I am a core maintainer of vLLM-Omni and AFD Plugin and a member of the vLLM Project team. My current work focuses on efficient inference for omni-modality models and attention–FFN disaggregation.
Across these projects, I work on scalable serving systems, distributed inference, performance optimization, and open-source engineering that turns research models into practical deployments.
My AI4Science work includes maintaining MindScience, Huawei's scientific computing platform with 6 specialized suites and 60+ AI models. This research applies machine learning to complex scientific problems.
My research spans computational fluid dynamics, spatiotemporal modeling, physics-informed neural networks, and physics-encoded machine learning, with publications across leading AI and scientific computing venues.
Huawei 2012 Lab • Present
1. Core maintainer of vLLM-Omni and AFD Plugin, and a member of the vLLM Project team.
2. Develop high-performance infrastructure for multimodal model inference, distributed serving, and open-source AI systems.
3. Maintainer of MindSpore Science with a research background in AI4Science and scientific computing.
University of North Carolina at Chapel Hill • 2015-2020
Doctoral research in Statistics and Operations Research, focusing on optimization theory and computational methods. Developed expertise in convergence analysis for decomposition algorithms and large-scale optimization problems.
School for the Gifted Young, USTC • 2011-2015
Undergraduate education in Mathematical Statistics at the prestigious School for the Gifted Young at the University of Science and Technology of China, providing accelerated academic training and comprehensive foundation in mathematical theory, statistical methods, and quantitative analysis.
Showcasing cutting-edge research in AI4Science and ML optimization
KDD 2025
KDD 2025
ICLR 2025
Leading initiatives in AI4Science and ML infrastructure
Lead maintainer of Huawei's flagship AI4Science platform with 6 specialized suites and 60+ AI models.
Specialized research in large language model serving optimization with vLLM and vLLM-Ascend systems.
Computational fluid dynamics solver with physics-informed AI and differentiable programming.