Time Modulated Array Antennas: A Review

Wen Wu;Qiaoyu Chen;Jin-Dong Zhang;Tongde Huang;Da-Gang Fang
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Abstract

Time-modulated array (TMA) antennas, introduce the dimension of time into antenna design to control the radiation patterns and frequency spectral characteristics, thus improve the reconfigurability of array antennas and provide multiple functionalities. They have great application potential in military and civilian fields, such as precision guidance and mobile communication, and are currently a hot spot of academic research. This article provides a review on the fundamentals and applications of TMAs. First, the basic theory and mathematical formulations of TMAs are introduced. Second, the most important applications of TMAs, namely time-modulated phased arrays (TMPA), are discussed from the perspectives of harmonic suppression and harmonic utilization, which are used for single-beam and multibeam radiation. Then, we survey the combination of TMA with various types of novel antenna arrays, such as single-channel digital beamforming (DBF) arrays, frequency diverse arrays (FDAs), and retrodirective arrays, to create new hardware implementation methods and enhance their performance. Next, recent advances in dedicated integrated chips for TMA, which have played a significant role in driving the progress of TMAs from academic research to practical applications, are presented. Finally, the challenges and prospects for TMAs are discussed, including new research directions and emerging application scenarios.
时间调制阵列天线:综述
时间调制阵列(TMA)天线将时间维度引入天线设计,以控制辐射模式和频谱特性,从而提高阵列天线的可重构性并提供多种功能。它们在精确制导和移动通信等军事和民用领域具有巨大的应用潜力,是当前学术研究的热点。本文对 TMA 的基本原理和应用进行了综述。首先,介绍了 TMA 的基本理论和数学公式。其次,从谐波抑制和谐波利用的角度讨论了 TMA 最重要的应用,即用于单波束和多波束辐射的时间调制相控阵(TMPA)。然后,我们研究了 TMA 与各种新型天线阵列(如单通道数字波束成形(DBF)阵列、频率多样化阵列(FDA)和逆向阵列)的结合,以创建新的硬件实现方法并提高其性能。接下来,介绍了 TMA 专用集成芯片的最新进展,这些芯片在推动 TMA 从学术研究走向实际应用方面发挥了重要作用。最后,讨论了 TMA 面临的挑战和前景,包括新的研究方向和新兴应用场景。
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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