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ReeBundle: A Method for Topological Modeling of White Matter Pathways Using Diffusion MRI.

S Shailja, Vikram Bhagavatula, Matthew Cieslak

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    Summary
    This summary is machine-generated.

    ReeBundle, a novel Reeb graph method, captures white matter fiber topology and geometry for brain connectivity analysis. This approach enables robust fingerprinting of brain regions and aids in understanding neurological disorders.

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    Area of Science:

    • Neuroimaging
    • Computational Neuroscience
    • Medical Image Analysis

    Background:

    • Current white matter connectivity analysis lacks topological information, crucial for understanding neurological disorders.
    • Existing methods using adjacency matrices do not capture the intricate geometry and topology of neuronal fiber pathways.

    Purpose of the Study:

    • To introduce ReeBundle, a novel Reeb graph-based method for encoding white matter fiber topology and geometry.
    • To develop a new Reeb graph distance metric for automated quality control and bundle comparison.
    • To demonstrate ReeBundle's utility in analyzing complex white matter tracts and for clinical fingerprinting.

    Main Methods:

    • Rebundling streamlines by modeling spatial evolution to capture significant geometric events.
    • Utilizing Reeb graphs to encode fiber bundle topology and geometry.
    • Developing a Reeb graph-based distance metric for quantitative comparison.

    Main Results:

    • ReeBundle successfully handles complex white matter tract morphologies, including branching and ambiguities, as shown on the ISMRM dataset.
    • Longitudinal analysis of the CRASH dataset demonstrated that ReeBundle generates reproducible Reeb graphs for individual subjects, enabling distinct subject-specific fingerprinting.
    • The method effectively differentiates between subjects and captures topological changes over time.

    Conclusions:

    • ReeBundle offers an efficient method for encoding white matter fiber topology and geometry, surpassing traditional adjacency matrix approaches.
    • The Reeb graph-based distance metric facilitates automated quality control and comparison of white matter bundles.
    • ReeBundle shows significant potential for clinical applications, including the fingerprinting of brain regions and the study of neurological and developmental disorders.