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AI & Computational Methods

AI & Computational Methods

Developing advanced AI and machine learning methods to solve complex genomics and systems biology problems.

AI & Computational Methods

Our lab develops cutting-edge AI and machine learning methods specifically designed to solve challenging problems in genomics and systems biology. We create innovative algorithms that can extract meaningful biological insights from complex, high-dimensional genomic data, enabling discoveries that would be impossible through traditional approaches.

Key Research Areas

Machine Learning & Deep Learning

  • Graph Neural Networks: Developing specialized architectures for modeling molecular interactions and biological networks
  • Transfer Learning: Adapting pre-trained models for biomedical applications with limited labeled data
  • Representation Learning: Creating informative embeddings for genes, variants, and biological entities
  • Interpretable AI: Building transparent models that provide biological insights alongside predictions

Statistical Methods

  • Graphical Models: Employing Bayesian networks and probabilistic graphical models for modeling regulatory relationships
  • High-Dimensional Statistics: Developing methods for analyzing genomic data with thousands of variables
  • Causal Inference: Inferring causal relationships from observational biological data
  • Regularization Methods: Implementing sparse learning techniques (Lasso, elastic net) for feature selection in genomic studies

Data Integration

  • Multi-Omics Integration: Combining genomics, transcriptomics, proteomics, and other data types
  • Knowledge Graph Construction: Building comprehensive biological knowledge bases
  • Cross-Species Analysis: Leveraging model organism data to understand human biology
  • Heterogeneous Data Fusion: Integrating structured databases with unstructured literature

Methodological Innovations

Signal Pathway Activity Prediction

Quantitative approaches for inferring signaling pathway activity from genome-wide expression data, enabling systems-level understanding of cellular responses.

Network-Based Methods

Leveraging biological network topology to prioritize disease genes, predict gene function, and identify therapeutic targets.

Dimensionality Reduction

Advanced techniques for visualizing and analyzing high-dimensional single-cell data while preserving biological structure.

Open-Source Tools & Software

We are committed to making our methods accessible to the broader research community through well-documented, user-friendly software packages. Our tools are designed with both computational biologists and wet-lab researchers in mind.

Collaborative Research

Our computational methods are developed in close collaboration with experimental biologists and clinicians, ensuring that our approaches address real-world biological questions and can be validated experimentally.