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April 18, 2026Bioinformatics Advances2 citationsOpen Access

A review of multi-omics integration techniques across five machine learning method families

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AOAdedayo OlowolayemoASAmina SouagKSKonstantinos Sirlantzis

Key Points

  • This review examines the effectiveness of multi-omics integration methods in cancer studies and their reliance on design choices.
  • Conducted a PRISMA-guided review of 30 studies from 2020 to 2025.
  • Analyzed the prevalence of different machine learning method families used for integration.
  • Assessed the implications of fusion timing and missing data handling on results.
  • Graph-based and hybrid pipelines were the most common integration techniques identified.
  • Deep learning methods were utilized in a variety of fusion stages.
  • Early-intermediate fusion techniques stabilize high-dimensional inputs but are affected by modality imbalance.

Abstract

Abstract Motivation Multi-omics integration methods are now common in cancer studies, but results remain sensitive to design choices, including when fusion occurs, what is fused, and how missingness is handled. As a result, it is difficult to compare studies and determine which integration choices are most reliable for cross-cohort cancer analyses. Results From a PRISMA-guided review of 30 studies (2020–2025), we find that graph-based or hybrid pipelines dominate, with deep learning as the next most common family, and survival prediction as the main use case. Method families tend to align with the task and time of fusion; graph-hybrid approaches favour early- to intermediate-stage fusion, while deep learning spans the three stages of fusion. Across studies, three recurring trade-offs emerge: early-intermediate fusion can stabilize high-dimensional inputs but is sensitive to modality imbalance; shared latent-space designs better preserve partially observed samples; and late fusion supports more stable subtype structure but makes feature attribution less direct. The main message is that integration works best when fusion choices match the data’s noise, sparsity, and missingness, and when interpretability is built into the architecture rather than added later.

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Cite This Study

Olowolayemo et al. (2026) studied this question.

synapsesocial.com/papers/69e3213840886becb6540609https://doi.org/10.1093/bioadv/vbag108
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