Load Flexibility Modeling of CPU-Intensive Computing Tasks in Data Centers

Current data centers possess significant, yet underutilized, potential for load flexibility. One key limitation is the lack of fine-grained modeling of their energy consumption characteristics. In this paper, we focus on CPU-intensive computing tasks and propose a quantitative flexibility modeling framework by analyzing the impact of energy sensitivity parametersspecifically, thread count and CPU frequency-on power consumption, energy usage, and task duration. We investigate energy consumption characteristics in both single-server and multiserver environments and examine the effects of task-level and joblevel allocation strategies. Experimental validation demonstrates that our models achieve over 85% prediction accuracy and show that CPU-intensive computing tasks can offer up to 30% power modulation. These results support the use of parameter-level tuning for flexible and energy-aware scheduling in data centers.

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Publication Details

Published
2025-10-09
DOI
https://doi.org/10.36227/techrxiv.176003095.52850256/v1
Primary Topic
Distributed and Parallel Computing Systems
Type
article
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Load Flexibility Modeling of CPU-Intensive Computing Tasks in Data Centers

Qinglai Guo, Ao Luo, Min Chen, Wang Yi et al.
Distributed and Parallel Computing Systems
article

Load Flexibility Modeling of CPU-Intensive Computing Tasks in Data Centers

Qinglai Guo, Ao Luo, Min Chen, Wang Yi, Nianfeng Tian
article en

Abstract

Current data centers possess significant, yet underutilized, potential for load flexibility. One key limitation is the lack of fine-grained modeling of their energy consumption characteristics. In this paper, we focus on CPU-intensive computing tasks and propose a quantitative flexibility modeling framework by analyzing the impact of energy sensitivity parametersspecifically, thread count and CPU frequency-on power consumption, energy usage, and task duration. We investigate energy consumption characteristics in both single-server and multiserver environments and examine the effects of task-level and joblevel allocation strategies. Experimental validation demonstrates that our models achieve over 85% prediction accuracy and show that CPU-intensive computing tasks can offer up to 30% power modulation. These results support the use of parameter-level tuning for flexible and energy-aware scheduling in data centers.

Openalex Percentile: Top 67%
Distributed and Parallel Computing Systems
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