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A Survey on Graph Construction for Geometric Deep Learning in Medicine: Methods and Recommendations

  • Tamara T. Mueller
  • , Sophie Starck
  • , Alina Dima
  • , Stephan Wunderlich
  • , Kyriaki Margarita Bintsi
  • , Kamilia Zaripova
  • , Rickmer Braren
  • , Daniel Rueckert
  • , Anees Kazi
  • , Georgios Kaissis
  • Technical University of Munich
  • Ludwig-Maximilians-Universität München
  • Imperial College London
  • Harvard Medical School
  • Helmholtz Munich

Research output: Contribution to journalArticlepeer-review

5 Scopus citations

Abstract

Graph neural networks are powerful tools that enable deep learning on non-Euclidean data structures like graphs, point clouds, and meshes. They leverage the connectivity of data points and can even benefit learning tasks on data, which is not naturally graph-structured –like point clouds. In these cases, the graph structure needs to be determined from the dataset, which adds a significant challenge to the learning process. This opens up a multi-tude of design choices for creating suitable graph structures, which have a substantial impact on the success of the graph learning task. However, so far no concrete guidance for choosing the most appropriate graph construction is available, not only due to the large variety of methods out there but also because of its strong connection to the dataset at hand. In medicine, for example, a large variety of different data types complicates the selection of graph construction methods even more. We therefore summarise the current state-of-the-art graph construction methods, especially for medical data. In this work, we introduce a cat-egorisation scheme for graph types and graph construction methods. We identify two main strands of graph construction: static and adaptive methods, discuss their advantages and disadvantages, and formulate recommendations for choosing a suitable graph construction method. We furthermore discuss how a created graph structure can be assessed and to what degree it supports graph learning. We hope to support medical research with graph deep learning with this work by elucidating the wide variety of graph construction methods.

Original languageEnglish
JournalTransactions on Machine Learning Research
Volume2024
StatePublished - 2024

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