bioRxivCancer BiologyPreprint
TEIP: A Compact, Open-Source Framework for Predicting Tumor Epitope Immunogenicity in Glioblastoma Cancer Using Deep Learning and Multi-Modal Biological Features
Abstract
This work introduces a modular, open-source computational pipeline for glioblastoma (GBM) vaccine design that integrates omics-based OIP5 target discovery with a deep learning framework for epitope immunogenicity prediction. Building upon conventional affinity-based predictors such as NetMHCpan, our Tumor Epitope Immunogenicity Pipeline (TEIP) incorporates biological, structural, and transcriptomic context to predict tumor-specific T-cell responses. Using curated immunogenic and non-immunogenic peptides from IEDB and GBM datasets, TEIP employs dual bidirectional LSTM encoders to represent peptide and HLA sequences, concatenated with auxiliary molecular features including proteasomal cleavage, TAP transport likelihood, gene expression, and mutation frequency. These features are fused into a probabilistic model that outputs peptide-specific immunogenicity scores and confidence estimates. Benchmark results across multiple HLA alleles demonstrate that TEIP outperforms NetMHCpan and MARIA, achieving an ROC-AUC of 0.89 and PR-AUC of 0.35. Feature importance analysis confirms that tumor-specific expression and peptide-MHC binding dominate predictive accuracy, validating the biological realism of the model. By combining mechanistic features with data-driven representation learning, TEIP enables fine-grained prioritization of neoantigens with translational potential. In proof-of-concept GBM studies, TEIP recovered known cancer-testis antigens such as OIP5, demonstrating its ability to identify clinically relevant vaccine targets. The pipeline is implemented using entirely open-access data and software to promote reproducibility and scalability. Collectively, TEIP provides a unified framework that connects multi-omics tumor characterization with deep learning-based antigen modeling, establishing a foundation for precision immunotherapy development in glioblastoma and beyond.
- organism: human
- assay: bulk RNA-seq
- assay: proteomics
- research focus: drug response / drug discovery
- approach: deep learning
- Citations
- 1
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- A Computational Pipeline for Glioblastoma Vaccine Development: Integrating Novel Omics-Driven OIP5 Target Discovery to Create a Deep Learning-Based Immunogenicity Framework for Personalized Immunotherapy
Rahul Mahapatra, Anish Sundar, Aarsh Shekhar·bioRxiv·Dec 25, 2025
- AI/ML-Assisted Computational Design and Immunoinformatics Evaluation of a Multi-Epitope Vaccine Targeting Podoplanin in Glioblastoma Multiforme
Gopika Anilkumar, Ranbir Singh Saluja, … Prashant S. Kharkar·bioRxiv·Feb 19, 2026
- A Multi-Modal Deep Learning Framework with Both Sequence and Structure for Tumor Antigens Prediction
Ruofan Jin, Jingxuan Ge, … Ruhong Zhou·bioRxiv·Nov 6, 2024
- A robust deep learning platform to predict CD8+ T-cell epitopes
Chloe Hyun-Jung Lee, Jaesung Huh, … Hashem Koohy·bioRxiv·Dec 29, 2022
- A Domain-Specific Language Model Approach for Identifying Immunogenic Epitopes from Publicly Available Data: EpitopeMiner
Wei Kit Tan, Wei Tang, … Mai Chan Lau·bioRxiv·Jan 21, 2025
- VaxOptiML: Leveraging Machine Learning for Accurate Prediction of MHC-I & II Epitopes for Optimized Cancer Immunotherapy
T Dhanushkumar, B G Sunila, … Karthick Vasudevan·ImmunogeneticsPeer-reviewed·Dec 7, 2024