Performance characterization of high-power electronic equipment onboard an aircraft

被引:2
作者
Hashemi, A
Dyson, E
机构
[1] Lockheed Martin Missiles & Space, Ctr Adv Technol, Palo Alto, CA 94304 USA
[2] Systemhouse, Hull, PQ J8X 4B7, Canada
关键词
D O I
10.1080/014576300271121
中图分类号
O414.1 [热力学];
学科分类号
摘要
A skin cooling system has been developed to reject heat from high-power electronic equipment onboard an aircraft. In this system, the heat is rejected through the aircraft skin by use of internal skin ducts with enhanced surfaces. Hear transfer through the skin and the air flow in the system have been modeled and experimentally verified in the laboratory environment. In addition, the Effect of the ducting system on the performance of the electronic equipment has been characterized. This article describes a series of tests that were performed to verify the modeling assumptions for heat dissipation from and airflow through the equipment. The tests were performed using the actual electronic equipment in a representative cabin configuration and at cabin conditions. Results show that the equipment operates at a higher temperature at cabin conditions than at room conditions. This is due to the constant volumetric flow throughput of the equipment fan at higher altitudes but lower mass flow rate (i.e., lower density) at cabin conditions. Furthermore, the equipment back-pressure produced by the cooling system adds to the heating of the equipment. The compatibility of the equipment fan is also critical in the stacking arrangement of the equipment.
引用
收藏
页码:15 / 24
页数:10
相关论文
共 50 条
  • [31] IMPROVING HIGH-POWER OPO PERFORMANCE
    RADUNSKY, MB
    LASER FOCUS WORLD, 1995, 31 (10): : 107 - &
  • [32] Optics performance at high-power levels
    Blomster, Ola
    Palsson, Magnus
    Roos, Sven-Olov
    Blomqvist, Mats
    Abt, Felix
    Dausinger, Friedrich
    Deininger, Christoph
    Huonker, Martin
    SOLID STATE LASERS XVII: TECHNOLOGY AND DEVICES, 2008, 6871
  • [33] AUTOMATIC TESTING OF ELECTRONIC EQUIPMENT FOR AIRCRAFT
    ANSTEAD, JW
    RADIO AND ELECTRONIC ENGINEER, 1967, 33 (06): : 345 - &
  • [34] ELECTRONIC EQUIPMENT AT THE ROYAL AIRCRAFT ESTABLISHMENT
    不详
    NATURE, 1947, 160 (4065) : 444 - 445
  • [35] AUTOMATIC TESTING OF ELECTRONIC EQUIPMENT FOR AIRCRAFT
    ANSTEAD, JW
    RADIO AND ELECTRONIC ENGINEER, 1967, 34 (05): : 269 - &
  • [36] Machine suppliers debut entries in high-power compounding equipment
    Snyder, MR
    MODERN PLASTICS, 1997, 74 (11): : 91 - 91
  • [37] Reducing the Effect of High-Power Electromagnetic Waves on Electrical Equipment
    Amirkhani, Marzieh
    Amirkhani, Abdollah
    Karimian, Alireza
    SECOND INTERNATIONAL CONGRESS ON TECHNOLOGY, COMMUNICATION AND KNOWLEDGE (ICTCK 2015), 2015, : 513 - 518
  • [38] Overview of CASHIPS High-Power Electrical Equipment Test Facility
    Chen, Xiaojiao
    Huang, Liansheng
    Fu, Peng
    Gao, Ge
    Song, Zhiquan
    Xu, Liuwei
    He, Shiying
    Zhang, Xiuqing
    2018 IEEE 4TH SOUTHERN POWER ELECTRONICS CONFERENCE (SPEC), 2018,
  • [39] Study of high power electronic equipment test methodology
    He, Zhiyuan
    Tang, Guangfu
    Li, Ning
    Zheng, Jianchao
    Diangong Jishu Xuebao/Transactions of China Electrotechnical Society, 2007, 22 (01): : 67 - 73
  • [40] Electronic properties of diamond for high-power device applications
    Yater, JE
    Shih, A
    Abrams, R
    SOLID-STATE ELECTRONICS, 1998, 42 (12) : 2225 - 2232