We are designing and building the world's first multi-purpose commercial space telescope that can be used for both the Astronomy and Earth observation markets. This space telescope utilizes our 12U cubesat satellite bus, and is planned for launch in 2019.
We are using our own laser communication system for data downlinks and satellite-to-satellite communications to provide higher speeds, longer range, and lower costs of data transfer.
Ion engine accelerator
We are developing an ion accelerator, designed to augment the thrust from existing cubesat sized ion engines. The ion accelerator is lightweight and efficient, and is unfolded when in orbit.
The lightweight accelerator photovoltaic cells and circuitry are external and separate from the rest of the satellite, avoiding the need for an expensive, bulky, and heavy thermal radiator. The accelerator will substantially increase the ion engine's thrust, as well as its Isp (specific impulse), and can be scaled up to handle very large and high power ion engines. The accelerator will greatly reduce the cost of reaching and moving space debris, as well as reaching asteroids.
Radiation tolerant electronics with hardware/software codesign
Our satellites need to work for long periods of time in high radiation environments like the Van Allen radiation belts. We are customizing both our hardware and software to remain operational when radiation causes logic upsets, while reducing costs by using redundant commercial off the shelf integrated circuits.
Advanced robotics with self repair capability
Multi-jointed robot arms will be used to grapple the space debris. Any mechanical or electrical failure, especially to a joint, can cripple the spacecraft. We are designing the robot arms to be self repairable, so one arm can remove and replace a joint on another arm.