Imagine a super-efficient engine for spacecraft that works like a high-powered electric fan, pushing ions to move huge loads. Instead of burning tons of chemical fuel, it uses electricity to travel long distances. This work focuses on making these engines last longer and handle much more power so we can move heavier gear to the Moon and Mars.
Current electric propulsion systems lack the power and lifetime qualification needed for heavy cargo missions to the Moon and Mars. This creates a bottleneck for European space logistics and increases transportation costs.
The project developed system architectures for 20kW thrusters, a probabilistic failure analysis method for qualification, and improved manufacturing processes for wear-prone components like cathodes.
If you are a cargo provider dealing with high fuel costs for heavy payloads — this project developed building blocks for 20kW-range thrusters that allow for larger spacecraft and more ambitious missions. This reduces the cost for orbit transportation of future payloads.
If you are a servicing company dealing with limited maneuverability for satellite repair — this project developed high-power electric propulsion that provides the operational flexibility needed to optimize mission design beyond 2030.
If you are a manufacturer dealing with rapid wear and tear of engine parts — this project developed improved manufacturing processes for discharge chambers and cathodes to increase the lifetime of 20kW class thrusters.
Based on available project data, specific unit pricing is not provided; however, the project aims to create a more cost-effective approach to qualification using Probabilistic Failure Analysis.
Yes, the project specifically focuses on the manufacturability of key components and improving industrial manufacturing processes for the 20kW-range systems.
Based on available project data, the project is coordinated by Safran Electronics & Defense with a consortium of 8 partners, but specific licensing terms are not listed.
The project anticipates effective deployment in the 2030-40 timeframe.
The project includes overall system architecture studies against various mission use cases to ensure the 20kW-range thrusters can be integrated into future space infrastructure.
The consortium is heavily industry-driven with a 62% industry ratio, consisting of 8 partners across 4 countries. Led by a major prime, Safran Electronics & Defense, and including 2 SMEs, the group balances academic research (1 university, 2 research centers) with industrial manufacturing capabilities, ensuring that the 20kW thruster developments are aligned with commercial production needs.
Contact Safran Electronics & Defense regarding VHP Hall thruster building blocks
Contact SciTransfer for a detailed technical deep-dive into VHP propulsion maturity.
