Pulse Generation and Compression Techniques for Microwave Electronics and Ultrafast Systems

Ke Wu;MuhibUr Rahman
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引用次数: 1

Abstract

Ultrabroadband systems and ultrafast electronics require the generation, transmission, and processing of high-quality ultrashort pulses ranging from nanoseconds (ns) to picoseconds (ps), which include well-established and emerging applications of time-domain reflectometry, arbitrary waveform generation, sampling oscilloscopes, frequency synthesis, through-wall radar imaging, indoor communication, radar surveillance, and medical radar detection. Impulse radar advancements in industrial, scientific, and medical (ISM) domains are, for example, driven by ns-scale-defined ultrawideband (UWB) technologies. Nevertheless, the generation of ultrashort ps-scale pulses is highly desired to achieve unprecedented performances in all these applications and future systems. However, due to the variety and applicability of different pulse generation and compression techniques, the selection of optimum or appropriate pulse generators and compressors is difficult for practitioners and users. To this end, this article aims to provide a comprehensive overview of ultrashort ns and ps pulse generation and compression techniques. The proposed and developed pulse generators available in the literature and on the market, which are characterized by their corresponding pros and cons, are also explored. The theoretical analysis of pulse generation using a nonlinear transmission line (NLTL) presented in the literature is briefly explained as well. Additionally, a holistic overview of these pulse generators from the perspective of applications is given to describe their utilization in practical systems. All of these techniques are well summarized and compared in terms of fundamental pulse parameters, and research gaps in specified areas are highlighted. A thorough discussion of previous research work on various topologies and techniques is presented, and potential future directions for technical advancement are examined.
用于微波电子和超快系统的脉冲产生和压缩技术
超宽带系统和超快电子设备需要生成、传输和处理从纳秒(ns)到皮秒(ps)的高质量超短脉冲,其中包括时域反射计、任意波形生成、采样示波器、频率合成、穿墙雷达成像、室内通信、,雷达监视和医疗雷达探测。例如,脉冲雷达在工业、科学和医学(ISM)领域的进步是由ns级定义的超宽带(UWB)技术驱动的。然而,人们非常希望产生超短ps级脉冲,以在所有这些应用和未来的系统中实现前所未有的性能。然而,由于不同脉冲产生和压缩技术的多样性和适用性,从业者和用户很难选择最佳或适当的脉冲发生器和压缩机。为此,本文旨在全面介绍超短ns和ps脉冲的产生和压缩技术。还对文献和市场上提出和开发的脉冲发生器进行了探讨,这些脉冲发生器具有相应的优缺点。还简要解释了文献中提出的利用非线性传输线(NLTL)产生脉冲的理论分析。此外,从应用的角度对这些脉冲发生器进行了全面的概述,以描述它们在实际系统中的应用。从基本脉冲参数方面对所有这些技术进行了很好的总结和比较,并突出了特定领域的研究空白。对以前在各种拓扑结构和技术方面的研究工作进行了深入的讨论,并考察了技术进步的潜在未来方向。
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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