An Analysis of Collocation on GPUs for Deep Learning Training
Research Output:
Conference Article in Proceeding or Book/Report chapter
Article in proceedings
Peer-reviewOpen access
Publication Information
Output type
Research Output:
Conference Article in Proceeding or Book/Report chapter
Article in proceedings
Peer-reviewOriginal language
EnglishPages from-to (Number of pages)
Pages 81-90 (10 pages)Publication milestones
- Published - 22/04/2024
Publication status
Published - 22/04/2024
Publisher
Association for Computing Machinery, United StatesISBN (Print)
9798400705410Publication IDs
- Scopus: 85192265987
Host publication title
Proceedings of the 4th Workshop on Machine Learning and Systems, EuroMLSys 2024, Athens, Greece, 22 April 2024Abstract
Deep learning training is an expensive process that extensively uses GPUs. However, not all model training saturates modern powerful GPUs. To create guidelines for such cases,
this paper examines the performance of the different collocation methods available on NVIDIA GPUs: naïvely submitting multiple processes on the same GPU using multiple streams,
utilizing Multi-Process Service (MPS), and enabling the MultiInstance GPU (MIG). Our results demonstrate that collocating multiple model training runs yields significant benefits, leading to up to three times training throughput despite increased epoch time. On the other hand, the aggregate memory footprint and compute needs of the models trained in parallel must fit the available memory and compute resources of the GPU. MIG can be beneficial thanks to its interference-free partitioning but can suffer from sub-optimal GPU utilization with dynamic or mixed workloads. In general, we recommend MPS as the best-performing and most flexible form of collocation for a single user submitting training jobs.
this paper examines the performance of the different collocation methods available on NVIDIA GPUs: naïvely submitting multiple processes on the same GPU using multiple streams,
utilizing Multi-Process Service (MPS), and enabling the MultiInstance GPU (MIG). Our results demonstrate that collocating multiple model training runs yields significant benefits, leading to up to three times training throughput despite increased epoch time. On the other hand, the aggregate memory footprint and compute needs of the models trained in parallel must fit the available memory and compute resources of the GPU. MIG can be beneficial thanks to its interference-free partitioning but can suffer from sub-optimal GPU utilization with dynamic or mixed workloads. In general, we recommend MPS as the best-performing and most flexible form of collocation for a single user submitting training jobs.
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Related Event
Title
Workshop on Machine Learning and Systems
Event type
WorkshopDegree of recognition
International eventDate
22/04/2024 - 22/04/2024Location
AthensGreece
