I am a Ph.D. student at Fudan University, advised by Prof. Siyu Zhu.
My research focuses on generative models for protein dynamics and 3D generation.
I study how these models can capture protein conformational changes over time,
drawing on molecular dynamics simulations and physical properties.
Research Interests
Generative Models for Protein Dynamics
3D Generation
Honors
NeurIPS 2026 Top Reviewer
Projects & Publications
Protein Dynamics
Learning Implicit Bias in Generative Spaces for Accelerating Protein Dynamics Emulation
Description: A history-dependent bias guides a frozen protein dynamics emulator toward underexplored conformations. Paired with score-based refinement, it accelerates exploration while preserving structural validity during long-horizon rollouts.
AlphaFolding: 4D Diffusion for Dynamic Protein Structure Prediction with Reference and Motion Guidance
Authors:Kaihui Cheng, Ce Liu, Qingkun Su, Jun Wang, Liwei Zhang, Yining Tang, Yao Yao, Siyu Zhu†, Yuan Qi†
Venue:AAAI 2025
Description: AlphaFolding jointly models protein backbones and side chains across multiple time steps. Trained on molecular dynamics trajectories, it combines reference-structure guidance with motion alignment to improve structural consistency and temporal coherence.
Dynamic PDB: A New Dataset and a SE(3) Model Extension by Integrating Dynamic Behaviors and Physical Properties in Protein Structures
Authors: Ce Liu, Jun Wang, Zhiqiang Cai, Yingxu Wang, Huizhen Kuang, Kaihui Cheng, Liwei Zhang, Qingkun Su, Yining Tang, Fenglei Cao, Limei Han, Siyu Zhu, Yuan Qi
Status:Preprint, 2024
Description: Dynamic PDB contains approximately 12,600 proteins, each with a one-microsecond all-atom molecular dynamics simulation. It includes atomic velocities and forces, potential and kinetic energies, and temperature recorded at one-picosecond intervals. An accompanying SE(3) diffusion model incorporates these physical properties for protein trajectory prediction.
Description: CrossTVR refines text-video retrieval results with multi-grained cross attention. Frame- and video-level token selectors identify salient visual information, while a frozen vision backbone reduces training overhead. The approach improves retrieval performance and scales to larger pretrained vision models.