Oxygen Extraction from Lunar Regolith Research

In our quest for sustainable lunar habitation, our research is focused on extracting oxygen directly from lunar regolith, a pioneering endeavor with profound implications for future space missions. Oxygen, a vital resource for human life, could be harnessed on the Moon, reducing reliance on Earth for essential supplies.

Using the abundance of lunar regolith, we aim to develop innovative techniques to extract and refine oxygen. This approach not only addresses the immediate needs of astronauts but also lays the foundation for self-sustaining lunar bases. To ensure the sustainability of oxygen extraction, our research integrates with lunar power systems. Solar arrays and other power sources are employed to provide the energy required for regolith processing, creating a synergistic approach to resource utilisation.

Nurturing Life Beyond Earth

In our pursuit of sustainable space exploration, we delve into the possibilities of cultivating crops beyond our home planet. Our zero gravity plant research isn't merely a scientific curiosity; it's a critical step toward establishing self-sustaining ecosystems on future space habitats. By deciphering the nuances of plant growth in microgravity, we pave the way for advanced agricultural practices that could one day sustain human life during extended space missions and potentially contribute to the development of extraterrestrial settlements.

Our zero gravity plant studies extend beyond the immediate concerns of space travel, reaching into the realms of environmental conservation and Earth-based agriculture. By understanding how plants respond to altered gravitational conditions, we gain insights that may enhance crop resilience and productivity in terrestrial settings, contributing to global food security and sustainable farming practices.

Precision Engineering Beyond Gravity

In the vast expanse of space, traditional manufacturing processes face unparalleled challenges. Our focus on micro manufacturing in orbit seeks to overcome these obstacles, pushing the boundaries of precision engineering to create miniaturised yet powerful manufacturing systems. By harnessing the microgravity environment, we aim to develop innovative solutions for crafting intricate components, materials, and structures with unprecedented accuracy and efficiency.

The microgravity environment of space provides a unique opportunity to explore novel manufacturing techniques that are unattainable on Earth. From Additive Manufacturing to nanoscale fabrication, our research delves into the intricacies of producing materials and structures at the micro level, offering unprecedented control over the manufacturing process and enabling the creation of space-based components with enhanced performance and durability.

Aerosol-Jet Printing of Micro-Strain Sensors for Rocket Engines

Using aerosoljet deposition, we have achieved the successful fabrication of platinum micro-strain sensor with the width of a human hair. This cutting-edge research explores the application of aerosol-jet printing to manufacture micro-sized strain and creep sensors onto the intricate surface of a complex rocket engine components.

By successfully applying this cutting-edge technique to create micro-strain sensors on the challenging surface rocket engine components, our research sets the stage for enhancing the structural integrity and reliability of future spacecraft, highlighting the versatility and promise of aerosol-jet printing in advancing aerospace technologies.

This research not only showcases the precision achievable with aerosol-jet printing but also delves into its potential to manufacture micro-sized strain and creep sensors on the intricately shaped surface of complex materials like Inconel 718 and Niobium alloy nozzles.

Sculpting the Future of Space Medicine

Bioprinting in zero gravity transcends the boundaries of traditional medical research. Our mission is to redefine the landscape of space medicine by developing cutting-edge bioprinting techniques capable of producing intricate biological constructs with unparalleled precision. This research not only addresses the health needs of astronauts on extended space missions but also lays the groundwork for transformative advancements in regenerative medicine on Earth.

In the realm of bioprinting in zero gravity, our research explores the fundamental principles of constructing living tissues in the absence of gravitational forces. By adapting and innovating bioprinting technologies for the unique conditions of space, we aim to overcome the challenges posed by microgravity, ultimately paving the way for the on-demand fabrication of vital organs during long-duration space missions.

Our Lunar Regolith 3D Structure Fabrication Research

At our forefront, we are spearheading innovations in lunar construction through our groundbreaking Lunar Regolith 3D Structure Fabrication initiative. This pioneering technology is poised to redefine the way we build structures on the Moon, harnessing the vast potential of local lunar regolith.

Our focus lies in delivering customised habitats designed to meet the unique requirements of lunar missions. Using lunar regolith as a Additive Manufacturing material, we are pushing the boundaries of adaptability, ensuring structures are precisely tailored to astronauts' needs and the lunar environment. Our approach involves a meticulous layer-by-layer construction process, utilising advanced Additive Manufacturing techniques. This method provides unparalleled control over the construction process, allowing us to optimise the strength and integrity of lunar regolith structures.

Helium-3 Extraction and Refining for Future Energy Research

Embarking on the frontier of lunar resource utilisation, our focus extends beyond mapping, delving into the practicality of Helium-3 extraction. Lunar Helium-3, often referred to as "lunar gold," is poised to become a game-changer in the quest for sustainable and efficient energy sources.

Our approach centers around In-Situ Resource Utilisation (ISRU), a pioneering concept in space exploration. By developing technologies to extract Helium-3 directly from the lunar regolith, we aim to minimize the need for Earth-based supplies and enhance the self-sufficiency of future lunar missions. Achieving high purity levels of Helium-3 is critical for its effectiveness in nuclear fusion. Our refining techniques focus on processing the extracted regolith to isolate and purify Helium-3, ensuring it meets the stringent requirements for fusion reactions.

INFINITY DRIVE ION THRUSTER TECHNOLOGY

Our Infinity Drive Ion Thruster technology is a Hall effect ion propulsion that builds upon our teams extensive research over the past seven-years. This thruster allows multi-propellant uses including Krypton and Xenon and uses an innovative heaterless, centre-mounted, instant-start cathode and advanced novel magnetic lensing capability.

Infinity Drive Ion Thruster technology is developed for a range of missions that require both orbital and configurable Delta-V orbital transfers. Opening new horizons for space exploration. Infinity Drive Ion Thruster technology is at the forefront of propulsion innovation, offering unprecedented efficiency and performance to propel humanity further into the cosmos.

Revolutionising Space Power Systems with Graphene Materials

In the pursuit of advancing space exploration and sustainability, our research team is at the forefront of harnessing the unique properties of graphene materials to revolutionise power systems in the vast expanse of outer space. Graphene, a single layer of carbon atoms arranged in a hexagonal lattice, offers extraordinary conductivity, strength, and lightweight characteristics, making it an ideal candidate for enhancing the efficiency and durability of space-based power technologies.

Our investigations focus on integrating graphene-based materials into solar panels, energy storage devices, and thermal management systems for space missions. By using graphene's exceptional thermal and electrical conductivity, we aim to optimize energy generation and storage, ultimately paving the way for more resilient and long-lasting power solutions that can sustain missions in the infinite reaches of space.