Research
Research Overview
The Yang Chao Lab develops computational and AI-driven approaches for small molecule drug discovery. Our research integrates computational chemistry, machine learning, structure-based molecular modeling, and ultra-large-scale virtual screening to accelerate the discovery of novel therapeutics.
We focus on developing next-generation computational methods that efficiently explore massive chemical spaces, improve protein–ligand interaction prediction, and enable rational drug design for challenging biological targets.
Current Research Projects
Project 1: AI-Accelerated Ultra-Large Virtual Screening
Overview: We are developing AI-assisted virtual screening methods capable of efficiently screening billions to trillions of compounds from make-on-demand chemical libraries. Our work combines machine learning, docking, and combinatorial chemical space exploration to identify novel small molecule ligands with improved speed and accuracy.
Key Questions:
- How can machine learning improve large-scale docking efficiency and hit enrichment?
- How can combinatorial chemical libraries be explored without explicit full enumeration?
- How can AI models prioritize synthetically accessible and target-specific compounds?
Project 2: Structure-Based Drug Design and Scoring Function Development
Overview: Our lab develops advanced protein–ligand scoring functions and docking methodologies for structure-based inhibitor discovery. We combine empirical modeling, machine learning, and molecular simulations to improve binding affinity prediction and ligand ranking.
Methodology:
- Molecular docking and rescoring
- Machine learning-based scoring functions
- Molecular dynamics simulations
- Free energy estimation
- Structure-guided ligand optimization
Publications: See our Publications page
Research Facilities
Our lab is equipped with:
- High-performance computing (HPC) resources for molecular simulations and virtual screening
- GPU-accelerated machine learning infrastructure
- Computational chemistry software for docking, molecular dynamics, and cheminformatics analysis
Funding
Our research is supported by:
- Shenzhen University of Advanced Technology (SUAT)
- Collaborative academic and industry partnerships