适用于设计全3d可打印射频器件的导电和介电热塑性材料的电磁评估

R. Colella, F. Chietera, G. Montisci, G. Muntoni, G. Casula, L. Catarinucci
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引用次数: 1

摘要

通过利用增材制造(AM) 3D打印技术,天线和微波制造的新可能性正在打开。尽管主要用于制造介电结构,但使用合适的灯丝,这些程序也可以打印导电部件,从而产生真正的全3d打印辐射元件。然而,为了充分利用这些热塑性材料,需要进行严格的电磁表征。在此基础上,研究了一种最常见的塑料3d打印材料的介电性能,并在宽频率范围(0.5-7.5 GHz)内实验评估了一种最有前途的导电丝(Electrifi)的电导率,然后在不同的完全3d打印贴片天线的设计中进行了验证。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Electromagnetic Evaluation of Conductive and Dielectric Thermoplastic Materials Suitable for Designing Fully-3D-Printable RF Devices
New possibilities in antenna and microwave manufacturing are opening up through the exploitation of additive manufacturing (AM) 3D printing techniques. Despite being used primarily for the fabrication of dielectric structures, with the right filament, these procedures could also be able to print conductive parts, giving birth to true fully-3D-printed radiating elements. However, to take full advantage of these thermoplastic materials, a rigorous electromagnetic characterization needs to be performed. Based on this, the dielectric properties of one of the most common plastic 3D-printable materials are investigated, and, in addition, the electric conductivity of one of the most promising conductive filaments (Electrifi) is experimentally evaluated in a wide frequency range (0.5-7.5 GHz) and then validated in the design of different fully-3D-printable patch antennas.
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