Machine Learning Based Distributionally Robust Optimization and Coordinated Operation of Electric Power, Computing Power, and Thermal Power in Data Centers
Computing Power-Electric Power Coordination|更新时间:2026-10-10
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Machine Learning Based Distributionally Robust Optimization and Coordinated Operation of Electric Power, Computing Power, and Thermal Power in Data Centers
Automation of Electric Power SystemsVol. 50, Issue 19, Pages: 87-95(2026)
作者机构:
1.武汉大学电气及自动化学院,湖北省武汉市 430072
2.国网北京市电力公司,北京市 100031
作者简介:
基金信息:
Smart-Grid National Science and Technology Major Project(2025ZD0804800)
LIU Chengxi,WENG Zebin,LUO Yongjian,et al.Machine Learning Based Distributionally Robust Optimization and Coordinated Operation of Electric Power, Computing Power, and Thermal Power in Data Centers[J].Automation of Electric Power Systems,2026,50(19):87-95.
LIU Chengxi,WENG Zebin,LUO Yongjian,et al.Machine Learning Based Distributionally Robust Optimization and Coordinated Operation of Electric Power, Computing Power, and Thermal Power in Data Centers[J].Automation of Electric Power Systems,2026,50(19):87-95.DOI: 10.7500/AEPS20251117007.
Machine Learning Based Distributionally Robust Optimization and Coordinated Operation of Electric Power, Computing Power, and Thermal Power in Data Centers
The rapid development of artificial intelligence and other technologies has led to a surge in computing power demand in data centers
which in turn results in enormous energy consumption. However
the rigid computing power demand and power supply modes of large-scale power grids make it difficult for data centers to effectively reduce carbon emission and achieve green economic operation. Therefore
fully exploiting the flexibility of electric power
computing power and thermal power is crucial for improving the dynamic matching between electricity supply and computing demand
as well as enhancing the accommodation of renewable energy in data centers powered by green electricity. This paper first quantifies and characterizes the uncertainty of renewable energy based on machine learning methods
designs a two-stage distributionally robust optimization framework for coordinated operation of electric power
computing power and thermal power
and establishes multi-energy coupling modeling. Second
a batch task transfer coefficient matrix is introduced to quantitatively analyze the flexible regulation characteristics of controllable computing tasks. Finally
key indicators affecting the economic performance of data centers are investigated through coordinated optimization. The results of the case study show that the multi-energy coordinated operation can reduce costs by 49.75%
of which regulating computing power flexibility alone improves economic performance by 48.5%
indicating that the flexible regulation characteristics of computing power tasks are crucial for economic operation
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