网状微带传输线的设计与特性

Z. Silva, C. Valenta, G. Durgin
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引用次数: 10

摘要

制造技术的进步使制造微孔导电结构的能力得以实现,这种结构在各种电气工程技术中都有应用。本文提出了一种基于固体地平面的2.4 GHz微网格传输线的理论分析,并用仿真结果和实验室测量结果进行了验证。正如预期的那样,导电面积的减小导致单位长度电容的减小,网状结构导致单位长度电感的增加,从而导致特性阻抗的总体增加和电长度的增加。结果表明,使用FR-4将微带传输线上的导电材料减少到16%的网格实现必须比其固体金属对应物宽44%才能保持50 Ω阻抗。长度必须同样增加4%,以保持相同的电气长度。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design and Characterization of Meshed Microstrip Transmission Lines
Advancements in manufacturing techniques have enabled the ability to create micro-mesh conductive structures which have applications in a variety of electrical engineering technologies. This paper presents the theoretical analysis verified with simulated results and laboratory measurements of a 2.4 GHz micro-mesh transmission line over a solid ground plane. As expected, the reduction in conductive area results in a decrease in capacitance per unit length, and the mesh structure results in an increase in inductance per unit length leading to an overall increase in characteristic impedance and increase in electrical length. Results show that the mesh implementation to reduce the conductive material to 16% on a microstrip transmission line using FR-4 must get 44% wider than its solid metal counterpart to maintain 50 Ω impedance. Length must be similarly increased by a factor of 4% to maintain the same electrical length.
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