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Research map / Architectures and efficiency / RNNs and normalization

Mesh-TensorFlow: Deep Learning for Supercomputers

NeurIPS 2018 · Architectures and efficiency › RNNs and normalization · approach: Efficient network compression and training · 51 citations (OpenAlex)

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Measured effects reported in the paper

What was changedWhereMeasuredEffect
Scale the Transformer by increasing feed-forward width and attention heads (ablation)Mesh-TensorFlow Transformer · One Billion Wordword perplexity: 35.0 -> 24.0Helped
Scale the Transformer by increasing feed-forward width and attention heads (ablation)Mesh-TensorFlow Transformer · Wikipediasubword perplexity: 8.74 -> 6.01Helped
Scale the Transformer by increasing feed-forward width and attention heads (ablation)Mesh-TensorFlow Transformer · WMT14 EN-FRBLEU: 41.8 -> 43.9Helped
Scale the Transformer by increasing feed-forward width and attention heads (ablation)Mesh-TensorFlow Transformer · WMT14 EN-DEBLEU: 25.5 -> 27.5; 27.5 -> 26.7Mixed
Evaluate One Billion Word logits multiplied by 0.9 (ablation)4.90B Mesh-TensorFlow Transformer · One Billion Wordword perplexity: 24.0 -> 23.5Helped
Use a 2D TPU mesh with data parallelism across rows and model parallelism across columnsMesh-TensorFlow Transformer · Transformer training on TPUv2computational efficiency: over 50%Helped

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