Designing the Future of Amateur Astronomy: 3D Printed Telescopes
Abstract
This research delves into the symbiotic relationship between engineering and astronomy through the reengineering of telescopes, emphasizing user-friendly design and cost-effectiveness. Focused on a 8-inch primary mirror and a 1.75-inch secondary mirror, our objective is to streamline the telescope's functionality for the benefit of engineering and astronomy students. Employing a systematic engineering design process, we are currently designing the telescope to be 3D printed with PLA filament, eventually culminating in a collapsible telescope structure. It will be supported by aluminum extrusion and secured with hexagonal endcaps. This design ensures easy handling and facilitates cost-effective production, with spare parts readily reproducible. The outcome integrates principles from astronomy, physics, and engineering, serving as an innovative educational tool and creates more accessibility for students outside of the field who are financially disadvantaged. By combining accessibility, performance, and affordability, our telescope design aims to enhance the interdisciplinary collaboration between these fields while providing an exemplary model for cost-effective engineering projects for students outside of the university.
Designing the Future of Amateur Astronomy: 3D Printed Telescopes
This research delves into the symbiotic relationship between engineering and astronomy through the reengineering of telescopes, emphasizing user-friendly design and cost-effectiveness. Focused on a 8-inch primary mirror and a 1.75-inch secondary mirror, our objective is to streamline the telescope's functionality for the benefit of engineering and astronomy students. Employing a systematic engineering design process, we are currently designing the telescope to be 3D printed with PLA filament, eventually culminating in a collapsible telescope structure. It will be supported by aluminum extrusion and secured with hexagonal endcaps. This design ensures easy handling and facilitates cost-effective production, with spare parts readily reproducible. The outcome integrates principles from astronomy, physics, and engineering, serving as an innovative educational tool and creates more accessibility for students outside of the field who are financially disadvantaged. By combining accessibility, performance, and affordability, our telescope design aims to enhance the interdisciplinary collaboration between these fields while providing an exemplary model for cost-effective engineering projects for students outside of the university.