Scale MLPerf-0.6 models on Google TPU-v3 Pods
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Abstract (arXiv)
The recent submission of Google TPU-v3 Pods to the industry wide MLPerf v0.6 training benchmark demonstrates the scalability of a suite of industry relevant ML models. MLPerf defines a suite of models, datasets and rules to follow when benchmarking to ensure results are comparable across hardware, frameworks and companies. Using this suite of models, we discuss the optimizations and techniques including choice of optimizer, spatial partitioning and weight update sharding necessary to scale to 1024 TPU chips. Furthermore, we identify properties of models that make scaling them challenging, such as limited data parallelism and unscaled weights. These optimizations contribute to record performance in transformer, Resnet-50 and SSD in the Google MLPerf-0.6 submission.
Key facts. Cited by 14 papers in the map (data through 7 Oct 2026). First posted on arXiv 21 Sep 2019.
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Citing papers per year: 2021: 9; 2022: 2; 2023: 2; 2024: 1.
14 papers.
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- 2021Efficient Large-Scale Language Model Training on GPU Clusters Using Megatron-LMcited by 621
- 2021Improving Robustness using Generated Datacited by 233
- 2024Lightweight Deep Learning for Resource-Constrained Environments: A Surveycited by 38
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- 2023XTREME-UP: A User-Centric Scarce-Data Benchmark for Under-Represented Languagescited by 34
- 2021A Large Batch Optimizer Reality Check: Traditional, Generic Optimizers Suffice Across Batch Sizescited by 20
- 2021KAISA: An Adaptive Second-Order Optimizer Framework for Deep Neural Networkscited by 20
- 2021Tesseract: Parallelize the Tensor Parallelism Efficientlycited by 19
- 2021A Comparative Study on Neural Architectures and Training Methods for Japanese Speech Recognitioncited by 6
- 2022CowClip: Reducing CTR Prediction Model Training Time from 12 hours to 10 minutes on 1 GPUcited by 4
- 2021Demystifying BERT: Implications for Accelerator Designcited by 3
- 2021Loss Landscape Dependent Self-Adjusting Learning Rates in Decentralized Stochastic Gradient Descentcited by 3
2 more
- 2024Lightweight Deep Learning for Resource-Constrained Environments: A Survey8 Apr 2024
- 2023Self-Influence Guided Data Reweighting for Language Model Pre-training2 Nov 2023
- 2023XTREME-UP: A User-Centric Scarce-Data Benchmark for Under-Represented Languages19 May 2023
- 2022RF-Photonic Deep Learning Processor with Shannon-Limited Data Movement8 Jul 2022
- 2022CowClip: Reducing CTR Prediction Model Training Time from 12 hours to 10 minutes on 1 GPU13 Apr 2022
- 2021Loss Landscape Dependent Self-Adjusting Learning Rates in Decentralized Stochastic Gradient Descent2 Dec 2021
- 2021Asynchronous Decentralized Distributed Training of Acoustic Models21 Oct 2021
- 2021Improving Robustness using Generated Data18 Oct 2021
- 2021KAISA: An Adaptive Second-Order Optimizer Framework for Deep Neural Networks4 Jul 2021
- 2021A Comparative Study on Neural Architectures and Training Methods for Japanese Speech Recognition9 Jun 2021
- 2021Tesseract: Parallelize the Tensor Parallelism Efficiently30 May 2021
- 2021Demystifying BERT: Implications for Accelerator Design14 Apr 2021
- 2021Efficient Large-Scale Language Model Training on GPU Clusters Using Megatron-LMcited by 621
- 2021Improving Robustness using Generated Datacited by 233
- 2024Lightweight Deep Learning for Resource-Constrained Environments: A Surveycited by 38
- 2023Self-Influence Guided Data Reweighting for Language Model Pre-trainingcited by 37
- 2023XTREME-UP: A User-Centric Scarce-Data Benchmark for Under-Represented Languagescited by 34
- 2021A Large Batch Optimizer Reality Check: Traditional, Generic Optimizers Suffice Across Batch Sizescited by 20
- 2021KAISA: An Adaptive Second-Order Optimizer Framework for Deep Neural Networkscited by 20
- 2021Tesseract: Parallelize the Tensor Parallelism Efficientlycited by 19
- 2021A Comparative Study on Neural Architectures and Training Methods for Japanese Speech Recognitioncited by 6
- 2022CowClip: Reducing CTR Prediction Model Training Time from 12 hours to 10 minutes on 1 GPUcited by 4
- 2021Demystifying BERT: Implications for Accelerator Designcited by 3
- 2021Loss Landscape Dependent Self-Adjusting Learning Rates in Decentralized Stochastic Gradient Descentcited by 3
12 most cited of 14 All 14 (JSON)
- 2024Lightweight Deep Learning for Resource-Constrained Environments: A Survey8 Apr 2024
- 2023Self-Influence Guided Data Reweighting for Language Model Pre-training2 Nov 2023
- 2023XTREME-UP: A User-Centric Scarce-Data Benchmark for Under-Represented Languages19 May 2023
- 2022RF-Photonic Deep Learning Processor with Shannon-Limited Data Movement8 Jul 2022
- 2022CowClip: Reducing CTR Prediction Model Training Time from 12 hours to 10 minutes on 1 GPU13 Apr 2022
- 2021Loss Landscape Dependent Self-Adjusting Learning Rates in Decentralized Stochastic Gradient Descent2 Dec 2021
- 2021Asynchronous Decentralized Distributed Training of Acoustic Models21 Oct 2021
- 2021Improving Robustness using Generated Data18 Oct 2021
- 2021KAISA: An Adaptive Second-Order Optimizer Framework for Deep Neural Networks4 Jul 2021
- 2021A Comparative Study on Neural Architectures and Training Methods for Japanese Speech Recognition9 Jun 2021
- 2021Tesseract: Parallelize the Tensor Parallelism Efficiently30 May 2021
- 2021Demystifying BERT: Implications for Accelerator Design14 Apr 2021
12 newest of 14 All 14 (JSON)