Research Focus

From Prediction to Partnership

Building data-efficient, explainable, contestable, and self-evolving AI for clinical decision-making.

Clinical AI begins with a practical constraint: reliable ground truth is scarce and expensive. Every segmentation mask, diagnostic label, or expert judgment requires limited specialist time. This makes it essential to build models that can learn reliably from limited, weak, and imperfect supervision. But predictive performance alone is not enough in high-stakes clinical settings. Clinicians also need to understand what evidence supports a model's decision and where that decision may fail.

Explanation, however, is only the beginning. A clinician should be able to question, challenge, and correct an AI system, rather than simply accept or reject a one-way prediction. This turns explainability into contestability, where human expertise can directly intervene in the decision process and the AI can revise, defer, or acknowledge competing evidence.

The final step is to make those interactions persist. Clinical knowledge changes, patient populations shift, and new failure cases continually emerge. Expert corrections should therefore do more than resolve a single decision: they should become feedback that improves future behavior. My research follows this progression, from data-efficient learning, to explainable and contestable decision-making, and ultimately to self-evolving AI systems that improve through structured human feedback.

Phase 01 · Foundation

Data-Efficient & Explainable AI

Learning reliably when expert supervision is scarce, while making the evidence behind model predictions accessible to humans.

  • Semi-supervised learning
  • Weakly-supervised learning
  • Domain adaptation
  • Multimodal fusion
  • Class-imbalanced learning
  • Saliency maps
  • Counterfactual explanations

“Learn more from less, while making the evidence visible.”

Phase 02 · The Bridge

Contestable AI

Moving from explanation to interaction: AI systems that can justify their decisions, respond to challenges, and revise or defer when human expertise provides stronger evidence.

  • Interactive Medical Image Analysis
  • Clinician-in-the-Loop AI
  • Uncertainty-Aware Decision Support
  • Human–AI Disagreement Resolution
  • Contestability

 

Phase 03 · Evolution

Self-Evolving AI Systems

Turning human feedback into persistent improvement, so that corrections made during interaction can shape how the system reasons and behaves in the future.

  • Continual learning
  • Reinforcement learning
  • Active learning
  • Self-evolving pipelines

“From individual corrections to systems that continually improve through expert feedback.”

Explore Selected Publications