EXPERIMENTAL CHARACTERIZATION OF SERVER RACK ENERGY USE AT ELEVATED AMBIENT TEMPERATURES

被引:0
|
作者
Iyengar, Madhusudan [1 ]
Schmidt, Roger [1 ]
Kamath, Vinod [2 ]
Kochuparambil, Bejoy [2 ]
机构
[1] IBM Syst & Technol Grp, Poughkeepsie, NY 12601 USA
[2] IBM Syst Technol Grp, Res Triangle Pk, NC 27709 USA
来源
PROCEEDINGS OF THE ASME PACIFIC RIM TECHNICAL CONFERENCE AND EXHIBITION ON PACKAGING AND INTEGRATION OF ELECTRONIC AND PHOTONIC SYSTEMS, MEMS AND NEMS 2011, VOL 2 | 2012年
关键词
D O I
暂无
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
It is now common for data center managers to question the impact on server energy usage of two recent impact factors: (1) the rise in the data center inlet air temperature to servers per 2008 ASHRAE guidelines, and (2) the fan speed increase from the use of rack level heat exchangers such as Rear Door Heat Exchangers. To help acquire a deeper understanding of the relevant issues, a system floor thermal test was built on the IBM New York data center benchmark floor which consisted of a standard 19 '' rack filled with 39 3.0 GHz 1U servers that dissipated between 10-17 kW depending on extent of server utilization. Fan speed, chip temperature metrics, and server power data was collected using product debug codes and server level programs. A simulated air heat load was installed right in front of this server rack to allow the manipulation of air inlet temperature into the servers from 20 degrees C to 32 degrees C. Two different rack level configurations were considered for the experiments: (i) a perforated front door and no door at the rear, and (ii) a perforated front door and a Rear Door Heat Exchanger at the rear. An exerciser program was used to vary the CPU utilization from Idle to 70% which represented a typical data center work load. Data was collected for 19 servers of the 39 servers (remaining were in use by Benchmark Lab) for the two rack configurations, for 4 inlet server air temperatures, and for two chip exerciser settings, i.e. 16 experiments. For the 70% exerciser setting (typical operation) and the base line rack configuration without rack level heat exchangers, the rise in server power for an increase in inlet air temperature was 5.2% for the 20 degrees C to 27 degrees C change and was 17% for the 20 degrees C to 31 degrees C change. For the 70% exerciser setting (typical), the increase in server power from the use of rack level heat exchangers (Rear Door Heat Exchanger) was less than 1.3% for all the conditions. Given the broad range of fan speed algorithms and cooling hardware in server products on the market and their change over each generation, significant further study will be required to characterize each category of systems for these conditions. However, the present study provides a template for quantifying server energy usage in a context that data center managers can understand and use.
引用
收藏
页码:617 / +
页数:3
相关论文
共 50 条
  • [21] Behavior of steel pallet rack beam-to-column connections at elevated temperatures
    Shah, S. N. R.
    Sulong, N. H. Ramli
    Shariati, Mahdi
    Khan, R.
    Jumaat, M. Z.
    THIN-WALLED STRUCTURES, 2016, 106 : 471 - 483
  • [22] Degradation of additively manufactured biomedical PEEK and PLA: experimental characterization at elevated temperatures
    Vindokurov, Ilia
    Tashkinov, Mikhail
    Silberschmidt, Vadim V.
    INTERNATIONAL JOURNAL OF ADVANCED MANUFACTURING TECHNOLOGY, 2024, 135 (5-6): : 2161 - 2172
  • [23] Experimental Characterization of Hybrid and Non-Hybrid Polymer Composites at Elevated Temperatures
    Aklilu, Getahun
    Adali, Sarp
    Bright, Glen
    INTERNATIONAL JOURNAL OF ENGINEERING RESEARCH IN AFRICA, 2018, 36 : 37 - 52
  • [24] Experimental and optimization research of the rack thermal environment based on the dynamic server power
    Wang, Ligang
    Tang, Yu
    Bai, Xuelian
    Mi, Ranran
    Wang, Yating
    JOURNAL OF BUILDING ENGINEERING, 2024, 96
  • [25] Experimental studies and numerical analysis of the shear behavior of fin plates to tubular columns at ambient and elevated temperatures
    Jones, M. H.
    Wang, Y. C.
    STEEL AND COMPOSITE STRUCTURES, 2008, 8 (03): : 179 - 200
  • [26] DESIGN AND DEVELOPMENT OF AN EXPERIMENTAL WROUGHT ALUMINUM ALLOY FOR USE AT ELEVATED TEMPERATURES.
    Polmear, I.J.
    Couper, M.J.
    Metallurgical transactions. A, Physical metallurgy and materials science, 1988, 19 A (04): : 1027 - 1035
  • [28] Tensile deformation of alloy-22 at ambient and elevated temperatures
    Koripelli, Rama S.
    Roy, Ajit K.
    PROCEEDINGS OF THE ASME PRESSURE VESSELS AND PIPING CONFERENCE 2007, VOL 6: MATERIALS AND FABRICATION, 2007, : 391 - 394
  • [29] High Electric Field Conduction of Polymers at Ambient and Elevated Temperatures
    Wu, Chao
    Li, Zongze
    Chen, Lihua
    Deshmukh, Ajinkya
    Wang, Yifei
    Ramprasad, Rampi
    Sotzing, Gregory A.
    Cao, Yang
    2019 IEEE CONFERENCE ON ELECTRICAL INSULATION AND DIELECTRIC PHENOMENA (CEIDP), 2019, : 486 - 489
  • [30] Design of screwed steel sheeting connection at ambient and elevated temperatures
    Lu, Wei
    Makelainen, Pentti
    Outinen, Jyri
    Ma, Zhongcheng
    THIN-WALLED STRUCTURES, 2011, 49 (12) : 1526 - 1533