
Yusuf Yetim contributed to the pytorch/FBGEMM and pytorch/pytorch repositories by developing and optimizing features for high-performance deep learning inference. He enhanced FP16 throughput and expanded embedding dimension support by refactoring code generation templates and inference kernels using C++ and CUDA, enabling more efficient model execution. Yusuf also aligned embedding table bounds validation with the Tensor-Based Embedding implementation, centralizing logic to improve correctness and robustness. Additionally, he introduced padding support for row-wise FP8 quantized tensors in Triton kernels and restored SM90 compatibility in AOT Inductor tests, strengthening quantized-path reliability. His work demonstrated depth in GPU programming and performance optimization.

September 2025 performance-focused updates across pytorch/FBGEMM and pytorch/pytorch. Implemented padding support for row-wise quantized FP8 tensors in the Triton kernel to satisfy downstream width requirements and updated tests; restored scaled_grouped_mm in AOT Inductor tests to ensure SM90 compatibility and FP8 performance. Overall, these changes enhance FP8 throughput, improve hardware compatibility, and strengthen test reliability for quantized paths. Technologies demonstrated include Triton kernel work, FP8 quantization, AOT Inductor testing, and SM90 optimizations.
September 2025 performance-focused updates across pytorch/FBGEMM and pytorch/pytorch. Implemented padding support for row-wise quantized FP8 tensors in the Triton kernel to satisfy downstream width requirements and updated tests; restored scaled_grouped_mm in AOT Inductor tests to ensure SM90 compatibility and FP8 performance. Overall, these changes enhance FP8 throughput, improve hardware compatibility, and strengthen test reliability for quantized paths. Technologies demonstrated include Triton kernel work, FP8 quantization, AOT Inductor testing, and SM90 optimizations.
March 2025 focused on correctness and alignment of embedding table bounds validation in FBGEMM with the Tensor-Based Embedding (TBE) implementation, including a targeted refactor to centralize validation logic and handle edge cases (e.g., empty weights).
March 2025 focused on correctness and alignment of embedding table bounds validation in FBGEMM with the Tensor-Based Embedding (TBE) implementation, including a targeted refactor to centralize validation logic and handle edge cases (e.g., empty weights).
Month 2024-12 – pytorch/FBGEMM: Delivered FP16 performance optimization and extended TBE support for larger embedding dimensions (fp16 and lower precision). No major bugs fixed in this scope. Business value: higher FP16 throughput and larger embedding capacity, enabling more efficient inference for FP16 workloads and larger models.
Month 2024-12 – pytorch/FBGEMM: Delivered FP16 performance optimization and extended TBE support for larger embedding dimensions (fp16 and lower precision). No major bugs fixed in this scope. Business value: higher FP16 throughput and larger embedding capacity, enabling more efficient inference for FP16 workloads and larger models.
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