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火箭技术

反辐射导弹/SPATR发动机总体性能计算

  • 黄兴 ,
  • 蔡元虎 ,
  • 陈玉春 ,
  • 陈湘
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  • 西北工业大学动力与能源学院,西安 710072

黄兴(1983-),湖北荆州人,博士研究生,研究方向:航空宇航推进理论与工程。

收稿日期: 2010-05-10

  网络出版日期: 2025-05-30

Overall Performance Calculation of Anti-radiation Missiles/SPATR

  • HUANG Xing ,
  • CAI Yuanhu ,
  • CHEN Yuchun ,
  • CHEN Xiang
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  • School of Power and Energy, Northwestern Polytechnical University, Xi'an 710072 China

Received date: 2010-05-10

  Online published: 2025-05-30

摘要

参考飞航导弹/涡扇发动机一体化设计的思路,建立了基于能量法的反辐射导弹/固体推进剂空气涡轮火箭发动机(SPATR,solidpropellantairturborocket)总体性能计算的约束分析和任务分析模型并给出相应的算例和分析。简述了空射反辐射导弹任务剖面、约束条件的给定、导弹的重量组成以及SPATR发动机模型。计算结果表明,相比采用固体火箭发动机的HARM导弹,采用SPATR发动机的反辐射导弹具有超音速飞行(H=11km,2.5Ma;H=3km,1.8Ma)、远航程(低、高空航程均增加47%以上)和盘旋待机(H=3km,0.6Ma,300s)能力,其性能极具使用价值。

本文引用格式

黄兴 , 蔡元虎 , 陈玉春 , 陈湘 . 反辐射导弹/SPATR发动机总体性能计算[J]. 弹箭与制导学报, 2011 , 31(6) : 129 -132 . DOI: 10.15892/j.cnki.djzdxb.2011.06.057

Abstract

By using the method of maneuverable missile and turbofan engine integrated analysis, a constrain and mission analysis model of anti-radiation missile and SPATR's overall performance calculation was developed and the competitive examples and the analysis were given. The mission section, the constrain conditions, the weight composition of the anti-radiation missile and the model used in SPATR were presented. Compared with anti-radiation missile with solid rocket, constrain analysis results and the mission analysis results of some anti-radiation missiles indicate that anti-radiation missiles with SPATR have supersonic flight capacity (H=11km, 2.5Ma, H=3km, 1. 8Ma), a farther missile flight range capacity (greater than 47%), hovering and standby capacity (H=3km, 0.6Ma,300s), whose performance has well application value.

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参考文献

[1]
ME Thomas, KL Christensen. Air-turbo-ramjet propulsion for tactical missiles, AIAA-94-2719 [R]. 1994.
[2]
ME Thomas. Monorotor turbomachinery for air-turbo-rocket engine, AIAA-95-2804[R]. 1995.
[3]
JA Bossard, ME Thomas. The influence of turbomachinery characteristics on air turbo rocket engine operation, AIAA-2000-3308 [R]. 2000.
[4]
ME Thomas, JA Bossard, MJ Ostrander. Addressing emerging tactical missile propulsion challenges with the solid propellant air-turbo-rocket, AIAA - 2000 3309 [R]. 2000.
[5]
KL Christensen. Comparison of methods for calculating turbine work in the air turbo rocket[J]. Journal of Propulsion and Power, 2001,17(2): 256-261.
[6]
Mike Lyon. Advanced propulsion for tactical missiles[C]// NDIA Conference on Armaments for the Army Transformation, 2001.
[7]
屠秋野, 陈玉春. 固体推进剂吸气式涡轮火箭发动机的建模及特征研究[J]. 固体火箭技术,2006,29(5): 317-319.
[8]
CHEN Xiang, CAI Yuan-hu, CHEN Yu-chun. Thermodynamic cycle analysis of solid propellant air-turbo rocket[J]. Journal of Aerospace Power, 2009, 24(2): 269-276.
[9]
Mattingly JD, Heiser WH, Daley D H. Aircraft engine design[M]. : AIAA, Inc, 1987.
[10]
陈玉春, 刘振德. 飞航导弹/涡扇发动机一体化设计一约束分析与任务分析[J]. 推进技术,2006,27(3): 216-220.
[11]
陈玉春, 崔高峰. 基于能量法的超声速飞航导弹/冲压发动机一体化研究[J]. 固体火箭技术,2009,32(2): 119-122.
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