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Toward the bi-modal camber morphing of large aircraft wing flaps: the CleanSky experience

机译:大型飞机机翼襟翼的双峰外倾变形:CleanSky体验

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The Green Regional Aircraft (GRA), one of the six CleanSky platforms, represents the largest European effort toward the greening of next generation air transportation through the implementation of advanced aircraft technologies. In this framework researches were carried out to develop an innovative wing flap enabling airfoil morphing according to two different modes depending on aircraft flight condition and flap setting: 1. Camber morphing mode. Morphing of the flap camber to enhance high-lift performances during take-off and landing (flap deployed); 2. Tab-like morphing mode. Upwards and downwards deflection of the flap tip during cruise (flap stowed) for load control at high speed and consequent optimization of aerodynamic efficiency. A true-scale flap segment of a reference aircraft (EASA CS25 category) was selected as investigation domain for the new architecture in order to duly face the challenges posed by real wing installation issues especially with reference to the tapered geometrical layout and 3D aerodynamic loads distributions. The investigation domain covered the flap region spanning 3.6 m from the wing kink and resulted characterized by a taper ratio equal to 0.75 with a root chord of 1.2 m. High TRL solutions for the adaptive structure, actuation and control system were duly analyzed and integrated while assuring overall device compliance with industrial standards and applicable airworthiness requirements.
机译:六个CleanSky平台之一的绿色支线飞机(GRA)代表了欧洲通过实施先进的飞机技术来实现下一代航空运输绿色化的最大努力。在此框架内进行了研究,以开发一种创新的机翼襟翼,该机翼襟翼可根据飞机的飞行条件和襟翼设置,根据两种不同的模式使机翼变形:1.弧形变形模式。使襟翼弯度变形以增强起飞和着陆期间的高升力性能(襟翼展开); 2.类似标签的变形模式。巡航期间襟翼末端的向上和向下偏转(襟翼收起),用于高速控制载荷,从而优化空气动力学效率。选择参考飞机的真实比例襟翼部分(EASA CS25类别)作为新架构的研究领域,以便适当地面对实际机翼安装问题带来的挑战,尤其是在锥形几何布局和3D气动载荷分布方面。研究区域覆盖了距机翼扭折3.6 m的襟翼区域,其特征是锥度比等于0.75,根弦为1.2 m。对自适应结构,致动和控制系统的高TRL解决方案进行了适当的分析和集成,同时确保整个设备符合工业标准和适用的适航性要求。

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