
Worked on the jd-opensource/xllm repository to deliver an ACL Graph Execution feature targeting NPU-backed workloads. Developed a C++ and CMake-based graph executor that leverages NPUGraph for optimized execution, introducing configurable feature flags and maximum token controls for flexible deployment. Implemented a lazy graph capture and replay mechanism to optimize performance, while ensuring correctness through a safe fallback to eager execution when graph optimization was not applicable. Focused on reducing memory allocation overhead during the decode phase, resulting in improved throughput and latency. The work demonstrated depth in graph execution, memory management, and NPU optimization within a performance engineering context.
September 2025 monthly summary for jd-opensource/xllm: Delivered the ACL Graph Execution feature for NPUs, enabling a graph-accelerated execution path via NPUGraph with configurable options and a safe fallback to eager execution. Implemented lazy graph capture and replay to optimize performance while preserving correctness when graph optimization isn't applicable. This work targets reduced memory allocation overhead during the decode phase and higher throughput on NPU-backed deployments.
September 2025 monthly summary for jd-opensource/xllm: Delivered the ACL Graph Execution feature for NPUs, enabling a graph-accelerated execution path via NPUGraph with configurable options and a safe fallback to eager execution. Implemented lazy graph capture and replay to optimize performance while preserving correctness when graph optimization isn't applicable. This work targets reduced memory allocation overhead during the decode phase and higher throughput on NPU-backed deployments.

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