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Adaptive variable sampling model for performance analysis in high cache-performance computing environments

delete2023-06-01
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OA
AI
M
Mincheol Shin
M
Mucheol Kim *
G
Geunchul Park
A
Ajith Abraham
DOI:10.1016/j.heliyon.2023.e16777delete
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Abstract

Abstract

En 中文
High-performance computing provides computing power for a variety of scientific disciplines, supporting advancements by offering insights beyond metacognition. Maximizing computing performance without wasting resources is a major research issue. Predicting the performance of a computer's next state is effective for scheduling. However, hardware performance monitors representing the computer's state require high expert knowledge, and there is no standardized model. In this paper, we propose an adaptive variable sampling model for performance analysis in high-performance computing environments. Our method automatically classifies the optimal variables from numerous variables related to performance prediction and predicts performance using the sampled variables. The optimal variables for performance analysis do not require expert knowledge during the sampling process. We conducted experiments in various architectures and applications to validate this method. This model performed at least 24.25% and up to 58.75% faster without any loss in accuracy.
Keywords:
High performance computing
Data science
Decision support
Performance prediction
Machine learning
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Journal

Heliyon cover
Heliyon
IF:
3.6
Papers:
3.8W
Citations:
10.5W

Organization

C
Chung Ang University
Scholars:
1.3W
Papers: 1.4W
Citations: 133
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