Biomedical Optics Express · 2020 · 15 citations · 27 references
EngineeringBiomedical EngineeringOphthalmologyBiomedical ImagingBiomedical OpticsOcular ImagingImage Quality AssessmentOphthalmic ImagingOptical Coherence TomographyRetinal AnatomyRetinal Image QualityRetinal ImagingIn Vivo Retinal ImagingPhantom DevicesRetinal Image Quality AssessmentRetinal Layer OrganizationRetinal Layer ThicknessRetinal Thickness AnalysisSignal Strength EvaluationSignal-to-noise Ratio
We compared eleven OCT devices in their ability to quantify retinal layer thicknesses under different signal-strength conditions, using a commercially available phantom eye. We analyzed a medium-intensity 50 µm layer in an identical manner for all devices, using the provided log-scale images and a reconstructed linear-scale tissue reflectivity metric. Thickness measurements were highly comparable when the data were analyzed in an identical manner. With optimal signal strength, the thickness of the 50 µm layer was overestimated by a mean of 4.3 µm in the log-scale images and of 2.7 µm in the linear-scale images.
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Projection-resolved optical coherence tomographic angiography
Miao Zhang, Thomas S. Hwang, J. Peter Campbell et al. · Biomedical Optics Express · 2016 · 334 citations · Full text
Health Professions, Biomedical Engineering, Ophthalmology +17
Microperimetric Assessment after Epiretinal Membrane Surgery: 4-Year Follow-Up
Marco Dal Vecchio, Carlo Lavia, Marco Nassisi et al. · Journal of Ophthalmology · 2016 · 220 citations · Full text
Medicine, Ophthalmology, Surgery +17