As part of World Space Week 2025, the European Union is highlighting three critical research projects aimed at solving fundamental challenges for long-term human survival beyond Earth. Managed by the European Health and Digital Executive Agency (HaDEA), these initiatives focus on radiation protection, water extraction on the Moon, and dust mitigation, all essential steps toward establishing a sustainable human presence in space.
The projects, funded under the Horizon Europe program, align with this year's theme, “Living in Space.” They represent a strategic effort to enhance Europe's technological independence and leadership in the global space sector by developing practical solutions for astronaut safety and resource management.
Key Takeaways
- Three HaDEA-managed projects—ALCYONE, LUWEX, and DUSTER—are developing technologies to support human life in space.
- ALCYONE is creating a platform to study the effects of space radiation on biological systems in real-time.
- LUWEX has successfully tested a system to extract water from lunar soil, a vital step for self-sufficiency on the Moon.
- DUSTER is developing instruments to analyze and manage harmful space dust, protecting both astronauts and equipment.
- These initiatives are part of the EU's Horizon Europe Cluster 4: Space, which aims to bolster Europe's competitiveness in space exploration.
World Space Week Highlights Future of Off-World Habitation
World Space Week, held annually from October 4 to 10, serves as a global platform to celebrate achievements in space science and technology. The 2025 theme, “Living in Space,” shifts the focus toward the practical necessities of sustaining human life on missions to the Moon, Mars, and beyond. This requires overcoming significant environmental and logistical hurdles that do not exist on Earth.
In this context, the European Union, through its Horizon Europe funding program, is actively supporting research that addresses these challenges directly. The European Health and Digital Executive Agency (HaDEA) oversees several key projects designed to build a foundation for safer and more sustainable space exploration. These efforts are not just theoretical; they are creating tangible technologies intended for future missions.
What is Horizon Europe Cluster 4: Space?
Horizon Europe is the EU's primary funding program for research and innovation. Cluster 4 is dedicated to 'Digital, Industry and Space,' with a specific component focused on reinforcing the EU’s independence in accessing and using space. It supports projects that develop competitive and reliable space systems, foster the European space industry, and ensure the security of critical technologies.
ALCYONE: Addressing the Threat of Space Radiation
One of the most persistent dangers for astronauts is exposure to high levels of cosmic radiation. Outside the protection of Earth's magnetic field and atmosphere, astronauts are subjected to a constant barrage of charged particles that can damage DNA, increase cancer risk, and lead to other long-term health problems.
Developing a New Analytical Platform
The ALCYONE project is pioneering a new method to understand these risks. Its primary goal is to develop an innovative analytical platform that allows scientists to observe the effects of space radiation on biological systems in real-time or under highly realistic simulated conditions. This process, known as in situ analysis, provides more accurate data than previous methods.
By studying how living cells react directly to the space environment, researchers can gain crucial insights into the mechanisms of radiation damage. According to HaDEA, this knowledge is fundamental to creating effective countermeasures.
Fact: An astronaut on a six-month mission to the International Space Station (ISS) is exposed to radiation levels approximately 50 to 100 times higher than on Earth's surface.
The data gathered by ALCYONE will directly inform the development of next-generation shielding materials for spacecraft and habitats. Better protection is essential for enabling long-duration missions, such as a trip to Mars, where cumulative radiation exposure would be substantial.
LUWEX: Unlocking Water from Lunar Soil
The immense cost of launching materials from Earth makes in-situ resource utilization (ISRU) a cornerstone of future space exploration. Water is arguably the most critical resource, needed for drinking, growing food, creating breathable air, and producing rocket fuel.
A Breakthrough in Water Extraction
The LUWEX project tackles this challenge head-on by developing technology to extract water ice trapped within lunar regolith—the layer of loose soil and rock on the Moon's surface. The project team has already designed, built, and successfully tested an extractor system using simulated lunar soil.
This technological breakthrough is considered a potential game-changer for establishing a permanent human presence on the Moon. By producing water locally, missions can significantly reduce their dependence on expensive and complex resupply missions from Earth.
The ability to source water on the Moon has far-reaching implications. It not only supports life-support systems but also opens the door to producing hydrogen and oxygen through electrolysis. These elements can be used as rocket propellant, effectively turning the Moon into a refueling station for deeper space missions.
DUSTER: Mitigating the Dangers of Fine Particles
While often overlooked, dust in space environments poses a serious risk to both human health and sensitive equipment. On the Moon, the regolith is composed of fine, abrasive particles with sharp edges, shaped by billions of years of micrometeorite impacts without the weathering effects of wind or water.
Monitoring and Managing Dust Behavior
The DUSTER project is developing advanced instrumentation to analyze how these tiny particles behave. The technology is designed to study how dust becomes electrically charged and how it moves and adheres to surfaces like spacesuits, solar panels, and mechanical joints. This electrostatic cling makes it incredibly difficult to remove.
Inhaling these fine particles can cause respiratory issues for astronauts, while the abrasive nature of the dust can damage seals, clog mechanisms, and degrade the performance of critical hardware. The Apollo missions provided early evidence of these challenges, as astronauts returned with dust-covered suits and equipment.
Did you know? Lunar dust particles are not rounded like sand on Earth. They are sharp and angular, making them highly abrasive and hazardous to both mechanical systems and human lungs.
By providing real-time data on dust dynamics, DUSTER will enable future missions to implement effective mitigation strategies. This could include improved filtration systems, dust-repellent coatings, and operational procedures designed to minimize exposure, ensuring the safety and longevity of both human and robotic explorers.
Strengthening Europe’s Position in Space
The ALCYONE, LUWEX, and DUSTER projects are more than just isolated scientific endeavors. They are integral components of a broader European strategy to secure a leading role in the next era of space exploration. Funded by Horizon Europe, these initiatives foster innovation within the EU's industrial and scientific communities.
By developing proprietary technologies for life support, resource utilization, and operational safety, the EU strengthens its autonomy and reduces its reliance on international partners. This technological sovereignty is crucial for ensuring Europe can pursue its own scientific and strategic objectives in space, contributing to a collaborative but competitive global landscape.
Ultimately, these projects lay the groundwork for a future where humans can not only visit space but live and work there sustainably. As humanity looks toward establishing outposts on the Moon and beyond, the solutions being developed today will be essential for turning those ambitions into reality.





