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# Detailed Research Information | |
## PhD Research: Deep Learning Based Prognosis and Explainability for Breast Cancer | |
### Research Objectives | |
1. Develop novel deep learning architectures for breast cancer survival prediction | |
2. Create explainable AI models that clinicians can trust and understand | |
3. Integrate multimodal data (histopathology images, genomics, clinical data) | |
4. Build treatment recommendation systems based on patient-specific factors | |
### Key Innovations | |
- **BioFusionNet**: A multimodal fusion network that combines histopathology images with genomic and clinical data for survival risk stratification | |
- **hist2RNA**: An efficient architecture that predicts gene expression directly from histopathology images | |
- **AFExNet**: An adversarial autoencoder for cancer subtype classification and biomarker discovery | |
### Technical Approach | |
- Utilizes attention mechanisms for interpretability | |
- Employs transfer learning from pre-trained vision models | |
- Implements novel fusion strategies for multimodal data | |
- Uses adversarial training for robust feature learning | |
### Clinical Impact | |
The research aims to provide clinicians with: | |
- More accurate prognosis predictions | |
- Personalized treatment recommendations | |
- Explainable AI decisions for clinical trust | |
- Cost-effective diagnostic tools | |
## Current Projects | |
### Large Language Models for Healthcare | |
- Fine-tuning LLMs for medical text analysis | |
- Developing RAG systems for clinical decision support | |
- Creating conversational AI for patient education | |
### Multimodal AI Systems | |
- Vision-language models for medical imaging | |
- Cross-modal retrieval systems | |
- Multimodal fusion architectures | |
### Explainable AI | |
- Attention visualization techniques | |
- Counterfactual explanations | |
- Feature importance analysis | |
- Clinical decision support systems |