hESC in experimental work. Currently video annotation is done by hand, a process which is very time consuming and exhaustive. To solve this problem, this paper introduces DeephESC 2.0 an automated machine learning approach consisting of two parts: (a) Generative Multi Adversarial Networks (GMAN) for generating synthetic images of hESC, (b) a hierarchical classification system consisting of Convolution Neural Networks (CNN) and Triplet CNNs to classify phase contrast hESC images into six different classes namely: Cell clusters, Debris, Unattached cells, Attached cells, Dynamically Blebbing cells and Apoptically Blebbing cells. The approach is totally non-invasive and does not require any chemical or staining of hESC. DeephESC 2.0 is able to classify hESC images with an accuracy of 93.23% out performing state-of-the-art approaches by at least 20%. Furthermore, DeephESC 2.0 is able to generate large number of synthetic images which can be used for augmenting the dataset. Experimental results show that training DeephESC 2.0 exclusively on a large amount of synthetic images helps to improve the performance of the classifier on original images from 93.23% to 94.46%. This paper also evaluates the quality of the generated synthetic images using the Structural SIMilarity (SSIM) index, Peak Signal to Noise ratio (PSNR) and statistical p-value metrics and compares them with state-of-the-art approaches for generating synthetic images. DeephESC 2.0 saves hundreds of hours of manual labor which would otherwise be spent on manually/semi-manually annotating more and more videos.
- Published
- 2019