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Design and simulation of 1THz hybrid transmission structure based on a polymer

机译:基于聚合物的1个混合传动结构的设计与仿真

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In view of the problems of large transmission loss and high processing accuracy requirements of the traditional transmission structure in the THz frequency band, this paper proposes a hybrid transmission structure based on a polymer-supported suspended microstrip and a waveguide cavity. This structure reduces the THz signal plane transmission time. The loss increases the physical size to the greatest extent, ensures the signal single-mode transmission and reduces the process difficulty of cavity processing, making it possible to transmit low-loss planar transmission of terahertz signals greater than 1THz. In this paper, a high-frequency electromagnetic simulation of the transmission characteristics of this structure in the 0.75–1.1THz frequency band is conducted. In the case of a shielding cavity size of 60umX70um, the loss is 48-60Np/m, and the S12 is −1.88-2.8dB. Similar to the air dielectric strip line, it is far superior to the 3um thin film microstrip transmission structure. In this paper, the structures of four different media are simulated and compared, and the influence of the position of the supporting metal in the structure on the transmission characteristics is also discussed in detail. The proposal of this structure is expected to solve the problem of excessive transmission loss of TMIC circuits greater than 1THz, and provide strong support for the future design and manufacture of TMIC circuits.
机译:鉴于THZ频带中传输损耗和传统传输结构的高处理精度要求的问题,本文提出了一种基于聚合物支撑的悬浮微带和波导腔的混合传动结构。该结构降低了THz信号平面传输时间。的损耗增加的物理尺寸以最大程度,保证了信号的单模传输,并减少型腔的加工的过程中的困难,从而能够太赫兹信号比1THz的更大的发射低损耗平面传输。本文采用了0.75-11频带中该结构的传输特性的高频电磁仿真。在屏蔽腔尺寸为60umx70um的情况下,损耗为48-60np / m,S12为-1.88-2.8dB。类似于空气介电条线,它远远优于3um薄膜微带传动结构。在本文中,模拟和比较了四种不同介质的结构,并且还详细讨论了支撑金属在结构上的结构中的影响。预计该结构的提议有望解决大于1七的TMIC电路的过度传输损失问题,并为未来的TMIC电路设计提供了强大的支持。

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