Evangelos Tsipas, Emmanouil Stavroulakis, Ioannis K. Chatzipaschalis, K. Rallis, Nikolaos Vasileiadis, P. Dimitrakis, A. Kostopoulos, G. Konstantinidis, G. Sirakoulis
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引用次数: 0
摘要
由于 CMOS 技术带来的明显挑战,忆阻器的诱人特性已被用于设计前景广阔的新型电路。同样,在过去几年中,射频工程领域的研究重点是用忆阻器开关取代微机电系统。最近对这些开关进行了研究、制造和表征,结果表明它们在高频刺激下具有良好的工作特性。在这项工作中,我们采用了一种广泛使用的忆阻器模型,以精确拟合所研究器件的物理特性,包括几何形状和材料成分。随后,我们采用了三种常见的电路拓扑结构,并对其进行了研究和模拟,以提取与 50Ω 负载终端相匹配的忆阻器开关的 S 参数。我们的研究结果确保了所研究的基于忆阻器的开关在 FMAX=50GHz 频率范围内具有足够的功能,并提出了前景广阔的建议,略微超出了文献中以往研究的预测结果。最后,我们还提出了一种进一步改进所提电路的方法,以提高所设计开关的功率处理能力。
The enticing properties of memristors have been exploited for the design of novel circuits with great prospects, owing to the visible challenges posed by CMOS technology. Similarly, research efforts in the field of RF engineering over the last few years have focused on replacing MEMS with memristive switches. These switches have been recently investigated, fabricated, and characterized, demonstrating promising operational characteristics under high-frequency stimuli. In this work, a widely employed memristor model has been used to accurately fit the physical characteristics of the devices under investigation, including geometry and material composition. Subsequently, three common circuit topologies are adopted, studied, and simulated to extract the S-Parameters of the memristor-based switches matched to 50Ω load terminations. Our findings ensure sufficient functionality of the examined memristor-based switches up to FMAX=50GHz and suggest promising perspectives, slightly exceeding the projected results in previous studies found in the literature. Finally, a method for further enhancing the proposed circuit, in terms of increasing the power handling capability of the designed switches, is also proposed.