Our team undertakes pioneering research in Space Science, investigating how plants interact in zero gravity environments. We push the limits of bioprinting technology in space, aiming to revolutionize medical and industrial processes. Additionally, we explore cutting-edge materials research in zero gravity, contributing to the future of space-based innovation.
Our approach emphasises precision in material selection and design, allowing us to create heatshields with complex internal structures that optimise heat dissipation while maintaining minimal weight. By refining the composition and layering of glass and aluminum oxide, we ensure our heatshields provide reliable protection against intense thermal gradients, offering spacecraft the resilience they need for demanding space missions.
Aluminum oxide (Al₂O₃) is a robust ceramic material renowned for its superior thermal resistance and mechanical strength. At Infinity Space, we are exploring how to tailor porosity levels and layer density within aluminum oxide heatshields to enhance heat absorption and control ablation. By carefully engineering the composition and structure of these heatshields, we create multi-layered barriers that boost performance and durability. These advancements are essential for protecting spacecraft against the extreme thermal loads experienced during re-entry and other high-heat environments, ensuring mission success.
In this research, 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.
Central to our initiative is the development of advanced regolith processing technologies.Our research involves exploring chemical and thermal processes to liberate oxygen from lunar regolith compounds. These processes are designed to be energy-efficient and environmentally sustainable, aligning with the principles of long-term lunar habitation.
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.
As we explore the potential of growing plants in space, our research not only serves the needs of future space exploration but also fosters a deeper connection between humanity and the cosmos. By nurturing life beyond Earth, we aim to instill a sense of wonder and responsibility for our home planet while laying the foundation for a future where agriculture extends its roots into the vast reaches of the universe.
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.
As we forge ahead with micro manufacturing in orbit, our vision extends beyond the confines of space exploration. By developing compact, efficient, and scalable manufacturing solutions, we aim to lay the foundation for a sustainable space economy. This research not only opens new frontiers for space exploration and utilisation but also paves the way for a future where in-orbit manufacturing becomes a cornerstone of humanity's presence and progress beyond our home planet.
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.
Our research delves into the utilisation of aerosol-jet printing to produce micro-sized strain and creep sensors for monitoring next-generation rocket engines. The breakthrough lies in the development of a high-temperature platinum nanoparticle conductive ink, capable of withstanding temperatures up to 1290°C, enabling the integration of printed electronics for continuous condition monitoring. Rigorous testing of the microprinted creep sensors validates their performance, making this manufacturing process a game-changer in high-temperature sensor technology with diverse applications in enhancing safety and performance of rocket engine structures.
On Earth, conventional tissue culture is limited by gravity-driven sedimentation and shear forces, which can compromise the delicate structure of small vessels. By advancing biomaterials, print resolution, and controlled microenvironments, we aim to enable endothelial cells, pericytes, and smooth muscle cells to assemble into self-organising capillary networks. These engineered microvasculatures are the foundation for scaling up from simple tissue patches to viable, functional organs for both research and clinical applications.
In our research on vascular bioprinting, we employ shear-thinning, extracellular matrix–mimicking hydrogels with tunable viscoelasticity in the range of 0.5–1.5 kPa to support endothelial cell viability above 90% after printing. To achieve physiologically relevant oxygen and nutrient delivery, we focus on co-printing endothelial channels with lumen diameters of 50–150 μm, enabling diffusion across tissue constructs exceeding 500 μm in thickness. Functional stability is demonstrated by maintaining barrier integrity, selective permeability, and sustained endothelial signaling over a minimum of 28 days in culture. These microvascular constructs are maintained in closed-loop, temperature-controlled bioreactors that deliver perfusion flow rates between 0.1 and 0.5 mL/min, providing dynamic conditions that replicate microvascular blood flow.
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Our research emphasises advanced alloys specifically designed to withstand extreme temperatures and radiation in space. Cold 3D printing allows us to maintain the integrity of these materials without the risks associated with high-heat processes, preserving their unique properties. This method enables rapid and cost-effective production, making it possible to create critical components on-demand during space missions.
Cold 3D printing in space technology holds promise for creating a sustainable in-situ manufacturing model. By developing technology that can produce durable parts directly in space, we reduce the need for Earth-bound resources and lengthy supply chains, paving the way for more self-sufficient space missions and long-term exploration.
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 Helium-3 extraction and refining endeavor aligns with the broader goal of contributing to sustainable fusion energy. By establishing the groundwork for Helium-3 utilisation, we aspire to pave the way for a cleaner, safer, and more abundant energy future both in space exploration and potentially on Earth.
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.
The incorporation of novel magnetic lensing and circuitry optimises thruster performance, while advanced materials enable operation in extreme conditions. The Infinity Drive Thruster not only embodies the culmination of our research but also sets the stage for a new era of efficient, reliable, and versatile space propulsion systems.
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.
Embarking on a mission beyond the boundaries of our solar system requires cutting-edge technologies, and we are dedicated to unlocking the full potential of graphene in the cosmic arena. Graphene's remarkable mechanical strength and electrical conductivity make it an invaluable asset in developing advanced power systems for spacecraft venturing into the far reaches of the universe. By pushing the boundaries of materials science and engineering, we aim to propel humanity into a new era of space exploration, where efficient and sustainable power solutions based on graphene materials play a pivotal role in enabling missions that transcend the limits of our current capabilities.
Our focus is on creating practical innovations that make space missions more efficient and reliable. Through cutting-edge research and collaboration, we aim to contribute to technologies that bring humanity closer to reaching its aspirations among the stars.
These advancements not only improve the performance of space systems but also reduce costs and risks associated with mission-critical operations. At Infinity Space, our commitment to innovation ensures that we continue to develop solutions that empower the exploration of new horizons, bringing the possibilities of space closer than ever before.
At Infinity Space, we are exploring new frontiers in material science to support the future of space exploration. Our work with 3D printing and amorphous metals offers exciting possibilities for creating stronger, lighter, and more adaptable components suited for the demanding conditions of space. As we refine these technologies, we remain focused on sustainability and efficiency, ensuring that our contributions support a long-term vision for space exploration. Infinity Space is dedicated to transforming ambitious ideas into practical solutions that drive progress and inspire future generations.
A key technological advancement in our solar cell design is the integration of advanced backside texturing. This process enhances the cell’s light absorption capabilities by increasing the effective surface area, allowing for improved photon capture and conversion. The optimised surface structure significantly reduces reflectance and maximises the amount of incident light that is absorbed, leading to superior energy generation efficiency under space conditions.
The Black CubeSat Solar Cell demonstrates a remarkable >30% efficiency under AM0 (Air Mass Zero) conditions, which represents the solar flux outside Earth’s atmosphere. This efficiency is achieved through the combination of high-performance III-V materials and precise structural engineering, ensuring that the cell can capture and convert the maximum possible amount of solar radiation for CubeSat operations in low-Earth orbit (LEO) or beyond.
To further enhance reliability and mitigate power losses, our solar cell incorporates integrated bypass diodes. These diodes are critical for maintaining optimal performance by allowing current to bypass shaded or damaged cells, thereby minimising energy losses and improving the overall longevity of the power system. This ensures that CubeSats equipped with our Black CubeSat Solar Cell can sustain continuous operations, even in dynamic space environments where light conditions fluctuate.
Our research builds upon recent breakthroughs in fabricating Inconel 625 turbine blades using a hybrid PETG–metal powder filament, which is 3D‑printed into a “green” part before undergoing debinding and sintering at temperatures up to 1350 °C. This process transforms the printed structure into a fully metallic component with mechanical properties comparable to wrought Inconel, while enabling intricate geometries such as hollow cooling channels and precision fir‑tree roots. By scaling designs to account for shrinkage during sintering and applying post‑process CNC machining to achieve surface finishes as fine as 0.2 µm, we ensure both aerodynamic efficiency and structural integrity.
By using 436 ferritic stainless steel wire feedstock in a controlled argon‑shielded environment, we can produce robust, thermally stable components that meet the extreme demands of cryogenic propellant combustion and high‑temperature operation.
Our research builds on the successful fabrication of a 1:1 scale J‑2X‑derived combustion chamber using MAG 3D printing. The process employs multi‑pass wire deposition with precise control over bead cooling intervals, minimising residual stresses and enabling the creation of intricate wall geometries, hollow channels, and integrated flanges without the need for extensive post‑weld assembly. The resulting near‑net‑shape structures are then machined to final tolerances, ensuring both aerodynamic smoothness and mechanical reliability.
Through integration with nanoscale varactors, graphene layers, and optically pumped control systems, these hybrid materials can selectively shift their electromagnetic response within microseconds. This dynamic adaptability allows aircraft or spacecraft platforms to remain undetectable in rapidly changing threat environments. The quantum-enabled modulation further enhances suppression across ultra-wide bandwidths, while minimizing power consumption compared to traditional active stealth systems.
Stealth performance is only one dimension of our metamaterial research. We are pioneering designs that integrate radar absorption with structural reinforcement, thermal management, and vibration damping. By embedding metamaterial lattices within load-bearing composites, the material no longer functions as a passive coating but as an active, multifunctional part of the airframe. This multifunctional synergy allows stealth skins to simultaneously deflect radar, conduct heat away from sensitive avionics, and suppress acoustic signatures generated by turbulent flow. Using advanced finite element modelling and multiphysics simulations, we optimise unit-cell geometries that balance electromagnetic invisibility with strength-to-weight ratios required for high-performance aerospace vehicles.
