Applications of deep learning in electron microscopy

We review the growing use of machine learning in electron microscopy (EM) driven in part by the availability of fast detectors operating at kiloHertz frame rates leading to large data sets that cannot be processed using manually implemented algorithms. We summarize the various network architectures...

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Bibliografische gegevens
Hoofdauteurs: Treder, KP, Huang, C, Kim, JS, Kirkland, AI
Formaat: Journal article
Taal:English
Gepubliceerd in: Oxford University Press 2022
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author Treder, KP
Huang, C
Kim, JS
Kirkland, AI
author_facet Treder, KP
Huang, C
Kim, JS
Kirkland, AI
author_sort Treder, KP
collection OXFORD
description We review the growing use of machine learning in electron microscopy (EM) driven in part by the availability of fast detectors operating at kiloHertz frame rates leading to large data sets that cannot be processed using manually implemented algorithms. We summarize the various network architectures and error metrics that have been applied to a range of EM-related problems including denoising and inpainting. We then provide a review of the application of these in both physical and life sciences, highlighting how conventional networks and training data have been specifically modified for EM.
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spelling oxford-uuid:17cef660-8b5e-4341-84a2-4b21399540262023-02-20T14:26:04ZApplications of deep learning in electron microscopyJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:17cef660-8b5e-4341-84a2-4b2139954026EnglishSymplectic ElementsOxford University Press2022Treder, KPHuang, CKim, JSKirkland, AIWe review the growing use of machine learning in electron microscopy (EM) driven in part by the availability of fast detectors operating at kiloHertz frame rates leading to large data sets that cannot be processed using manually implemented algorithms. We summarize the various network architectures and error metrics that have been applied to a range of EM-related problems including denoising and inpainting. We then provide a review of the application of these in both physical and life sciences, highlighting how conventional networks and training data have been specifically modified for EM.
spellingShingle Treder, KP
Huang, C
Kim, JS
Kirkland, AI
Applications of deep learning in electron microscopy
title Applications of deep learning in electron microscopy
title_full Applications of deep learning in electron microscopy
title_fullStr Applications of deep learning in electron microscopy
title_full_unstemmed Applications of deep learning in electron microscopy
title_short Applications of deep learning in electron microscopy
title_sort applications of deep learning in electron microscopy
work_keys_str_mv AT trederkp applicationsofdeeplearninginelectronmicroscopy
AT huangc applicationsofdeeplearninginelectronmicroscopy
AT kimjs applicationsofdeeplearninginelectronmicroscopy
AT kirklandai applicationsofdeeplearninginelectronmicroscopy