Additive Manufacturing of 3D Printed Microwave Passive Components

Irene O. Saracho-Pantoja, J. R. Montejo-Garai, J. Ruiz‐Cruz, J. Rebollar
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引用次数: 7

Abstract

This chapter presents a comprehensive analysis of the applications of a low-cost version of additive manufacturing (AM). The technique called Fused Filament Fabrication (FFF), which makes use of plastic as raw material, is explained in the context of its applications to the microwave waveguide engineering field. The main advantages of this technology include the promptness to print models, the variety of feasible geometries, and specially the reduced cost. The main limitations are also explained. Two important applications are considered: (1) rapid prototyping of complex devices and (2) manufacturing of fully functional devices. The former is relevant to get a more realistic perspective of the actual geometry in computer-aided designs, as shown in several examples. It also helps to forecast possible issues in the fabrication process that the computer sometimes fails to detect at the design stage. In the latter case (2), the subsequent and necessary metallization of plastic devices is also addressed. Several examples of state-of-the-art passive waveguide devices are presented, including waveguide filters, a diplexer, a branch-line coupler, a load or horn antennas, which have been printed, metallized, and measured. The results show the potential of three-dimensional (3D) printing and provide a different insight into this innovative technology.
3D打印微波无源元件的增材制造
本章对低成本增材制造(AM)的应用进行了全面分析。介绍了以塑料为原料的熔丝制造技术(FFF)在微波波导工程领域的应用。该技术的主要优点包括快速打印模型,各种可行的几何形状,特别是降低了成本。本文还解释了主要的局限性。考虑了两个重要的应用:(1)复杂器件的快速原型和(2)全功能器件的制造。如几个例子所示,前者与在计算机辅助设计中获得更真实的实际几何角度有关。它还有助于预测在制造过程中计算机有时无法在设计阶段检测到的可能问题。在后一种情况下(2),塑料装置的后续和必要的金属化也被解决。介绍了几种最先进的无源波导器件,包括波导滤波器、双工器、分支线耦合器、负载或喇叭天线,这些器件已被打印、金属化和测量。结果显示了三维(3D)打印的潜力,并为这项创新技术提供了不同的见解。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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