Edges in Brain Networks: Contributions to Models of Structure and Function
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Abstract (arXiv)
Network models describe the brain as sets of nodes and edges that represent its distributed organization. So far, most discoveries in network neuroscience have prioritized insights that highlight distinct groupings and specialized functional contributions of network nodes. Importantly, these functional contributions are determined and expressed by the web of their interrelationships, formed by network edges. Here, we underscore the important contributions made by brain network edges for understanding distributed brain organization. Different types of edges represent different types of relationships, including connectivity and similarity among nodes. Adopting a specific definition of edges can fundamentally alter how we analyze and interpret a brain network. Furthermore, edges can associate into collectives and higher-order arrangements, describe time series, and form edge communities that provide insights into brain network topology complementary to the traditional node-centric perspective. Focusing on the edges, and the higher-order or dynamic information they can provide, discloses previously underappreciated aspects of structural and functional network organization.
Key facts. Cited by 9 papers in the map (data through 14 Oct 2026). First posted on arXiv 14 May 2021.
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Citing papers per year: 2022: 2; 2023: 3; 2024: 2; 2025: 2.
9 papers.
- 2022BrainGB: A Benchmark for Brain Network Analysis with Graph Neural Networkscited by 75
- 2023Hodge-Compositional Edge Gaussian Processescited by 16
- 2024BrainODE: Dynamic Brain Signal Analysis via Graph-Aided Neural Ordinary Differential Equationscited by 12
- 2023Dirac signal processing of higher-order topological signalscited by 9
- 2023Disentangling the Spectral Properties of the Hodge Laplacian: Not All Small Eigenvalues Are Equalcited by 5
- 2025Topological Schr"odinger Bridge Matchingcited by 4
- 2022High-Accuracy Machine Learning Techniques for Functional Connectome Fingerprinting and Cognitive State Decodingcited by 1
- 2024Dirac-Equation Signal Processing: Physics Boosts Topological Machine Learningcited by 1
- 2025Beyond holography: the entropic quantum gravity foundations of image processingcited by 0
- 2025Topological Schr"odinger Bridge Matching7 Apr 2025
- 2025Beyond holography: the entropic quantum gravity foundations of image processing18 Mar 2025
- 2024Dirac-Equation Signal Processing: Physics Boosts Topological Machine Learning6 Dec 2024
- 2024BrainODE: Dynamic Brain Signal Analysis via Graph-Aided Neural Ordinary Differential Equations30 Apr 2024
- 2023Disentangling the Spectral Properties of the Hodge Laplacian: Not All Small Eigenvalues Are Equal24 Nov 2023
- 2023Hodge-Compositional Edge Gaussian Processes30 Oct 2023
- 2023Dirac signal processing of higher-order topological signals12 Jan 2023
- 2022High-Accuracy Machine Learning Techniques for Functional Connectome Fingerprinting and Cognitive State Decoding14 Nov 2022
- 2022BrainGB: A Benchmark for Brain Network Analysis with Graph Neural Networks17 Mar 2022