NeuroMArVL: An interactive and collaborative web-based tool for visualizing brain networks

Abstract Brain connectivity data are high-dimensional and are often modeled as graphs comprising in the order of ∼102–104 nodes connected by around 103–106 edges. Generating useful visualizations is essential for reducing and understanding such complexity. Indeed, this complexity offers a particular challenge for transparent science, since investigators must often choose a specific snapshot of a visualization for publication that often overlooks much of the rich detail present in the data. A further challenge for neuroscience is that brains are physical systems, and it is often important to consider how topological properties of the connectome, which can be visualized within arbitrarily abstract spaces, relate to their physical embedding. Most available tools offer visualizations for physically or topologically embedded representations without a clear mapping between the two. Here, we introduce NeuroMArVL, a novel, open-source, web-based brain connectome visualization tool that offers numerous features for moving seamlessly between, and interacting with, different physical and topological representations of connectome data. Critically, visualization data and parameters can be saved locally or on the web server as shareable links, facilitating reuse, collaboration, and open, transparent reporting of results in publications. The software can be freely accessed at https://immersive.erc.monash.edu/neuromarvl/.

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Publication Details

Journal
Network Neuroscience
Published
2026-04-22
DOI
https://doi.org/10.1162/netn.a.569
Primary Topic
Functional Brain Connectivity Studies
Type
article
Field-Weighted Citation Impact
0.00

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article

NeuroMArVL: An interactive and collaborative web-based tool for visualizing brain networks

Christopher Adamson, Mehul Gajwani, Matthias Klapperstueck, Tim Dwyer et al.
Network Neuroscience
Functional Brain Connectivity Studies
article

NeuroMArVL: An interactive and collaborative web-based tool for visualizing brain networks

Christopher Adamson, Mehul Gajwani, Matthias Klapperstueck, Tim Dwyer, Alex Fornito, James Manley
article en

Abstract

Abstract Brain connectivity data are high-dimensional and are often modeled as graphs comprising in the order of ∼102–104 nodes connected by around 103–106 edges. Generating useful visualizations is essential for reducing and understanding such complexity. Indeed, this complexity offers a particular challenge for transparent science, since investigators must often choose a specific snapshot of a visualization for publication that often overlooks much of the rich detail present in the data. A further challenge for neuroscience is that brains are physical systems, and it is often important to consider how topological properties of the connectome, which can be visualized within arbitrarily abstract spaces, relate to their physical embedding. Most available tools offer visualizations for physically or topologically embedded representations without a clear mapping between the two. Here, we introduce NeuroMArVL, a novel, open-source, web-based brain connectome visualization tool that offers numerous features for moving seamlessly between, and interacting with, different physical and topological representations of connectome data. Critically, visualization data and parameters can be saved locally or on the web server as shareable links, facilitating reuse, collaboration, and open, transparent reporting of results in publications. The software can be freely accessed at https://immersive.erc.monash.edu/neuromarvl/.

Network Neuroscience
Monash Health (AU), Monash University (AU)
Sylvia and Charles Viertel Charitable Foundation, Australian Research Council, National Health and Medical Research Council
Openalex Percentile: Top 18%
Functional Brain Connectivity Studies
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