Optimization of Interstellar Travel through Design Approaches with Gimballing Ion Thrusters

Abstract

Interstellar travel, constrained by current propulsion technologies, suffers from limitations in efficiency and maneuverability essential for vast interstellar distances. This paper presents a rigorous investigation into optimizing interstellar travel through advanced design methodologies, with a primary focus on the deployment of gimbaled ion thrusters to enhance maneuverability and trajectory correction. The research meticulously examines two-axis thrust vectoring, propulsion system efficiencies, fuel transfer mechanisms, and energy management strategies, aiming to significantly improve propulsion and control system performance. A detailed comparative analysis of gimbaled thrust versus traditional thrust systems evaluates the impact on fuel efficiency and overall spacecraft performance. By integrating aerospace engineering and materials science principles, this study advances the discourse on interstellar travel. The findings and recommendations from this research aim to drive the development of cutting- edge spacecraft propulsion systems, facilitating more efficient and adaptable exploration beyond the solar system.