Test techniques for STOVL large-scale powered models

被引:0
|
作者
Wardwell, DA [1 ]
Naumowicz, T [1 ]
Hange, CE [1 ]
Arledge, TK [1 ]
Margason, RJ [1 ]
机构
[1] NASA,AMES RES CTR,MOFFETT FIELD,CA
关键词
D O I
暂无
中图分类号
V [航空、航天];
学科分类号
08 ; 0825 ;
摘要
Predicting and testing for hover performance, both in and out of ground effect, and transition performance, from jet- to wing-borne flight and back, for vertical/short takeoff and landing (V/STOL) configurations can be a difficult task. Large-scale testing of these configurations can provide for a better representation of the flow physics than small-scale testing. This paper will discuss some of the advantages in testing at large-scale and some test techniques and issues involved with testing large-scale STOVL models. The two premier test facilities for testing large- to full-scale STOVL configurations are the Outdoor Aerodynamic Research Facility (OARF) and the 80- by 120-Foot Wind Tunnel of the National Full-Scale Aerodynamics Complex (NFAC). Other items of discussion will include force and moment measurements, jet efflux decay, wall effects, tunnel flow breakdown, strut interference, and now visualization options. The most recent use of NASA Ames Research Center's test facilities were in testing Lockheed Martin's Large-Scale Powered Model (LSPM) of their Joint Strike Fighter (JSF) configuration The LSPM model description and related test issues will be presented throughout this paper.
引用
收藏
页码:11 / 21
页数:11
相关论文
共 50 条
  • [31] Modeling techniques for large-scale PCS networks
    Lin, YB
    IEEE COMMUNICATIONS MAGAZINE, 1997, 35 (02) : 102 - 107
  • [32] Manage small projects with large-scale techniques
    Palluzi, RP
    CHEMICAL ENGINEERING, 2003, 110 (05) : 69 - 71
  • [33] Large-scale production techniques for photonic nanostructures
    Bogaerts, W
    Wiaux, V
    Dumon, P
    Taillaert, D
    Wouters, J
    Beckx, S
    Van Campenhout, J
    Luyssaert, B
    Van Thourhout, D
    Baets, R
    NANO-AND MICRO-OPTICS FOR INFORMATION SYSTEMS, 2003, 5225 : 101 - 112
  • [34] Large-scale structure assessed with Voronoi techniques
    Meurs, EJA
    Wilkinson, MI
    OBSERVATIONAL COSMOLOGY: THE DEVELOPMENT OF GALAXY SYSTEMS, 1999, 176 : 333 - 334
  • [35] Navigation techniques for large-scale astronomical exploration
    Fu, Chi-Wing
    Hanson, Andrew J.
    Wernert, Eric A.
    VISUALIZATION AND DATA ANALYSIS 2006, 2006, 6060
  • [36] ISOLATION TECHNIQUES FOR VERY LARGE-SCALE INTEGRATION
    BEERNAERT, D
    SCHOLS, G
    VANISEGHEM, P
    ELECTRICAL COMMUNICATION, 1982, 57 (02): : 161 - 166
  • [37] Data Selection Techniques for Large-scale RankSVM
    Lin, Ken-Yi
    Jan, Te-Kang
    Lin, Hsuan-Tien
    2013 CONFERENCE ON TECHNOLOGIES AND APPLICATIONS OF ARTIFICIAL INTELLIGENCE (TAAI), 2013, : 25 - 30
  • [38] Optimization of large-scale wind-powered centrifugal pumps
    Siddig, Mohammed Hashim
    WIND ENGINEERING, 2019, 43 (05) : 476 - 487
  • [39] A graph-powered large-scale fraud detection system
    Zhao Li
    Biao Wang
    Jiaming Huang
    Yilun Jin
    Zenghui Xu
    Ji Zhang
    Jianliang Gao
    International Journal of Machine Learning and Cybernetics, 2024, 15 : 115 - 128
  • [40] Short Packet Communications in Large-Scale Wireless Powered Networks
    Psomas, Constantinos
    Kourtellaris, Christos K.
    Krikidis, Ioannis
    2019 IEEE 20TH INTERNATIONAL WORKSHOP ON SIGNAL PROCESSING ADVANCES IN WIRELESS COMMUNICATIONS (SPAWC 2019), 2019,