Interference-free wind tunnel testing of jet propelled missiles

被引:2
|
作者
Korst, HH
White, RA
Page, RH
机构
[1] Univ Illinois, Dept Mech & Ind Engn, Urbana, IL 61801 USA
[2] Texas A&M Univ, College Stn, TX 77843 USA
来源
AEROSPACE SCIENCE AND TECHNOLOGY | 1998年 / 2卷 / 08期
关键词
wind tunnel evaluation; aerodynamic interaction; propelled missile; missile body; wake boundary; nozzle geometry; Reynolds number;
D O I
10.1016/S1270-9638(99)80007-8
中图分类号
V [航空、航天];
学科分类号
08 ; 0825 ;
摘要
Wind tunnel evaluation of the aerodynamic interaction effects between plume and the external flow past the missile body including the wake boundary ("slipstream") over powered flight envelopes of rocket propelled vehicles can be greatly facilitated - or even made possible - by a methodology replacing the hot propellant by cold, inert gases. Model nozzle design is based on the second order matching of plume geometry and first order modeling of plume stiffness. Since modeled nozzles will have larger throat radii than the prototypes, one can; use sting-supported, sting-fed model installations thus eliminating aerodynamic interference effects due to struts. The concepts of simulated altitude and simulated full-scale Reynolds Number greatly reduce wind tunnel occupancy time. Computer programs, covering all steps of evaluating prototype nozzle performance, model sting nozzle design, model test evaluation and interpretation have been developed. The modeling methodology is supported by experimental results obtained in an induction wind tunnel at the FFA, Bromma, Sweden and in the 16 T and VKF-A altitude tunnels at AEDC, Tullahoma, Tenn. (C) Elsevier, Paris.
引用
收藏
页码:481 / 488
页数:8
相关论文
共 50 条
  • [31] Dual hologram shearing interference technique with enhanced sensitivity for wind tunnel testing
    Toker, G
    Levin, D
    Lessin, A
    EXPERIMENTS IN FLUIDS, 1998, 25 (5-6) : 519 - 521
  • [32] Modeling Interference-Free Neuron Spikes With Optogenetic Stimulation
    Noel, Adam
    Monabbati, Shayan
    Makrakis, Dimitrios
    Eckford, Andrew W.
    IEEE TRANSACTIONS ON MOLECULAR BIOLOGICAL AND MULTI-SCALE COMMUNICATIONS, 2019, 5 (02): : 100 - 111
  • [33] Determination of interference-free optical constants of thin films
    Mahanty, S
    Basak, D
    Merino, JM
    Leon, M
    MATERIALS SCIENCE AND ENGINEERING B-SOLID STATE MATERIALS FOR ADVANCED TECHNOLOGY, 1999, 68 (02): : 72 - 75
  • [34] Interference-free walks in time: temporally disjoint paths
    Nina Klobas
    George B. Mertzios
    Hendrik Molter
    Rolf Niedermeier
    Philipp Zschoche
    Autonomous Agents and Multi-Agent Systems, 2023, 37
  • [35] An Interference-free Multicast for Mesh Networks with Directional Antennas
    Yang, Wen-Lin
    Tung, Cheng-Huang
    2009 FIRST INTERNATIONAL CONFERENCE ON UBIQUITOUS AND FUTURE NETWORKS, 2009, : 171 - +
  • [36] An NFV Orchestration Framework for Interference-free Policy Enforcement
    Li, Xin
    Qian, Chen
    PROCEEDINGS 2016 IEEE 36TH INTERNATIONAL CONFERENCE ON DISTRIBUTED COMPUTING SYSTEMS ICDCS 2016, 2016, : 649 - 658
  • [37] Secure and Interference-Free Transmission in Wireless Multiuser Networks
    He, Hongliang
    Chen, Nengcheng
    Gao, Di
    Li, Xingmei
    Yang, Min
    IEEE COMMUNICATIONS LETTERS, 2024, 28 (10) : 2238 - 2242
  • [38] Experimental Investigation of Free Jet Pulsations in the Wind Tunnel with an Open Test Section
    Baranov, S. A.
    Batura, N. I.
    Gadzhimagomedov, G. G.
    Sboev, D. S.
    INTERNATIONAL CONFERENCE ON THE METHODS OF AEROPHYSICAL RESEARCH (ICMAR 2018), 2018, 2027
  • [39] Interference-free walks in time: temporally disjoint paths
    Klobas, Nina
    Mertzios, George B.
    Molter, Hendrik
    Niedermeier, Rolf
    Zschoche, Philipp
    AUTONOMOUS AGENTS AND MULTI-AGENT SYSTEMS, 2023, 37 (01)
  • [40] Orthogonal complementary codes for interference-free CDMA technologies
    Chen, HH
    Chiu, HW
    Guizani, M
    IEEE WIRELESS COMMUNICATIONS, 2006, 13 (01) : 68 - 79