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FLAMIA: FLAsh MIcroscaling Attention for Fast and Causally Safe Training on Blackwell

READ THE ORIGINAL SOURCEOpen original sourcehuggingface.co · Opens in a new tab

FLAMIA is a family of attention kernels for NVIDIA Blackwell GPUs with MXFP8 and mixed NVFP4/FP8 training paths. It combines token-block scaling that reuses quantized operands across matrix orientations, safeguards against causal leakage through shared scales, and consistent forward and backward numerics. Fused quantization and document-local scaling support variable-length packed documents without repacking. The authors report 1.06–1.42× faster combined forward/backward attention on causal packed-document workloads and state that training stability was validated on pretraining Llama-style models.

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What the source says

FLAMIA is a family of attention kernels for NVIDIA Blackwell GPUs with MXFP8 and mixed NVFP4/FP8 training paths. It combines token-block scaling that reuses quantized operands across matrix orientations, safeguards against causal leakage through shared scales, and consistent forward and backward numerics. Fused quantization and document-local scaling support variable-length packed documents without repacking. The authors report 1.06–1.42× faster combined forward/backward attention on causal packed-document workloads and state that training stability was validated on pretraining Llama-style models.

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    Original link: huggingface.co. Brief basis: fetched source page. Primary page date and quote locations are not established in this panel.

  4. 04
    What could mislead?

    Speedups are reported relative to the fastest evaluated baseline for each workload, and source claims not independently checked.

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Key findings from the stored brief

  • The MXFP8 path accelerates combined forward and backward attention by 1.10–1.40× on B200 and 1.06–1.42× on B300 versus the fastest evaluated baseline.
  • Shared quantization scales can leak future-token information despite causal masking; local scales and per-key scale folding are used to mitigate this.
  • All-FP4 training adds quantization overhead and slightly worsens loss, so the design uses selective low precision instead.
  • High single-step gradient similarity alone does not guarantee stable training, according to the paper.
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Speedups are reported relative to the fastest evaluated baseline for each workload, and source claims not independently checked.

This is a source-based abstract, not independent validation of the source's claims.

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