Drew Scoles1, Brian P Higgins2, Robert F Cooper3, Adam M Dubis4, Phyllis Summerfelt2, David V Weinberg2, Judy E Kim2, Kimberly E Stepien2, Joseph Carroll5, Alfredo Dubra6. 1. Department of Biomedical Engineering, University of Rochester, Rochester, New York, United States. 2. Department of Ophthalmology, Medical College of Wisconsin, Milwaukee, Wisconsin, United States. 3. Department of Biomedical Engineering, Marquette University, Milwaukee, Wisconsin, United States. 4. Moorfields Eye Hospital, London, United Kingdom Institute of Ophthalmology, University College London, London, United Kingdom. 5. Department of Ophthalmology, Medical College of Wisconsin, Milwaukee, Wisconsin, United States Department of Biomedical Engineering, Marquette University, Milwaukee, Wisconsin, United States Department of Cell Biology, Neurobiology and Anatomy, Medical College of Wisconsin, Milwaukee, Wisconsin, United States Department of Biophysics, Medical College of Wisconsin, Milwaukee, Wisconsin, United States. 6. Department of Ophthalmology, Medical College of Wisconsin, Milwaukee, Wisconsin, United States Department of Biomedical Engineering, Marquette University, Milwaukee, Wisconsin, United States Department of Biophysics, Medical College of Wisconsin, Milwaukee, Wisconsin, United States.
Abstract
PURPOSE: We surveyed inner retinal microscopic features in retinal and neurologic disease using a reflectance confocal adaptive optics scanning light ophthalmoscope (AOSLO). METHODS: Inner retinal images from 101 subjects affected by one of 38 retinal or neurologic conditions and 11 subjects with no known eye disease were examined for the presence of hyper-reflective features other than vasculature, retinal nerve fiber layer, and foveal pit reflex. The hyper-reflective features in the AOSLO images were grouped based on size, location, and subjective texture. Clinical imaging, including optical coherence tomography (OCT), scanning laser ophthalmoscopy, and fundus photography was analyzed for comparison. RESULTS: Seven categories of hyper-reflective inner retinal structures were identified, namely punctate reflectivity, nummular (disc-shaped) reflectivity, granular membrane, waxy membrane, vessel-associated membrane, microcysts, and striate reflectivity. Punctate and nummular reflectivity also was found commonly in normal volunteers, but the features in the remaining five categories were found only in subjects with retinal or neurologic disease. Some of the features were found to change substantially between follow up imaging months apart. CONCLUSIONS: Confocal reflectance AOSLO imaging revealed a diverse spectrum of normal and pathologic hyper-reflective inner and epiretinal features, some of which were previously unreported. Notably, these features were not disease-specific, suggesting that they might correspond to common mechanisms of degeneration or repair in pathologic states. Although prospective studies with larger and better characterized populations, along with imaging of more extensive retinal areas are needed, the hyper-reflective structures reported here could be used as disease biomarkers, provided their specificity is studied further. Copyright 2014 The Association for Research in Vision and Ophthalmology, Inc.
PURPOSE: We surveyed inner retinal microscopic features in retinal and neurologic disease using a reflectance confocal adaptive optics scanning light ophthalmoscope (AOSLO). METHODS: Inner retinal images from 101 subjects affected by one of 38 retinal or neurologic conditions and 11 subjects with no known eye disease were examined for the presence of hyper-reflective features other than vasculature, retinal nerve fiber layer, and foveal pit reflex. The hyper-reflective features in the AOSLO images were grouped based on size, location, and subjective texture. Clinical imaging, including optical coherence tomography (OCT), scanning laser ophthalmoscopy, and fundus photography was analyzed for comparison. RESULTS: Seven categories of hyper-reflective inner retinal structures were identified, namely punctate reflectivity, nummular (disc-shaped) reflectivity, granular membrane, waxy membrane, vessel-associated membrane, microcysts, and striate reflectivity. Punctate and nummular reflectivity also was found commonly in normal volunteers, but the features in the remaining five categories were found only in subjects with retinal or neurologic disease. Some of the features were found to change substantially between follow up imaging months apart. CONCLUSIONS: Confocal reflectance AOSLO imaging revealed a diverse spectrum of normal and pathologic hyper-reflective inner and epiretinal features, some of which were previously unreported. Notably, these features were not disease-specific, suggesting that they might correspond to common mechanisms of degeneration or repair in pathologic states. Although prospective studies with larger and better characterized populations, along with imaging of more extensive retinal areas are needed, the hyper-reflective structures reported here could be used as disease biomarkers, provided their specificity is studied further. Copyright 2014 The Association for Research in Vision and Ophthalmology, Inc.
Authors: Stephen A Burns; Ann E Elsner; Toco Y Chui; Dean A Vannasdale; Christopher A Clark; Thomas J Gast; Victor E Malinovsky; Anh-Danh T Phan Journal: Biomed Opt Express Date: 2014-02-27 Impact factor: 3.732
Authors: Marloes C Burggraaff; Jennifer Trieu; Willemien A E J de Vries-Knoppert; Lisanne Balk; Axel Petzold Journal: Invest Ophthalmol Vis Sci Date: 2014-02-18 Impact factor: 4.799
Authors: David B Kay; Megan E Land; Robert F Cooper; Adam M Dubis; Pooja Godara; Alfredo Dubra; Joseph Carroll; Kimberly E Stepien Journal: JAMA Ophthalmol Date: 2013-09 Impact factor: 7.389
Authors: Monica F Chen; Toco Y P Chui; Paula Alhadeff; Richard B Rosen; Robert Ritch; Alfredo Dubra; Donald C Hood Journal: Invest Ophthalmol Vis Sci Date: 2015-01-08 Impact factor: 4.799
Authors: Donald C Hood; Brad Fortune; Maria A Mavrommatis; Juan Reynaud; Rithambara Ramachandran; Robert Ritch; Richard B Rosen; Hassan Muhammad; Alfredo Dubra; Toco Y P Chui Journal: Invest Ophthalmol Vis Sci Date: 2015-10 Impact factor: 4.799
Authors: Jie Zhang; Qiang Yang; Kenichi Saito; Koji Nozato; David R Williams; Ethan A Rossi Journal: Biomed Opt Express Date: 2015-05-18 Impact factor: 3.732
Authors: Justin V Migacz; Oscar Otero-Marquez; Rebecca Zhou; Kara Rickford; Brian Murillo; Davis B Zhou; Maria V Castanos; Nripun Sredar; Alfredo Dubra; Richard B Rosen; Toco Y P Chui Journal: Biomed Opt Express Date: 2022-03-01 Impact factor: 3.732
Authors: Jeffrey H Stern; Yangzi Tian; James Funderburgh; Graziella Pellegrini; Kang Zhang; Jeffrey L Goldberg; Robin R Ali; Michael Young; Yubing Xie; Sally Temple Journal: Cell Stem Cell Date: 2018-06-01 Impact factor: 24.633
Authors: Donald C Hood; Monica F Chen; Dongwon Lee; Benjamin Epstein; Paula Alhadeff; Richard B Rosen; Robert Ritch; Alfredo Dubra; Toco Y P Chui Journal: Transl Vis Sci Technol Date: 2015-04-10 Impact factor: 3.283
Authors: Heather Heitkotter; Rachel E Linderman; Jenna A Cava; Erica N Woertz; Rebecca R Mastey; Phyllis Summerfelt; Toco Y Chui; Richard B Rosen; Emily J Patterson; Ajoy Vincent; Joseph Carroll; Berge A Minassian Journal: Am J Ophthalmol Case Rep Date: 2021-06-15
Authors: Gala Beykin; Anthony M Norcia; Vivek J Srinivasan; Alfredo Dubra; Jeffrey L Goldberg Journal: Prog Retin Eye Res Date: 2020-07-10 Impact factor: 21.198