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Manufacturing & Materials
Space technologies and processes are transforming manufacturing on Earth and in orbit, offering innovation in materials, quality, and produc
Space technologies are reshaping the future of manufacturing
The impact of the space environment on materials and manufacturing processes can lead to new and improved materials as well as manufacturing processes enabling innovation under extreme conditions like microgravity and vacuum. These unique environments support the development of advanced materials and novel production techniques, accelerating their transfer to terrestrial industries. Applications include high-performance composites, additive manufacturing, and smart materials, impacting sectors such as aerospace, energy, and healthcare.
As market demand grows for lighter, stronger, and more efficient solutions, space technologies are catalyzing industrial transformation. The sector is shifting from traditional practices toward flexible, intelligent, and efficient methods, creating new commercial opportunities and competitive advantages. Recently, larger production volumes required for satellite constellations (particularly in the navigation, Earth observation and telecommunication markets) and for launcher manufacturing are benefitting from the spinning-in from the ‘industry 4.0’ opportunities. Manufacturing digitalization and automation, “smart factory”, production-line simulation, hazard monitoring, predictive maintenance and big data-driven quality control are progressively entering the space hardware-manufacturing domain, derived from the automotive and aeronautical industrial sectors and opening at the same time new challenges such as increased and more stringent cyber-security needs.
Space technology
environments like microgravity aboard the ISS or other payloads can enhance our understanding of these materials and solidification processes in industrial manufacturing.
structural materials, high-performance materials, functional materials and semiconductors and other novel materials, explored in microgravity, are also relevant for improving manufacturing processes on Earth. Additionally, there is a high demand for using recyclable and high-strength polymers both in Earth and in space.
Extracting resources from celestial bodies like asteroids, the Moon, and Mars opens a new era of mining, providing an alternative to mining on Earth. It also provides raw materials and enables testing and improving extraction, metallurgy, and manufacturing methods vital for sustained space exploration and habitation in the future.
Developing ways to extract water, oxygen, and metals from space regolith drives innovation in mining and manufacturing. Biomining experiments conducted on the ISS show how space research can advance the use of microorganisms and biofilms to extract valuable minerals from rocks. These techniques not only hold promise for more sustainable mining practices on Earth but also offer potential for cleaning up metal-contaminated sites. The copper industry is already applying insights from this research and stands to benefit further as commercial applications develop.
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