Scientific Reports · 2017 · 92 citations · 62 references
Health ProfessionsComputer ScienceOphthalmologyBiomedical OpticsComputer VisionOcular ImagingAdaptive Optics ImagingMedical Image AnalysisOphthalmic ImagingRetinal AnatomyRetinal ExaminationRetinal ImagingAutomated Retinal Image AnalysisAutomatic SegmentationCone Photoreceptor MosaicConvolutional Neural Network DetectionConvolutional Neural Network SegmentationConvolutional Neural NetworksRetinal Feature DetectionRetinal Image Processing
Imaging with an adaptive optics scanning light ophthalmoscope (AOSLO) enables direct visualization of the cone photoreceptor mosaic in the living human retina. Quantitative analysis of AOSLO images typically requires manual grading, which is time consuming, and subjective; thus, automated algorithms are highly desirable. Previously developed automated methods are often reliant on ad hoc rules that may not be transferable between different imaging modalities or retinal locations. In this work, we present a convolutional neural network (CNN) based method for cone detection that learns features of interest directly from training data. This cone-identifying algorithm was trained and validated on separate data sets of confocal and split detector AOSLO images with results showing performance that closely mimics the gold standard manual process. Further, without any need for algorithmic modifications for a specific AOSLO imaging system, our fully-automated multi-modality CNN-based cone detection method resulted in comparable results to previous automatic cone segmentation methods which utilized ad hoc rules for different applications. We have made free open-source software for the proposed method and the corresponding training and testing datasets available online.
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Advances in neural information processing systems 7
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