2013Journal of Spacecraft and RocketsRequires access

Mission Capability Assessment of CubeSats Using a Miniature Ion Thruster

Ryan W. Conversano, Richard E. Wirz

Open publisher page 56 citations

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.

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What this paper is about

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.

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Available 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.

Key concepts: CubeSat, Aerospace engineering, Payload (computing), Spacecraft, Ion thruster, Specific impulse, Propellant, Orbit (dynamics)

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