Performance Study of Booster-Driven Hybrid Cooling Units for Free Cooling in Data Centers

被引:2
|
作者
Zhuang, Rong [1 ,2 ]
Zhou, Feng [3 ]
Tian, Xuwen [3 ]
Xu, Buqing [3 ]
Li, Shaocong [3 ]
Ma, Guoyuan [3 ]
机构
[1] State Key Lab Air Conditioning Equipment & Syst En, Zhuhai 519070, Peoples R China
[2] Gree Elect Appliances Inc Zhuhai, Zhuhai 519000, Peoples R China
[3] Beijing Univ Technol, Dept Refrigerat & Cryogen Engn, Beijing 100124, Peoples R China
关键词
data center; booster; free cooling; thermal performance; LOOP;
D O I
10.3390/su151914558
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
In the data center, using ambient energy cooling technology can effectively reduce the average power use efficiency, and the heat pipe as an effective use of ambient energy device has attracted much attention. For the dynamic heat pipe, reducing the power consumption of the pump effectively is the key to improving the efficiency. In this paper, the rotary booster is selected as the gas phase booster device of the heat pipe unit, the standard unit of the rotary booster is improved, and three types of boosters are obtained, including two improved boosters and one standard unit. Comparative test studies are conducted on three different types of boosters, and the power of the booster shows a downward trend with the increase in indoor and outdoor temperature differences (outdoor temperature decreases). With the increase in indoor and outdoor temperature differences, the cooling capacity increases first and then decreases. When the indoor and outdoor temperature difference is greater than 20 degrees C, the suction pressure of the booster is greater than the saturated condensing pressure force under outdoor ambient temperature, and the work of the booster decreases. Among the three types of boosters, the medium pressure ratio booster energy efficiency ratio (EER) is the largest. After throttling the standard unit, results show that its cooling capacity unit increases, but the booster power also increases, and the EER is still smaller than that of the improved unit.
引用
收藏
页数:19
相关论文
共 50 条
  • [31] Free cooling technologies for data centers: energy saving mechanism and applications
    Zhang, Yin
    Wei, Zhiyuan
    Zhang, Mingshan
    LEVERAGING ENERGY TECHNOLOGIES AND POLICY OPTIONS FOR LOW CARBON CITIES, 2017, 143 : 410 - 415
  • [32] Packaged Air Conditioner Incorporating Free Cooling Cycle for Data Centers
    Futawatari, Naoki
    Tsukimoto, Hideki
    Kohata, Yuji
    Udagawa, Yosuke
    Naito, Yasuhiro
    2016 IEEE INTERNATIONAL TELECOMMUNICATIONS ENERGY CONFERENCE (INTELEC), 2016,
  • [33] Worldwide Energy Analysis of Major Free Cooling Methods for Data Centers
    Gozcu, Ozan
    Ozada, Berk
    Carfi, Muhammed Ugur
    Erden, Hamza Salih
    PROCEEDINGS OF THE 2017 SIXTEENTH IEEE INTERSOCIETY CONFERENCE ON THERMAL AND THERMOMECHANICAL PHENOMENA IN ELECTRONIC SYSTEMS ITHERM 2017, 2017, : 968 - 976
  • [34] Integrated system of mechanical refrigeration and thermosyphon for free cooling of data centers
    Zhang, Hainan
    Shao, Shuangquan
    Xu, Hongbo
    Zou, Huiming
    Tian, Changqing
    APPLIED THERMAL ENGINEERING, 2015, 75 : 185 - 192
  • [35] Which Free Cooling Technology Should We Select For Data Centers
    Khiram, Mohammad
    ASHRAE Journal, 2022, 64 (10) : 16 - 19
  • [36] Which Free Cooling Technology Should We Select For Data Centers
    Saeeo, Mohammad khurram
    ASHRAE JOURNAL, 2022, 64 : 16 - 19
  • [37] Data centers roadmap for datacom cooling
    Belady, CL
    Beaty, D
    ASHRAE JOURNAL, 2005, 47 (12) : 52 - 55
  • [38] Evaluation of energy performance and ecological benefit of free-cooling system for data centers in worldwide climates
    Fan, Chengliang
    Zou, Binwei
    Liao, Yundan
    Zhou, Xiaoqing
    SUSTAINABLE CITIES AND SOCIETY, 2024, 108
  • [39] Advancements on mechanically driven two-phase cooling loop systems for data center free cooling
    Gong, Yuexuan
    Zhou, Feng
    Ma, Guoyuan
    Liu, Shuailing
    INTERNATIONAL JOURNAL OF REFRIGERATION, 2022, 138 : 84 - 96
  • [40] Study of the Electron Cooling System of the NICA Booster
    Bryzgunov, M. I.
    Bubley, A. V.
    Denisov, A. P.
    Parkhomchuk, V. V.
    Panasyuk, V. M.
    Reva, V. B.
    Batrakov, A. M.
    Bedareva, T. V.
    Bekhtenev, E. A.
    Goncharov, A. D.
    Gorchakov, K. M.
    Gusev, I. A.
    Dovzhenko, B. A.
    Zharikov, A. A.
    Karpov, G. V.
    Kolmogorov, V. V.
    Kondaurov, M. N.
    Korchagin, V. Ya.
    Kremnev, N. S.
    Polukhin, V. A.
    Putmakov, A. A.
    Senkov, D. V.
    Fedotov, M. G.
    Chekavinskiy, V. A.
    PHYSICS OF PARTICLES AND NUCLEI LETTERS, 2018, 15 (07) : 758 - 761