3D printed variable aperture horn with modular ridges

Author:

Goode IanORCID,Saavedra Carlos E

Abstract

Abstract 3D printing technology has significant potential to modernize the student laboratory experience in the area of electromagnetic wave propagation and scattering. In this contribution, a fast and low-cost method to 3D print and metallize a variable aperture horn and waveguide launcher are presented. The launcher converts a SubMiniature version A (SMA) coaxial connector to WR 187 waveguide (standard size of waveguide for 3.95 GHz to 5.85 GHz) and is printed from plastic while being metallized with aluminum tape. The launcher provided similar performance to an off the shelf launcher at one 40th the cost. As a teachable extension to this launcher a variable aperture horn is 3D printed and metallized with aluminum tape. The aperture area of the horn is changed by rotating the E walls of the horn away from each other by use of pivot in the transition between the launcher and the horn. This horn showed the expected decrease in beamwidth and increase in peak gain as the aperture area was increased while maintaining a usable impedance match. Modular center ridges were also printed to demonstrate the utility of center ridges in a horn antenna without H walls. Overall, a modular, inexpensive, and easy to construct waveguide system is presented that is useful for teaching electromagnetics specifically the relationship between aperture area and antenna gain, as well as providing a platform for waveguide experiments.

Funder

Natural Sciences and Engineering Research Council of Canada

Publisher

IOP Publishing

Subject

General Physics and Astronomy

Reference24 articles.

1. 3D printed 18 GHz to 28 GHz horn antenna and gradient index of refraction lens;Goode,2021

2. 3D printed linearly polarized x-band conical horn antenna and lens;Goode;IEEE Open Journal of Antennas and Propagation,2022

3. 3D printed x-band orthomode transducer and conical waveguide horn antenna;Goode,2022

4. Development of a wideband and high-efficiency waveguide-based compact antenna radiator with binder-jetting technique;Huang;IEEE Transactions on Components, Packaging and Manufacturing Technology,2017

5. Parametric study of 3D additive printing parameters using conductive filaments on microwave topologies;Pizarro;IEEE Access,2019

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