En3DSyst

The En3DSyst project revolves around the central concept of advancing the field of membrane-based gas separation through innovative 3D printing techniques. This initiative primarily focuses on two distinct types of membranes: metallic membranes for extracting hydrogen (H2) from gas mixtures and polymeric membranes for isolating oxygen (O2) from atmospheric air.

The groundbreaking nature of this project becomes evident in its pursuit of novel methodologies and mechanisms for constructing comprehensive gas separation systems that integrate these two membrane types. In essence, it aims to revolutionize the way we produce and utilize H2 and O2 gases.

The core objective of the En3DSyst project is to harness the capabilities of 3D printing technology to manufacture cost-effective membranes tailored to specific dimensions, facilitating the creation of two critical gas separation systems:

(a) High Purity Hydrogen Production: One of the primary goals is to achieve the production of hydrogen with an exceptional level of purity, surpassing 99.999%. This exceptionally pure hydrogen can be a game-changer in the realm of fuel cell power generation.
(b) Oxygen-Enriched Combustion: The project also seeks to enhance combustion processes by delivering oxygen-enriched air. This enriched oxygen can be employed in various applications, especially in power plants, optimizing energy generation and minimizing emissions.

In summary, the En3DSyst project represents a pioneering venture in the development of 3D-printed membranes, aimed at enabling high-purity hydrogen production and oxygen enrichment. These innovations have the potential to transform energy generation and industrial processes by improving efficiency and reducing environmental impact.

Consortium

G. SAMARAS S.A. (Coordinator), Greece
CENTRE FOR RESEARCH AND TECHNOLOGY HELLAS (CERTH) – Chemical Process Engineering Research Institute (CPERI) and Information Technologies Institute (ITI), Greece