Exploring neurodevelopment via spatiotemporal collation of anatomical networks with NeuroSC

Volume electron microscopy (vEM) datasets such as those generated for connectome studies allow nanoscale quantifications and comparisons of the cell biological features underpinning circuit architectures. Quantifying cell biological relationships in the connectome yields rich, multidimensional datasets that benefit from data science approaches, including dimensionality reduction and integrated graphical representations of neuronal relationships. We developed NeuroSC ( also known as NeuroSCAN, https://neurosc.net/ ) an open source online platform that bridges sophisticated graph analytics from data science approaches with the underlying cell biological features in the connectome. We analyze a series of published C. elegans brain neuropils and demonstrate how these integrated representations of neuronal relationships facilitate comparisons across connectomes, catalyzing new insights into the structure-function relationships of the circuits and their changes during development. NeuroSC is designed for intuitive examination and comparisons across connectomes, enabling synthesis of knowledge from high-level abstractions of neuronal relationships derived from data science techniques to the detailed identification of the cell biological features underpinning these abstractions.

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Publication Details

Journal
eLife
Published
2025-10-21
DOI
https://doi.org/10.7554/elife.103977.3
Primary Topic
Cell Image Analysis Techniques
Type
article
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article

Exploring neurodevelopment via spatiotemporal collation of anatomical networks with NeuroSC

William A. Mohler, John D. Emerson, Sarah E. Emerson, Manik Kuchroo et al.
eLife
Cell Image Analysis Techniques
article

Exploring neurodevelopment via spatiotemporal collation of anatomical networks with NeuroSC

William A. Mohler, John D. Emerson, Sarah E. Emerson, Manik Kuchroo, Smita Krishnaswamy, Dhananjay Bhaskar, Mark W. Moyle, Daniel A. Colón‐Ramos, Nabor Vázquez-Martínez, Pura Arroyo-Morales, Noelle L Koonce
article en

Abstract

Volume electron microscopy (vEM) datasets such as those generated for connectome studies allow nanoscale quantifications and comparisons of the cell biological features underpinning circuit architectures. Quantifying cell biological relationships in the connectome yields rich, multidimensional datasets that benefit from data science approaches, including dimensionality reduction and integrated graphical representations of neuronal relationships. We developed NeuroSC ( also known as NeuroSCAN, https://neurosc.net/ ) an open source online platform that bridges sophisticated graph analytics from data science approaches with the underlying cell biological features in the connectome. We analyze a series of published C. elegans brain neuropils and demonstrate how these integrated representations of neuronal relationships facilitate comparisons across connectomes, catalyzing new insights into the structure-function relationships of the circuits and their changes during development. NeuroSC is designed for intuitive examination and comparisons across connectomes, enabling synthesis of knowledge from high-level abstractions of neuronal relationships derived from data science techniques to the detailed identification of the cell biological features underpinning these abstractions.

eLifeVol. 13
Marine Biological Laboratory (US), University of Puerto Rico System (PR), Yale University (US), Applied Mathematics (United States) (US), Institut für Bauwerkserhaltung und Sanierung (Germany) (DE), Brigham Young University - Idaho (US), UConn Health (US)
Openalex Percentile: Top 79%
Cell Image Analysis Techniques
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