TensorFlow, a popular machine learning (ML) platform, allows users to transparently exploit both GPUs and CPUs to run their applications. Since GPUs are optimized for compute-intensive workloads (e.g., matrix calculus), they help boost executions, but introduce resource heterogeneity. TensorFlow neither provides efficient heterogeneous resource management nor allows for the enforcement of user-defined constraints on the execution time. Most of the works address these issues in the context of creating models on existing data sets (training phase), and only focus on scheduling algorithms. This paper focuses on the inference phase, that is, on the application of created models to predict the outcome on new data interactively, and presents a comprehensive resource management solution called ROMA (Resource Constrained ML Applications). ROMA is an extension of TensorFlow that (a) provides means to easily deploy multiple TensorFlow models in containers using Kubernetes b) allows users to set constraints on response times, (c) schedules the execution of requests on GPUs and CPUs using heuristics, and (d) dynamically refines the CPU core allocation by exploiting control theory. The assessment conducted on four real-world benchmark applications compares ROMA against four different systems and demonstrates a significant reduction (75 % ) in constraint violations and 24 % saved resources on average.
Resource Management for TensorFlow Inference / L. Baresi, G. Quattrocchi, N. Rasi (LECTURE NOTES IN COMPUTER SCIENCE). - In: Service-Oriented Computing / [a cura di] H. Hacid, O. Kao, M. Mecella, N. Moha, H.-y. Paik. - [s.l] : Springer Science and Business Media Deutschland GmbH, 2021. - ISBN 978-3-030-91430-1. - pp. 238-253 (( 19. ICSOC Virtuale 2021 [10.1007/978-3-030-91431-8_15].
Resource Management for TensorFlow Inference
G. Quattrocchi
Secondo
;
2021
Abstract
TensorFlow, a popular machine learning (ML) platform, allows users to transparently exploit both GPUs and CPUs to run their applications. Since GPUs are optimized for compute-intensive workloads (e.g., matrix calculus), they help boost executions, but introduce resource heterogeneity. TensorFlow neither provides efficient heterogeneous resource management nor allows for the enforcement of user-defined constraints on the execution time. Most of the works address these issues in the context of creating models on existing data sets (training phase), and only focus on scheduling algorithms. This paper focuses on the inference phase, that is, on the application of created models to predict the outcome on new data interactively, and presents a comprehensive resource management solution called ROMA (Resource Constrained ML Applications). ROMA is an extension of TensorFlow that (a) provides means to easily deploy multiple TensorFlow models in containers using Kubernetes b) allows users to set constraints on response times, (c) schedules the execution of requests on GPUs and CPUs using heuristics, and (d) dynamically refines the CPU core allocation by exploiting control theory. The assessment conducted on four real-world benchmark applications compares ROMA against four different systems and demonstrates a significant reduction (75 % ) in constraint violations and 24 % saved resources on average.| File | Dimensione | Formato | |
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