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Motion-Based Flight Simulator Usage for F-35 Control Law Development

机译:基于运动的飞行模拟器使用F-35控制法发展

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Real-time simulation is an integral part of the Vehicle Systems and Mission Systems design and risk reduction processes for the three variants of the Joint Strike Fighter (JSF), or F-35, aircraft-Conventional Take-Off and Landing (CTOL), Short Take-Off and Vertical Landing (STOVL), and Carrier Variant (CV). The JSF Program is relying on increased use of modelling and simulation to reduce verification cost and schedule. The F-35 Lockheed Martin/Northrop Grumman/BAE SYSTEMS team utilizes the unique motion capabilities of the NASA Ames Vertical Motion Simulator (VMS) for control law and pilot-vehicle interface design maturation and evaluation. The first in a series of motion-based tests was conducted in February and March 2004 to (1) evaluate flying qualities characteristics where high-fidelity motion is most beneficial, (2) identify design solutions for stressing, land-based and shipboard landings, and (3) mature STOVL control laws. Complex hardware and software were successfully integrated and tested to leverage sound design decisions. During the three-week motion experiment, eight pilots flew approximately 1,360 data runs. The investigative team consisted of personnel from BAE SYSTEMS, Corsair Training Systems, JSF Joint Program Office, Lockheed Martin Aeronautics Company (LM Aero), Northrop Grumman, National Aeronautics and Space Administration (NASA) Ames Research Center, Northrop Grumman Information Technology (IT), United Kingdom (UK) Ministry of Defense and QinetiQ. This paper discusses real-time simulation usage for F-35 control law and pilot-vehicle interface design. Results from the February/March 2004 NASA Ames VMS simulation, as well as preliminary results from LM Aero's-Fort Worth, TX motion-based simulator, are summarized. Plans for real-time motion simulation in (1) additional STOVL control law maturation activities and (2) verification tests in preparation for STOVL first flight are also presented.
机译:实时仿真是车辆系统的组成部分和任务系统设计和风险减少工艺,用于关节击攻战斗机(JSF)或F-35,飞机 - 传统的起飞和着陆(CTOL),短发出和垂直着陆(STOVL)和载体变体(CV)。 JSF计划依赖于增加建模和模拟的使用,以减少验证成本和计划。 F-35 Lockheed Martin / Northrop Grumman / Bae Systems团队利用NASA AMES垂直运动模拟器(VMS)的独特运动功能,用于控制法和试验车辆接口设计成熟和评估。 2004年2月和3月的一系列运动试验中的第一个评估了高保真运动最有益的速度特性,(2)确定强调,陆地和船上着陆的设计解决方案, (3)成熟的Stovl控制法律。复杂的硬件和软件已成功集成并测试以利用声音设计决策。在为期三周的运动实验期间,八个飞行员飞行了大约1,360个数据。调查团队由BAE系统,Corsair培训系统,JSF联合计划办公室,洛克希德马丁航空公司(LM Aero),国家航空航天局(NASA)AMES研究中心(NASA)北罗姆曼信息技术(IT)的人员组成。 ,英国(英国)国防部和Qinetiq。本文讨论了F-35控制法和试验车界面设计的实时仿真用法。结果来自2月/ 3月的NASA AMES VMS模拟,以及LM Aero's-Fort值,基于TX运动的模拟器的初步结果。 (1)额外的STOVL控制法成熟活动和(2)验证试验还提出了额外的STOVL控制法成熟活性和(2)验证测试。

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