共形天线的混合增材制造

M. N. Esfahani, M. P. Shuttleworth, R. A. Harris, R. Kay, V. Doychinov, I. Robertson, J. Marqués-Hueso, T. Jones, A. Ryspayeva, M. Desmulliez
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引用次数: 4

摘要

本文提出了一种新的数字驱动制造工艺链,用于生产高性能、三维射频器件。这是通过结合熔融长丝制造聚醚酰亚胺基聚合物、选择性光基合成纳米银和电化学沉积铜来实现的。由此产生的制造方法生产的器件具有优异的直流电阻率(6.68 μΩ cm)和介电性能(相对介电常数为2.67,损耗正切为0.001)。化学修饰和图像化基板以产生金属化,克服了直接写入沉积方法的许多限制,从而提高了天线图像化的性能,附着力和分辨率。在0.1 GHz ~ 10ghz的宽带范围内,实验结果与仿真设计在较宽的频带范围内完全吻合。总的来说,用作衬底的材料具有比FR-4低的相对介电常数和更低的介电损耗,从而使它们非常适合天线应用。
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Hybrid Additive Manufacture of Conformal Antennas
This paper presents a new digitally driven manufacturing process chain for the production of high performance, three-dimensional RF devices. This is achieved by combining Fused Filament Fabrication of polyetherimide based polymer with selective light-based synthesis of silver nanoparticles and electrochemical deposition of copper. The resultant manufacturing method produces devices with excellent DC electrical resistivity (6.68 μΩ cm) and dielectric properties (relative permittivity of 2.67 and loss tangent of 0.001). Chemically modifying and patterning the substrate to produce the metallization overcomes many of the limitations of direct write deposition methods resulting in improved performance, adhesion and resolution of the antenna pattern. The fabricated demonstrators cover a broadband range of 0.1 GHz – 10 GHz and the measured results show a direct agreement with the simulated design over a wide frequency band. Overall the materials used as a substrate have a low relative permittivity and lower dielectric loss than FR-4, thereby making them well suited for antenna applications.
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