If you are a launch provider dealing with the high cost of disposable boosters — this project developed reusable first-stage technologies that aim to improve space access costs by 50%. This allows for more frequent launches with lower overhead per mission.
Developing Reusable Rocket Technology to Slash Space Access Costs by 50%
Imagine if airplanes were thrown away after every single flight; flying would be incredibly expensive. This project is building a 'boomerang' rocket that can fly up, come back down, and be used again. By mastering the art of landing and refurbishing these boosters, Europe can make sending satellites into space much cheaper and greener.
What needed solving
Europe currently lags behind global competitors in reusable rocket technology, leading to higher launch costs and dependence on non-EU providers for space access.
What was built
A scale-1 reusable vehicle for low-altitude hop tests, a mathematical formulation for launcher sizing, and prototypes for lightweight tanks and bio-sourced thermal protection.
Who needs this
Who can put this to work
If you are a manufacturer dealing with expensive thermal shielding — this project developed low-cost bio-sourced thermal protection and lightweight tank industrialization. This enables the production of cheaper, more sustainable rocket components.
If you are a state agency dealing with dependence on foreign launch capabilities — this project developed a strategic reusable launcher roadmap. This secures an independent capacity to access space and ensures autonomy of supply for critical equipment.
Quick answers
How much will this reduce the cost of space access?
The project aims for a vision of a future launch fleet that improves space access costs by 50%.
Is this technology ready for industrial-scale production?
The project is currently maturing technologies up to TRL5/6 and performing 'hop tests' with scale-1 vehicles to prepare for future industrialization.
Who owns the IP and how is licensing handled?
Based on available project data, specific licensing terms are not mentioned, but the project is coordinated by ArianeGroup SAS with 26 partners across 12 countries.
What is the timeline for seeing these rockets in action?
The project runs until September 2026, with a roadmap aiming for suborbital tests by 2025 and a reusable launch fleet in the 2030s.
How does this integrate with existing European space infrastructure?
It builds upon Themis activities and aligns with the Space Strategy for Europe to reinforce the EU's independent access to space.
Who built it
The project is heavily industry-driven, with 21 industrial partners (81% of the consortium) and 7 SMEs, indicating a strong focus on commercial viability rather than pure academic research. Led by ArianeGroup SAS, the 26 partners span 12 European countries, ensuring a broad industrial base for the strategic launcher roadmap.
Contact ArianeGroup SAS regarding the SALTO reusable launcher roadmap.
Talk to the team behind this work.
Contact us to find partners for the 2025 suborbital test phase.