
Worked on enhancing the fused MoE autotuning workflow in the flashinfer repository, focusing on improving safety, reliability, and throughput for deep learning inference on SM120 Blackwell and SM90 architectures. Addressed a critical runtime shared memory issue by implementing occupancy-based pre-filtering to exclude zero-occupancy tactics, and introduced thread-safety protections using mutexes during tactic selection. Improved observability by enhancing logging and error reporting across Python and C++ boundaries, ensuring failures are surfaced promptly. Validated the FP8 MoE autotuner to prevent regressions on dense NVFP4 models. Utilized C++, CUDA, and Python bindings to deliver robust, production-ready autotuning safeguards.
April 2026: Delivered safety and reliability improvements for fused MoE autotuning in flashinfer, focused on reducing runtime errors, improving throughput, and increasing observability. Implemented occupancy-based pre-filtering to exclude zero-occupancy tactics on SM120 Blackwell, added thread-safety protections around tactic selection, and enhanced logging and error reporting in the get_occ path. Fixed a critical class of runtime shared memory failures and safeguarded against empty-tactics edge cases. Validated FP8 MoE autotuning on SM120 Blackwell and SM90, with no regression on dense NVFP4 models. Business impact: lowers autotuning waste, prevents production crashes, and sustains MoE throughput across devices. Technologies: C++, multithreading (mutex), Python bindings, occupancy pre-validation, robust logging, end-to-end autotuner workflow.
April 2026: Delivered safety and reliability improvements for fused MoE autotuning in flashinfer, focused on reducing runtime errors, improving throughput, and increasing observability. Implemented occupancy-based pre-filtering to exclude zero-occupancy tactics on SM120 Blackwell, added thread-safety protections around tactic selection, and enhanced logging and error reporting in the get_occ path. Fixed a critical class of runtime shared memory failures and safeguarded against empty-tactics edge cases. Validated FP8 MoE autotuning on SM120 Blackwell and SM90, with no regression on dense NVFP4 models. Business impact: lowers autotuning waste, prevents production crashes, and sustains MoE throughput across devices. Technologies: C++, multithreading (mutex), Python bindings, occupancy pre-validation, robust logging, end-to-end autotuner workflow.

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