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Multi-omics driven computational framework for cancer molecular subtype classification
Ahtisham Fazeel Abbasi1,2, Muhammad Sajjad3,4, Muhammad Nabeel Asim5,6
1Department of Computer Science, Rhineland Palatinate Technical University of Kaiserslautern-Landau (RPTU), Kaiserslautern, 67663, Rhineland-Palatinate, Germany. ahtisham.abbasi@dfki.de.
This study compared 35 AI classifiers across 153 cancer datasets. Deep learning models performed best on large datasets, advancing AI for cancer molecular subtype classification and precision oncology.
Area of Science:
- Computational biology
- Bioinformatics
- Precision oncology
Background:
- AI is crucial for cancer molecular subtype classification, guiding prognosis and targeted therapies.
- Current AI applications face challenges due to non-standardized datasets, diverse omics data, and inconsistent evaluation metrics.
- These limitations hinder AI classifier comparability, reproducibility, and generalizability.
Purpose of the Study:
- To conduct a comprehensive comparative analysis of 35 AI classifiers across 153 datasets.
- To investigate the impact of different omics modalities and dataset configurations on AI performance.
- To identify optimal AI models and data types for robust cancer molecular subtype classification.
Main Methods:
- Comparative analysis of 35 AI classifiers on 153 datasets covering 8 omics modalities and 20 cancer types.
- Evaluation of classifier performance based on macro-accuracy (MACC) and other metrics.
- Investigation of 6 research questions regarding data configurations, omics modalities, and model types (ML vs. DL).
Main Results:
- RPPA, Gistic2-all-data-by-genes (CNV), HM27 (Meth), and HiSeqV2-exon (Exon) configurations showed better performance.
- RNASeq, miRNA, CNV, and Exon modalities generally achieved higher MACC than Meth., Array, SNP, and RPPA.
- Traditional machine learning (ML) models excelled on small datasets, while deep learning (DL) models performed better on large, high-dimensional datasets.
- SVM achieved the highest mean MACC, with NN, ResNet18, DEEPGENE, and MLP also showing strong results.
- DL classifiers outperformed ML classifiers in 12 out of 20 cancers.
Conclusions:
- Specific data configurations and omics modalities are superior for AI-based cancer classification.
- The choice between ML and DL models depends on dataset size and dimensionality.
- Findings provide insights for developing standardized, reproducible, and efficient AI pipelines for precision oncology.
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