舰载高级教练机动力发展途径与未来趋势

彭云龙; 吴雄; 丁婷

doi:10.13224/j.cnki.jasp.2020.10.015

舰载高级教练机动力发展途径与未来趋势

doi: 10.13224/j.cnki.jasp.2020.10.015

计量
- 文章访问数: 181
- HTML浏览量: 0
- PDF量: 279
- 被引次数: 0
出版历程
- 收稿日期: 2020-03-26
- 刊出日期: 2020-10-28

Development path and future trend of carrier-based advanced trainer engine

1.
Unit 92728,the People’s Liberation Army of China,Shanghai 200436,China
2.
Human Resources Department,Shanghai Huaxun Network System Company Limited.,Shanghai 200127,China

摘要

摘要: 为探索舰载高级教练机动力发展途径与未来趋势,综述了高级教练机发动机发展的3个阶段,重点分析了舰载高级教练机对配套动力的使用性能要求和国外舰载高级教练机发动机现状。研究发现:舰载高级教练机配套动力应根据飞机平台动力的需求,在成熟涡扇发动机的基础上围绕长寿命、宽包线、低油耗、强性能保持、易保障维修及“适海性”等相关要求进行改进研制,或选择一款成熟的舰载战斗机动力降状态使用,并且未来将向更大推质比、更低耗油率、更大提取功率、更长使用寿命和飞发一体化设计的方向不断发展。
- 舰载高级教练机 /
- 航空发动机 /
- 适海性 /
- 发展途径 /
- 未来趋势
Abstract: To explore the development path and future development trend of carrier-based advanced trainer engine, three development stages of advanced trainer engine were summarized, the technical performance requirements of carrier-based advanced trainer engine and the current situation of carrier-based advanced trainer engine abroad were emphatically analyzed. It was found that the carrier-based advanced trainer engine should be developed based on mature turbofan engines for long life, wide flight envelope, low fuel consumption, strong performance retention, easy maintenance and “sea adaptation”, or a mature carrier-based fighter power with lower status was chosen, according to the aircraft platform power demand. In the future it would be further developed in the aspects of higher weight ratio, lower fuel consumption, greater extraction power, longer service life and aircraft-engine integration design.
- carrier-based advanced trainer /
- aero-engine /
- sea adaptation /
- development path /
- future trend

HTML

参考文献(26)

[1]	吴雄,金惠明.国外舰载飞机飞行员培养模式发展启示［J］.教练机,2016(3):6-10. WU Xiong,JIN Huiming.Inspiration from development of pilot’s training mode for carrier aircraft at abroad［J］.Trainer,2016(3):6-10.(in Chinese)
[2]	潘应雄,李泰安,刘卓,等.美国空海军联合高级教练机训练需求探析［J］.教练机,2012(4):47-52. PAN Yingxiong,LI Taian,LIU Zhuo,et al.Research on training requirement of the U.S. joint AJT［J］.Trainer,2012(4):47-52.(in Chinese)
[3]	黄种荣,梁云瑞.飞行训练体质与教练机的发展［J］.教练机,2011(1):7-10. HUANG Zhongrong,LIANG Yunrui.Flight training system and development of trainer［J］.Trainer,2011(1):7-10.(in Chinese)
[4]	世界飞机手册编写组.世界飞机手册(2000)［M］.北京:航空工业出版社,2001.
[5]	王大明.国际上教练机的装备需求浅析［J］.教练机,2014(4):25-30. WANG Daming.Analysis on equipment requirements for trainer abroad［J］.Trainer,2014(4):25-30.(in Chinese)
[6]	THOMAS R.US air force pilot selection and training methods［R］.Dayton:Air Force Research Laboratory,2000.
[7]	刘卓,潘应雄.新一代高级教练机发展趋势研究［J］.教练机,2010(4):26-29. LIU Zhuo,PAN Yingxiong.Research of the development trend of new generation advanced jet trainer［J］.Trainer,2010(4):26-29.(in Chinese)
[8]	刘勤,周人治,王占学.军用航空发动机特征分析［J］.燃气涡轮试验与研究,2014,27(4):59-62. LIU Qin,ZHOU Renzhi,WANG Zhanxue.Characteristic analysis on military aero-engines［J］.Gas Turbine Experiment and Research,2014,27(4):59-62.(in Chinese)
[9]	TIRPAK J A.Teeing up the T-X［J］.Air Force Magazine,2015,98(6):48-50.
[10]	CEIR C.Advanced pilot training(T-X) program background and issues for congress［R］.Washington:Congressional Research Service,2017.
[11]	JEREMIAH G.Air force T-7A red hawk trainer［R］.Washington:Congressional Research Service,2019.
[12]	PIKE J.T-7A red hawk/T-X advanced trainer replacement［EB/OL］.［2019-10-17］.https://www.globalsecurity.org/military/systems/aircraft/t-7.htm.
[13]	胡军龙.T-45舰载教练机作战基础训练［J］.教练机,2014(4):8-12. HU Junlong.Basic operational training of T-45 carrier-based trainer［J］.Trainer,2014(4):8-12.(in Chinese)
[14]	彭友梅.舰载飞机发动机的技术特点［J］.燃气涡轮试验与研究,2005,18(2):56-57. PENG Youmei.Technical features for ship-board aircraft engine［J］.Gas Turbine Experiment and Research,2005,18(2):56-57.(in Chinese)
[15]	霍亮,侯昕序,齐红德,等.EWIS耐海洋环境设计［J］.飞机设计,2019,39(1):45-48. HUO Liang,HOU Xinxu,QI Hongde,et al.Marine environment resistant design of EWIS［J］.Aircraft Design,2019,39(1):45-48.(in Chinese)
[16]	肖军,廖志忠,吴连锋.空空导弹弹体结构海洋环境腐蚀防护［J］.航空兵器,2019,26(6):86-92. XIAO Jun,LIAO Zhizhong,WU Lianfeng.Study on corrosion protection on structure of air-to-air missiles in marine environment［J］.Aero Weaponry,2019,26(6):86-92.(in Chinese)
[17]	MICHAEL F.The Rolls-Royce/Turbomeca Adour the optimum trainer engine［R］.Brussels:Gas Turbine and Aero-engine Congress and Exposition,1990.
[18]	VALERIE I.The Air Force’s new trainer jet is attracting the Navy’s and Marine Corps’ interests［EB/OL］.［2019-05-07］.https://www.defensenews.com/digital-show-dailies/navy-league/2019/05/07.htm.
[19]	Naval Air System Command.US naval aviation vision 2016-2035［M］.Washington:Naval Aviation Enterprise,2016.
[20]	GERTLER J.F-35 joint strike fighter(JSF) program［R］.Washington:Congressional Research Service,2018.
[21]	朱宇,朱妍如.新型教练机发展需求与APT方案［J］.教练机,2015(1):11-15. ZHU Yu,ZHU Yanru.Development demand and APT program of new-type trainer［J］.Trainer,2015(1):11-15.(in Chinese)
[22]	朱宇.APT方案与一机五型构想［J］.教练机,2016(1):7-10. ZHU Yu.APT plan and idea for an aircraft with five versions［J］.Trainer,2016(1):7-10.(in Chinese)
[23]	梁春华,索德军,孙明霞.美国第6代战斗机发动机关键技术综述［J］.航空发动机,2016,42(2):93-97. LIANG Chunhua,SUO Dejun,SUN Mingxia.A review on the key technologies of the sixth generation fighter engines in US［J］.Aeroengine,2016,42(2):93-97.(in Chinese)
[24]	程荣辉,张志舒,陈仲光.第四代战斗机动力技术特征和实现途径［J］.航空学报,2019,40(3):022698.1-022698.10. CHENG Ronghui,ZHANG Zhishu,CHEN Zhongguang.Technical characteristics and implementation of the fourth-generation jet fighter engines［J］.Acta Aeronautica et Astronautica Sinica,2019,40(3):022698.1-022698.10.(in Chinese)
[25]	李宏新,谢业平.从航空发动机视角看飞/发一体化问题［J］.航空发动机,2019,45(6):1-8. LI Hongxin,XIE Yeping.Fundamental issues of aircraft/engine integration from the perspective of aeroengine［J］.Aeroengine,2019,45(6):1-8.(in Chinese)
[26]	晏武英.制空作战飞机发动机发展历程及未来趋势［J］.航空动力,2020(1):59-64. YAN Wuying.Development and future trend of air superiority fighter engine［J］.Aerospace Power,2020(1):59-64.(in Chinese)