Mission Capability Assessment of CubeSats Using a Miniature Ion Thruster
Ryan W. Conversano, Richard E. Wirz
Abstract
Ryan W. Conversano, Richard E. Wirz
Abstract
The successful miniaturization of many spacecraft subsystems make CubeSats attractive candidates for evermore-demanding scientific missions. A three-cell CubeSat employing the miniature xenon ion thruster, which features high efficiency and impulse capability, yields a unique spacecraft that can be optimized for a variety of missions ranging from significant inclination changes in a low Earth orbit to lunar transfers. A nominal configuration of a high- CubeSat has a dry mass of approximately 6.3 kg, including a 0.75 kg payload, margins, and contingencies. Depending on the thruster and propellant tank configuration, this CubeSat is capable of delivering mission values from 1000 to over , enabling low-Earth-orbit inclination change missions and lunar missions. A parametric analysis on a three-cell high- CubeSat bus revealed that a range of payload volumes (up to nearly 1.4 units) and masses (up to nearly 6 kg) can be accommodated depending on the requirements and mission type. Additionally, this analysis showed that a high- three-cell CubeSat in a 600 km low Earth orbit can be designed to provide an inclination change of over 80 deg.
OpenAlex reports 56 citations for this work. Citation counts describe recorded attention and do not establish research quality.
A contribution statement is not available in the OpenAlex record.
Method details are not available in the OpenAlex metadata.
Findings are not separately available in the OpenAlex metadata.
Limitations are not available in the OpenAlex metadata.
Application details are not available in the OpenAlex metadata.
The successful miniaturization of many spacecraft subsystems make CubeSats attractive candidates for evermore-demanding scientific missions. A three-cell CubeSat employing the miniature xenon ion thruster, which features high efficiency and impulse capability, yields a unique spacecraft that can be optimized for a variety of missions ranging from significant inclination changes in a low Earth orbit to lunar transfers. A nominal configuration of a high- CubeSat has a dry mass of approximately 6.3 kg, including a 0.75 kg payload, margins, and contingencies. Depending on the thruster and propellant tank configuration, this CubeSat is capable of delivering mission values from 1000 to over , enabling low-Earth-orbit inclination change missions and lunar missions. A parametric analysis on a three-cell high- CubeSat bus revealed that a range of payload volumes (up to nearly 1.4 units) and masses (up to nearly 6 kg) can be accommodated depending on the requirements and mission type. Additionally, this analysis showed that a high- three-cell CubeSat in a 600 km low Earth orbit can be designed to provide an inclination change of over 80 deg.
Key concepts: CubeSat, Aerospace engineering, Payload (computing), Spacecraft, Ion thruster, Specific impulse, Propellant, Orbit (dynamics)