Baidu
ACG · Baige AI Team / 百舸
AI Infrastructure · Talent program
Worked on improving the performance of LLM inference systems.
Fifth-year Ph.D. student · Fudan University
I am a fifth-year Ph.D. student at the School of Microelectronics, Fudan University, advised by Prof. Fan Yang. I expect to graduate in 2027. I received my B.E. from Wuhan University in 2022.
My goal is to build efficient and elegant LLM inference systems. My recent work focuses on improving inference performance through advances in frameworks and algorithms, making LLMs more efficient to deploy and serve. I also have hands-on experience optimizing GPU kernels.
My earlier research focused on computer architecture and chip design, including hardware–software co-design and accelerators for AI and privacy-preserving computing. This background gives me a cross-layer perspective on system optimization: it helps me understand how decisions at the framework level affect memory access, the balance between computation and communication, and contention for hardware resources.
I am also interested in AI agents, especially their use in chip design. I would like to explore how agents can help engineers work through complex design tasks and improve productivity.
I am seeking full-time industry roles in AI infrastructure and LLM inference systems, starting in fall 2027. I would love to connect with teams turning research ideas into efficient, reliable systems for real-world use.
ACG · Baige AI Team / 百舸
AI Infrastructure · Talent program
Worked on improving the performance of LLM inference systems.
Data-PH · AI Chip Team
Formally modeled and verified memory consistency for in-house chips and explored in-house GPGPU architectures.
TEG · AI Data Platform
Talent program / 青云计划
Researched custom AI-chip architectures and optimized model inference.
Joint algorithm and architecture design to exploit sparsity in ternary-weight LLMs.
Tree-structured speculative decoding for efficient inference with DeepSeek-V4.
Adaptive sparsity and mixed precision to accelerate inference in video generation models.
Fault-aware data scheduling and accelerator design for reliable sparse matrix multiplication.
Cluster-aware sparsification, sparse scheduling, and accelerator co-design for ternary-weight LLMs.
A flexible hardware architecture for efficient Poseidon hashing and Merkle-tree construction.
A self-repairing matrix-multiplication architecture for reliable AI computation.
Data sharing and pipelining for flexible, efficient multi-scalar multiplication.
A reconfigurable hardware accelerator for zero-knowledge proof workloads.
Parallel bucket aggregation and priority-based scheduling for multi-scalar multiplication.
A scalable multi-scalar multiplication architecture designed to reduce memory-bandwidth demands.
An efficient number-theoretic transform architecture for privacy-preserving computation.
A pipelined, reconfigurable modular multiplier supporting variable operand widths.
* Equal contribution.