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Toward a scalable framework for reproducible processing of volumetric, nanoscale neuroimaging datasets
Author(s) -
Erik C. Johnson,
Miller Wilt,
Luis M. Rodríguez,
Raphael Norman-Tenazas,
Corban G. Rivera,
Nathan Drenkow,
Dean M. Kleissas,
Theodore J. LaGrow,
Hannah Cowley,
Joseph Downs,
Jordan Matelsky,
Marisa Hughes,
Elizabeth P. Reilly,
Brock A. Wester,
Eva L. Dyer,
Konrad P. Körding,
William R. Gray-Roncal
Publication year - 2020
Publication title -
gigascience
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 2.947
H-Index - 54
ISSN - 2047-217X
DOI - 10.1093/gigascience/giaa147
Subject(s) - neuroimaging , computer science , workflow , scalability , data science , neuroinformatics , connectomics , petabyte , artificial intelligence , connectome , data mining , big data , neuroscience , database , functional connectivity , biology
Emerging neuroimaging datasets (collected with imaging techniques such as electron microscopy, optical microscopy, or X-ray microtomography) describe the location and properties of neurons and their connections at unprecedented scale, promising new ways of understanding the brain. These modern imaging techniques used to interrogate the brain can quickly accumulate gigabytes to petabytes of structural brain imaging data. Unfortunately, many neuroscience laboratories lack the computational resources to work with datasets of this size: computer vision tools are often not portable or scalable, and there is considerable difficulty in reproducing results or extending methods.

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