Optimization of cloud task processing with checkpoint-restart mechanism

  • Authors:
  • Sheng Di;Yves Robert;Frédéric Vivien;Derrick Kondo;Cho-Li Wang;Franck Cappello

  • Affiliations:
  • Argonne National Laboratory and INRIA, Saclay, France;ENS Lyon and INRIA, France and University of Tennessee Knoxville;ENS Lyon and INRIA, France;INRIA, Grenoble, France;The University of Hong Kong, Hong Kong;Argonne National Laboratory

  • Venue:
  • SC '13 Proceedings of the International Conference on High Performance Computing, Networking, Storage and Analysis
  • Year:
  • 2013

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Abstract

In this paper, we aim at optimizing fault-tolerance techniques based on a checkpointing/restart mechanism, in the context of cloud computing. Our contribution is three-fold. (1) We derive a fresh formula to compute the optimal number of checkpoints for cloud jobs with varied distributions of failure events. Our analysis is not only generic with no assumption on failure probability distribution, but also attractively simple to apply in practice. (2) We design an adaptive algorithm to optimize the impact of checkpointing regarding various costs like checkpointing/restart overhead. (3) We evaluate our optimized solution in a real cluster environment with hundreds of virtual machines and Berkeley Lab Checkpoint/Restart tool. Task failure events are emulated via a production trace produced on a large-scale Google data center. Experiments confirm that our solution is fairly suitable for Google systems. Our optimized formula outperforms Young's formula by 3-10 percent, reducing wall-clock lengths by 50-100 seconds per job on average.