The advance of 3D-printing technology over the last decade makes additive manufacturing not only attractive for rapid prototyping, but also provides it as a trendsetting approach to realize conventional as well as sophisticated functional microwave and millimeter-wave passive components. It has proven its ability to replicate conventional waveguides with a comparable electrical performance [1] . In this way, low-cost, lightweight waveguides with customized dimensions and shapes are realizable. Moreover, 3D printing enables the implementation of unconventional complex-shaped waveguide components, such as filters [2] , [3] , interconnects, or antennas [4] , whose design is restricted by the engineer's creativity rather than by limitations of conventional fabrication techniques.
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Tegowski et al. (2024) studied this question.
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