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UMMAN: Unsupervised Multi-Graph Merge Adversarial Network for Disease Prediction Based on Intestinal Flora
IEEE Transactions on Computational Biology and Bioinformatics
|August 14, 2025
Summary
Predicting diseases from gut microbes is challenging due to complex interactions. Our novel Unsupervised Multi-graph Merge Adversarial Network (UMMAN) effectively learns these associations for improved disease prediction.
Area of Science:
- Microbiology
- Computational Biology
- Bioinformatics
Background:
- Intestinal flora abundance correlates with human diseases, but diseases arise from complex microbial interplays, not single microbes.
- Predicting diseases from gut microbiome data is difficult due to the intricate and implicit associations among microbes across hosts.
- Existing prediction methods struggle to capture these complex microbial relationships, limiting their performance.
Purpose of the Study:
- To propose a novel architecture, Unsupervised Multi-graph Merge Adversarial Network (UMMAN), for unsupervised learning of multiplex and implicit associations among gut microbes.
- To enhance intestinal flora disease prediction by effectively learning inter-microbial associations from host data.
- To introduce a new approach combining Graph Neural Networks with gut microbiome disease prediction.
Main Methods:
- Developed UMMAN, an unsupervised architecture utilizing Graph Neural Networks to learn node embeddings from a Multi-Graph.
- Constructed an Original-Graph with multiple relation types and a Shuffled-Graph by node disruption.
- Introduced a Node Feature Global Integration (NFGI) module and a joint loss function (adversarial and hybrid attention loss) for graph embedding alignment.
Main Results:
- UMMAN successfully learns multiplex and implicit associations among gut microbes in an unsupervised manner.
- The method demonstrates effectiveness and stability across five benchmark OTU gut microbiome datasets.
- Achieved improved performance in intestinal flora disease prediction by capturing complex microbial interdependencies.
Conclusions:
- UMMAN represents a significant advancement in leveraging Graph Neural Networks for gut microbiome disease prediction.
- The proposed method effectively models complex microbial interactions, overcoming limitations of previous approaches.
- UMMAN offers a robust and stable solution for predicting diseases based on intestinal flora composition.

