Radar Evasion Control of Military Structures Using Graphene Oxide Coating RGO/NiFe2O4 and Polynomial Profile Monitoring

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Abstract

Tracking military structures and equipment is one of the parameters to create superiority in military battles. Camouflage has long been used to reduce the possibility of detection of military structures and equipment. Development of knowledge in the field of tracking and discovering military structures and equipment followed by the necessity of using the concealment in order to reduce vulnerability in war, has enhanced the importance of using new camouflage and radar evasion methods. The use of nanotechnology in the field of radar evasion of military facilities was developed by introducing graphene as a very strong absorber of electromagnetic waves. Graphene coating on the military installations causes the absorption of electromagnetic waves and as a result, these installations are not detected by the enemy's radar. Referring to the fact that there is a functional relationship between the diameter of the graphene oxide used and the radar evasion of the equipment, an attempt has been made in this article for the first time to find a solution to control and monitor the radar evasion quality using graphene oxide (with the scientific name of RGO/NiFe2O4) in the microwave spectrum of 7GHZ by the profile approach and presentation of a regression relationship. This model can be used to monitor the quality of radar evasion products (cheaper and faster than existing methods). Finally, sensitivity analysis of the model showed that the ability to detect non-conformity in the manufactured products can be detected quickly (between 1 and 20 samples) with the change in the parameters of the regression model.
基于氧化石墨烯涂层RGO/NiFe2O4和多项式剖面监测的军事结构躲避雷达控制
跟踪军事结构和装备是在军事战斗中创造优势的参数之一。长期以来,伪装一直被用来减少军事结构和装备被发现的可能性。在跟踪和发现军事结构和装备领域的知识的发展,以及为了减少战争中的脆弱性而使用隐藏的必要性,增强了使用新的伪装和雷达逃避方法的重要性。纳米技术在军事设施躲避雷达领域的应用是通过引入石墨烯作为一种非常强的电磁波吸收剂而开发的。军事设施上的石墨烯涂层会吸收电磁波,因此这些设施不会被敌人的雷达探测到。针对所使用的氧化石墨烯直径与设备的雷达躲避性能之间存在函数关系的问题,本文首次尝试通过剖面法和回归关系的提出,找到在7GHZ微波频谱中使用氧化石墨烯(学名为RGO/NiFe2O4)控制和监测雷达躲避质量的解决方案。该模型可用于监测雷达规避产品的质量(比现有方法更便宜和更快)。最后,对模型的敏感性分析表明,随着回归模型参数的变化,对制成品不合格的检测能力可以快速检测到(1 ~ 20个样品之间)。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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