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Radar-absorbing structure with nickel-coated glass fabric and its application to a wing airfoil model

机译:镀镍玻璃纤维的雷达吸收结构及其在机翼模型中的应用

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In this study, a thin lightweight single-and double-slab with a nickel-coated glass-fabric design manufactured via the mass production electroless plating method is proposed for an enhanced echo radar cross section (RCS) for curved surfaces. The main objective of this research is to reduce the echo RCS from the C-band to the Ku-band (in GHz) for a wing airfoil model (NACA0012) radar-absorbing structure. For conventional microwave absorption performance, a high weight percentage of nano-conductive particles within a polymer matrix is crucial. However, certain difficulties are encountered in terms of high viscosity and thickness control in the polymer matrix for its application to the curved surface of the wing airfoil model. The proposed RCS absorber models reduce these difficulties associated with conventional RCS models. When the proposed absorbers are applied to the wing structures to cover the entire surface, the simulated results of the echo RCS level capacity demonstrate a 10-dB reduction from the C-Band to Ku-band for a wide-angle oblique incidence in both the horizontal and vertical polarizations. From a practical standpoint, these results show that nickel-coated-glass-fabric/epoxy composites have a tremendous potential for application to the wing airfoil model in a stealth aircraft. (C) 2017 Elsevier Ltd. All rights reserved.
机译:在这项研究中,提出了一种通过批量生产化学镀方法制造的,具有镀镍玻璃纤维设计的轻型薄单板和双板,用于弯曲表面的增强型回波雷达截面(RCS)。这项研究的主要目的是减少机翼模型(NACA0012)雷达吸收结构从C波段到Ku波段的回波RCS(以GHz为单位)。对于常规的微波吸收性能,聚合物基质内高重量百分比的纳米导电颗粒至关重要。然而,在聚合物基体中的高粘度和厚度控制方面,在将其应用于机翼翼型模型的弯曲表面方面遇到了某些困难。提出的RCS吸收器模型减少了与常规RCS模型相关的这些困难。当将拟议的吸收器应用于机翼结构以覆盖整个表面时,回波RCS声级容量的模拟结果表明,从C波段到Ku波段,由于两个方向的广角倾斜入射,其衰减都降低了10 dB。水平和垂直极化。从实际的角度来看,这些结果表明,镀镍玻璃纤维织物/环氧树脂复合材料在隐形飞机的机翼翼型模型中具有巨大的应用潜力。 (C)2017 Elsevier Ltd.保留所有权利。

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