Water from Air Extracts Water from the Atmosphere
Designed by Louisa Graupe and Julika Schwarz, Water from Air is a mobile device that extracts potable water directly from the atmosphere using advanced material technology. The prototype addresses the increasing global demand for accessible drinking water by employing Metal-Organic Frameworks (MOFs), a class of materials known for their high porosity and capacity for selective absorption. These materials are capable of capturing water molecules from ambient air and releasing them as usable freshwater. Research into MOFs is currently underway at institutions including the Institute for Materials Chemistry at the University of Vienna and the University of California, Berkeley.
At any given time, the atmosphere holds more water than all of Earth’s rivers combined. Water from Air is a design response that translates this scientific potential into a functional product. While MOFs have predominantly been studied in laboratory contexts, this project proposes a real-world application through a compact, scalable, and energy-independent form.
all images courtesy of Louisa Graupe and Julika Schwarz
Water Production under Changing Climate Conditions
The prototype functions as a self-contained water production and storage unit. It is designed to operate autonomously and adapt to diverse geographic and socio-economic environments. With a daily yield of approximately 6 liters of water over a 24-hour cycle, the system is optimized for household use and can be scaled for larger demands. The device’s housing was primarily fabricated using 3D printing, enabling efficient production of customized parts and modular components. The design prioritizes mobility, ease of use, and independence from existing water infrastructure, making it suitable for decentralized deployment in both urban and rural contexts.
By integrating material research with product design, Water from Air, developed by designers Louisa Graupe and Julika Schwarz, explores how atmospheric resources can be harnessed to address water scarcity under changing climate conditions. The project presents a viable framework for decentralized, off-grid water access through material innovation and spatial adaptability.
opening the valve allows the water to drain downwards
filling containers
100% clean drinkable water
