
Developed cuTile backend support for three GEMM operations in the flashinfer-ai/flashinfer repository, focusing on mm_bf16, bmm_bf16, and gemm_fp8_nt_groupwise. Ported kernels from NVIDIA TileGym to the public CUDA Tile API, removing external runtime dependencies and improving portability. Leveraged Python and CUDA to optimize numerical computing workflows, achieving measurable speedups over existing backends such as cuDNN and tinygemm. Addressed build and CI challenges by isolating dependencies and pre-installing the CUDA tile compile chain, ensuring reliable integration. This work expanded FlashInfer’s capabilities on modern GPUs, enhanced inference throughput for BF16/FP8 workloads, and improved deployment flexibility across environments.
June 2026 monthly highlights for flashinfer-ai/flashinfer: - Key feature delivered: cuTile backend support for three GEMM operations (mm_bf16, bmm_bf16, gemm_fp8_nt_groupwise) implemented using the public CUDA Tile API, eliminating TileGym runtime dependencies and enabling faster, more portable GEMM computations. - Notable implementation details: ported kernels from NVIDIA TileGym to the public cuda.tile API; build system notes included to avoid CUDA runtime conflicts in CI environments. - Top achievements and performance: mm_bf16 shows strong speedups (median latency improvements around 1.69x vs cuDNN and 1.52x vs tinygemm); gemm_fp8_nt_groupwise with cuTile is within ~5% of Cutlass for small M and shows competitive results across other shapes, with larger M shapes highlighting areas for autotune. - Build/CI impact: resolved dependency conflicts by isolating the build chain and adopting a warn-and-continue approach when building in clean environments; CI now pre-installs the CUDA tile compile chain to ensure reliable imports and quicker iteration. - Business impact: expanded FlashInfer capabilities on modern GPUs, reduced external dependencies, improved inference throughput for BF16/FP8 GEMM workloads, and laid groundwork for broader adoption across deployment environments. - Technologies and skills demonstrated: CUDA, cuTile, GEMM optimization, BF16/FP8 workflows, performance benchmarking and analysis, kernel porting from TileGym, build tooling (PEP 517 isolation), CI reliability, and cross-hardware validation.
June 2026 monthly highlights for flashinfer-ai/flashinfer: - Key feature delivered: cuTile backend support for three GEMM operations (mm_bf16, bmm_bf16, gemm_fp8_nt_groupwise) implemented using the public CUDA Tile API, eliminating TileGym runtime dependencies and enabling faster, more portable GEMM computations. - Notable implementation details: ported kernels from NVIDIA TileGym to the public cuda.tile API; build system notes included to avoid CUDA runtime conflicts in CI environments. - Top achievements and performance: mm_bf16 shows strong speedups (median latency improvements around 1.69x vs cuDNN and 1.52x vs tinygemm); gemm_fp8_nt_groupwise with cuTile is within ~5% of Cutlass for small M and shows competitive results across other shapes, with larger M shapes highlighting areas for autotune. - Build/CI impact: resolved dependency conflicts by isolating the build chain and adopting a warn-and-continue approach when building in clean environments; CI now pre-installs the CUDA tile compile chain to ensure reliable imports and quicker iteration. - Business impact: expanded FlashInfer capabilities on modern GPUs, reduced external dependencies, improved inference throughput for BF16/FP8 GEMM workloads, and laid groundwork for broader adoption across deployment environments. - Technologies and skills demonstrated: CUDA, cuTile, GEMM optimization, BF16/FP8 workflows, performance benchmarking and analysis, kernel porting from TileGym, build tooling (PEP 517 isolation), CI reliability, and cross-hardware validation.

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