A leading innovator
in Atmospheric Water Generation

Our Vision & Mission

At Drink Air, our mission is to provide a sustainable, eco-friendly, and technologically advanced solution to global water scarcity. We believe in making clean, drinkable water accessible to everyone, reducing plastic waste, and leveraging renewable resources for a healthier planet.

To be part of the water revolution

Who We Are

Drink Air is a leading innovator in Atmospheric Water Generation (AWG). Our team, composed of scientists from Tsinghua University, has dedicated years to researching and refining graphene-based filtration, AI-driven moisture extraction, and solar-powered water solutions.

Our Achievements

Recognized

by the UN for sustainability contributions

Winner

of the Red Dot & iF Design Awards for innovative product design

Over 30 patents

in atmospheric water generation technology

Strategic partnerships

with NGOs and businesses tackling the global water crisis

Research & Innovation

Advanced Water Generation Technology

Our research is at the forefront of eco-friendly water solutions. By utilizing graphene-enhanced nanomaterials, our water generator can extract and purify moisture efficiently even in low-humidity environments. The combination of multi-stage purification, UV sterilization, and mineralization ensures safe, clean drinking water that meets WHO and global safety standards.

To be part of the water revolution

Why Our Technology Stands Out

Graphene-based filtration

Increases water purity and energy efficiency

AI-powered atmospheric moisture extraction

Enhances water production even in extreme conditions

Solar compatibility

Ensures off-grid functionality for remote locations and eco-friendly operations

Cost-effective & sustainable

Reduces reliance on bottled water and improves long-term affordability

Our Research in Action

Our team continuously refines high-efficiency water condensation and energy optimization techniques. Through real-world case studies, our technology is already improving water accessibility in regions facing extreme shortages.

Commercial Models