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DAPPLE: A Pipelined Data Parallel Approach for Training Large Models

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arxiv 2007.01045 v1 pith:TCBEW7DN submitted 2020-07-02 cs.DC

classification cs.DC
keywords trainingdappleapproachdatalargememorymodelsparallelism
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It is a challenging task to train large DNN models on sophisticated GPU platforms with diversified interconnect capabilities. Recently, pipelined training has been proposed as an effective approach for improving device utilization. However, there are still several tricky issues to address: improving computing efficiency while ensuring convergence, and reducing memory usage without incurring additional computing costs. We propose DAPPLE, a synchronous training framework which combines data parallelism and pipeline parallelism for large DNN models. It features a novel parallelization strategy planner to solve the partition and placement problems, and explores the optimal hybrid strategy of data and pipeline parallelism. We also propose a new runtime scheduling algorithm to reduce device memory usage, which is orthogonal to re-computation approach and does not come at the expense of training throughput. Experiments show that DAPPLE planner consistently outperforms strategies generated by PipeDream's planner by up to 3.23x under synchronous training scenarios, and DAPPLE runtime outperforms GPipe by 1.6x speedup of training throughput and reduces the memory consumption of 12% at the same time.

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    cs.DC 2025-06 conditional novelty 6.0 of 10

    SwiftSpec uses asynchronous, disaggregated speculative decoding with parallel tree generation and fused kernels to speed up LLM decoding by 1.75x on average over baselines, reaching 348 tokens/s for Llama3-70B on 8 H800 GPUs.

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