Imagine a scale so sensitive it can weigh the ocean from space to see how ice caps are melting. This project builds a specialized tool using ultra-cold atoms that act like a perfect pendulum to measure gravity. By putting this in orbit, we can track how water and mass move across the planet with unprecedented accuracy.
Current space gravimetry lacks the precision needed for advanced climate science and geodesy. There is a strategic need for European autonomy in quantum sensing to avoid dependence on foreign technology.
An Engineering Model (EM) of a quantum gravimeter/accelerometer and a technical roadmap for future space missions.
If you are an environmental data provider dealing with inaccurate sea-level rise predictions — this project developed an Engineering Model for quantum gravimeters that provides higher performance for climate sciences. This allows for more precise tracking of ice sheet mass loss.
If you are a satellite manufacturer dealing with the lack of high-precision inertial sensors — this project developed critical subsystems like laser systems and microwave sources. These components increase the technical readiness of quantum sensors for space deployment.
If you are a geophysical survey firm dealing with low-resolution gravity maps of the Earth — this project developed simulations for future quantum missions. This enables the planning of high-resolution gravity mapping for resource exploration and earth science.
Based on available project data, the specific costs or pricing for the Engineering Model are not disclosed.
The project is currently developing an Engineering Model to increase the TRL of critical subsystems to 5, meaning it is in the validation phase and not yet at industrial scale.
Based on available project data, there are no specific details provided regarding IP or licensing agreements.
The project aims to prepare the deployment of these sensors in space within the decade.
The project is establishing a technical and programmatic roadmap to harmonize these quantum sensors with the European programmatic framework.
The consortium is well-balanced for technology transfer, featuring a 38% industry ratio with 6 companies, including 2 SMEs. The presence of 2 space agencies and 8 research organizations ensures that the high-level quantum physics is grounded in actual space-grade engineering requirements.
Contact CNES (Centre National d'Etudes Spatiales) in France
Contact us to explore partnerships with the 6 industrial players in this quantum space consortium.
