Embedded deep learning in ophthalmology: making ophthalmic imaging smarter

Deep learning has recently gained high interest in ophthalmology due to its ability to detect clinically significant features for diagnosis and prognosis. Despite these significant advances, little is known about the ability of various deep learning systems to be embedded within ophthalmic imaging d...

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Main Authors: Petteri Teikari, Raymond P. Najjar, Leopold Schmetterer, Dan Milea
Format: Article
Language:English
Published: SAGE Publishing 2019-03-01
Series:Therapeutic Advances in Ophthalmology
Online Access:https://doi.org/10.1177/2515841419827172
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spelling doaj-25a4b99a2c764aee9530020ce216ad182020-11-25T04:01:30ZengSAGE PublishingTherapeutic Advances in Ophthalmology2515-84142019-03-011110.1177/2515841419827172Embedded deep learning in ophthalmology: making ophthalmic imaging smarterPetteri TeikariRaymond P. NajjarLeopold SchmettererDan MileaDeep learning has recently gained high interest in ophthalmology due to its ability to detect clinically significant features for diagnosis and prognosis. Despite these significant advances, little is known about the ability of various deep learning systems to be embedded within ophthalmic imaging devices, allowing automated image acquisition. In this work, we will review the existing and future directions for ‘active acquisition’–embedded deep learning, leading to as high-quality images with little intervention by the human operator. In clinical practice, the improved image quality should translate into more robust deep learning–based clinical diagnostics. Embedded deep learning will be enabled by the constantly improving hardware performance with low cost. We will briefly review possible computation methods in larger clinical systems. Briefly, they can be included in a three-layer framework composed of edge, fog, and cloud layers, the former being performed at a device level. Improved egde-layer performance via ‘active acquisition’ serves as an automatic data curation operator translating to better quality data in electronic health records, as well as on the cloud layer, for improved deep learning–based clinical data mining.https://doi.org/10.1177/2515841419827172
collection DOAJ
language English
format Article
sources DOAJ
author Petteri Teikari
Raymond P. Najjar
Leopold Schmetterer
Dan Milea
spellingShingle Petteri Teikari
Raymond P. Najjar
Leopold Schmetterer
Dan Milea
Embedded deep learning in ophthalmology: making ophthalmic imaging smarter
Therapeutic Advances in Ophthalmology
author_facet Petteri Teikari
Raymond P. Najjar
Leopold Schmetterer
Dan Milea
author_sort Petteri Teikari
title Embedded deep learning in ophthalmology: making ophthalmic imaging smarter
title_short Embedded deep learning in ophthalmology: making ophthalmic imaging smarter
title_full Embedded deep learning in ophthalmology: making ophthalmic imaging smarter
title_fullStr Embedded deep learning in ophthalmology: making ophthalmic imaging smarter
title_full_unstemmed Embedded deep learning in ophthalmology: making ophthalmic imaging smarter
title_sort embedded deep learning in ophthalmology: making ophthalmic imaging smarter
publisher SAGE Publishing
series Therapeutic Advances in Ophthalmology
issn 2515-8414
publishDate 2019-03-01
description Deep learning has recently gained high interest in ophthalmology due to its ability to detect clinically significant features for diagnosis and prognosis. Despite these significant advances, little is known about the ability of various deep learning systems to be embedded within ophthalmic imaging devices, allowing automated image acquisition. In this work, we will review the existing and future directions for ‘active acquisition’–embedded deep learning, leading to as high-quality images with little intervention by the human operator. In clinical practice, the improved image quality should translate into more robust deep learning–based clinical diagnostics. Embedded deep learning will be enabled by the constantly improving hardware performance with low cost. We will briefly review possible computation methods in larger clinical systems. Briefly, they can be included in a three-layer framework composed of edge, fog, and cloud layers, the former being performed at a device level. Improved egde-layer performance via ‘active acquisition’ serves as an automatic data curation operator translating to better quality data in electronic health records, as well as on the cloud layer, for improved deep learning–based clinical data mining.
url https://doi.org/10.1177/2515841419827172
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