Job Scheduling Strategies for Parallel Processing
portes grátis
Job Scheduling Strategies for Parallel Processing
27th International Workshop, JSSPP 2024, San Francisco, CA, USA, May 31, 2024, Revised Selected Papers
Rodrigo, Gonzalo P.; Corbalan, Julita; Klusacek, Dalibor
Springer International Publishing AG
12/2024
203
Mole
9783031744297
Pré-lançamento - envio 15 a 20 dias após a sua edição
Descrição não disponível.
.- Technical papers.
.- Real-life HPC Workload Trace Featuring Refined Job Runtime Estimates.
.- An Empirical Study of Machine Learning-based Synthetic Job Trace Generation Methods.
.- Clustering Based Job Runtime Prediction for Backfilling Using Classification.
.- Launchpad: Learning to Schedule Using Offline and Online RL Methods.
.- Radical-Cylon: A Heterogeneous Data Pipeline for Scientific Computing.
.- Evaluation of Heuristic Task-to-Thread Mapping Using Static and Dynamic Approaches.
.- Challenges in parallel matrix chain multiplication.
.- A node selection method for on-demand job execution with considering deadline constraints.
.- Maximizing Energy Budget Utilization Using Dynamic Power Cap Control.
.- Run your HPC jobs in Eco-Mode: revealing the potential of user-assisted power capping in supercomputing systems.
.- Real-life HPC Workload Trace Featuring Refined Job Runtime Estimates.
.- An Empirical Study of Machine Learning-based Synthetic Job Trace Generation Methods.
.- Clustering Based Job Runtime Prediction for Backfilling Using Classification.
.- Launchpad: Learning to Schedule Using Offline and Online RL Methods.
.- Radical-Cylon: A Heterogeneous Data Pipeline for Scientific Computing.
.- Evaluation of Heuristic Task-to-Thread Mapping Using Static and Dynamic Approaches.
.- Challenges in parallel matrix chain multiplication.
.- A node selection method for on-demand job execution with considering deadline constraints.
.- Maximizing Energy Budget Utilization Using Dynamic Power Cap Control.
.- Run your HPC jobs in Eco-Mode: revealing the potential of user-assisted power capping in supercomputing systems.
Este título pertence ao(s) assunto(s) indicados(s). Para ver outros títulos clique no assunto desejado.
parallel computing;parallel processing;distributed systems;scheduling;job scheduling;VM scheduling;system modeling;workload modeling;system evaluation;workload evaluation;performance evaluation;performance optimization;simulation;cloud computing;grid computing;cluster computing;HPC computing;GPU;resource isolation;workflow
.- Technical papers.
.- Real-life HPC Workload Trace Featuring Refined Job Runtime Estimates.
.- An Empirical Study of Machine Learning-based Synthetic Job Trace Generation Methods.
.- Clustering Based Job Runtime Prediction for Backfilling Using Classification.
.- Launchpad: Learning to Schedule Using Offline and Online RL Methods.
.- Radical-Cylon: A Heterogeneous Data Pipeline for Scientific Computing.
.- Evaluation of Heuristic Task-to-Thread Mapping Using Static and Dynamic Approaches.
.- Challenges in parallel matrix chain multiplication.
.- A node selection method for on-demand job execution with considering deadline constraints.
.- Maximizing Energy Budget Utilization Using Dynamic Power Cap Control.
.- Run your HPC jobs in Eco-Mode: revealing the potential of user-assisted power capping in supercomputing systems.
.- Real-life HPC Workload Trace Featuring Refined Job Runtime Estimates.
.- An Empirical Study of Machine Learning-based Synthetic Job Trace Generation Methods.
.- Clustering Based Job Runtime Prediction for Backfilling Using Classification.
.- Launchpad: Learning to Schedule Using Offline and Online RL Methods.
.- Radical-Cylon: A Heterogeneous Data Pipeline for Scientific Computing.
.- Evaluation of Heuristic Task-to-Thread Mapping Using Static and Dynamic Approaches.
.- Challenges in parallel matrix chain multiplication.
.- A node selection method for on-demand job execution with considering deadline constraints.
.- Maximizing Energy Budget Utilization Using Dynamic Power Cap Control.
.- Run your HPC jobs in Eco-Mode: revealing the potential of user-assisted power capping in supercomputing systems.
Este título pertence ao(s) assunto(s) indicados(s). Para ver outros títulos clique no assunto desejado.
parallel computing;parallel processing;distributed systems;scheduling;job scheduling;VM scheduling;system modeling;workload modeling;system evaluation;workload evaluation;performance evaluation;performance optimization;simulation;cloud computing;grid computing;cluster computing;HPC computing;GPU;resource isolation;workflow
