DFMA analysis of 10 GHZ conical horn antenna

Abstract

The swift progress in communication technology calls for the creation of antennas functioning at elevated frequencies while delivering top notch performance. This study explores the planning, virtual testing and assessment of a horn antenna operating at 10 GHz, offering an examination in contrast to the rectangular waveguide antenna. By employing SolidWorks for designing and MATLAB for simulations, this investigation looks into how material choices and production methods influence the effectiveness and productivity of high frequency antennas. The conical horn antenna is well known for its control of waves, particularly important in tasks needing focused energy transmission like radar and satellite communications. This research delves into the design elements that boost the antenna’s ability to direct signals and amplify its strength, crucial at the 10 GHz frequency. By conducting simulations, the study showcases how incorporating aluminum with a silver coating affects the antenna’s performance, underlining its capacity to uphold conductivity levels while reducing energy wastage. In comparing waveguide antennas to horn antennas, it was found that the latter excel not only in directivity and efficiency but also in their ability to adapt to different manufacturing methods such as additive manufacturing. This method was considered viable for creating lasting and efficient antennas. A thorough evaluation of the differences between predictions and simulation results shed light on the challenges of designing antennas at high frequencies and the constraints of manufacturing processes in practice. This research paper makes an impact on antenna technology by offering a foundation for creating high frequency antennas that blend theory with real world applications. It suggests ideas for designs promoting the use of mixed manufacturing methods and innovative materials to create antennas that are both cost efficient and high performing. The results of this study could shape the direction of antenna design, pushing the limits of what can be achieved in the changing world of wireless communication.