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A New 3D Printed Device is Capable of Transforming Air into Drinking Water
Imagine a device capable of extracting drinking water from the atmosphere, providing a feasible remedy to the global water crisis we are experiencing. Indeed, more than 2 billion people worldwide do not have access to clean drinking water, and 14…
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Imagine a device capable of extracting drinking water from the atmosphere, providing a feasible remedy to the global water crisis we are experiencing. Indeed, more than 2 billion people worldwide do not have access to clean drinking water, and 14 people die every day from diseases caused by this lack. This is the ambition of Louisa Graupe and Julika Schwarz with their “Water from Air” solution. It is a mobile device that can collect water from the air and transform it into drinking water, all thanks to the concept of metal-organic networks, which uses materials made of metal ions that act like a sponge. The reason we’re talking about this new device is that the casing for this innovative system has been 3D printed, resulting in a custom-made, modular component.
The process of recovering water from the atmosphere is not new, but it has given rise to complex and technical systems. Louisa and Julika want to develop a more accessible concept that can be used in any home, by anyone. They explain their vision: “Water from Air is designed as a mobile water producer and storage unit that can be used flexibly in private households, regardless of geographical and social circumstances – a practical solution and application option for people all over the world. The concept initially enables the production of 6 litres of drinking water per day and is scalable for the future. The prototype was largely produced using 3D printing.”

The Water from Air Device
How 3D Printing is Used Within the Device
Water from Air is divided into several components, many of which were 3D printed using different processes and materials. Let’s start with the water tank, the part found at the base of the device. Here, fused deposition modeling was used with transparent PETG. Above the tank is an intermediate part that was also designed using an FDM machine and PETG. Finally, the upper part with the lid was produced using an SLA 3D printer; it was 3D printed in four different parts, which then required post-processing steps.





