The Future of Antennas

M. Adcock, R. Hiatt, K. Siegel
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Abstract

Although the rate and direction of advancement of the antenna field depends to a large extent on new inventions and techniques, and on the discovery of new materials, it is possible to indicate some of the trends which may be expected. The major advances in the near future will probably come in the areas of data-processing antennas and dynamic antennas. In the data-processing antenna, increased information is obtained by processing the signals available at the antenna terminals; in dynamic antennas, antenna performance is enhanced by time-modulating the aperture transfer function. It is likely that the most significant applications of dataprocessing antennas will be in the fields of radio astronomy and communications. Electronic scanning, another well-known technique of beam pointing, should lend itself naturally to the data-processing antenna approach, particularly since, for other purposes, the arrays will be used with computers. Such antennas will supersede movable large reflector types, for communication with space vehicles. Very large electronic scanning antennas will probably be built on the ground or on a horizontal plane, for minimum wind resistance. It may be expected, further, that electronic scanning arrays will be built in various shapes for installation on missiles or satellites. In order to achieve larger antennas for increased tracking and communications capability, greater transmitted power, larger apertures, and natural geographic features may be used as foundation elements of the antenna. Canyons and cliffs, for example, could be used as reflecting surfaces if suitably coated.
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天线的未来
虽然天线领域的发展速度和方向在很大程度上取决于新发明和新技术以及新材料的发现,但仍有可能指出一些可以预期的趋势。在不久的将来,数据处理天线和动态天线可能会取得重大进展。在数据处理天线中,通过处理天线终端上可用的信号获得增加的信息;在动态天线中,通过对孔径传递函数进行时间调制来提高天线性能。数据处理天线最重要的应用很可能是在射电天文学和通信领域。电子扫描是另一种众所周知的波束指向技术,它应该自然地适用于数据处理天线方法,特别是因为,为了其他目的,这些阵列将与计算机一起使用。这种天线将取代可移动的大型反射式天线,用于与太空飞行器的通信。非常大的电子扫描天线可能会建在地面或水平面上,以减少风的阻力。此外,可以预期,电子扫描阵列将被制成各种形状,以便安装在导弹或卫星上。为了实现更大的天线以增加跟踪和通信能力,可以使用更大的传输功率、更大的孔径和自然地理特征作为天线的基础元件。例如,峡谷和悬崖,如果涂上适当的涂层,就可以用作反射表面。
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