Aeris

A self-sustaining water system that turns air and rain into safe drinking water.

Duration

10 weeks

Industry

Product Design

Project Type

SCAD

Recognition

Rookie Awards Finalist / James Dyson Entry

Aeris

A self-sustaining water system that turns air and rain into safe drinking water.

Duration

10 weeks

Industry

Product Design

Project Type

SCAD

Recognition

Rookie Awards Finalist / James Dyson Entry

Abstract red fluid lattice forming soft diamond shapes on a pale pink background—minimal geometric texture.

AERIS was designed for communities where access to clean water is unreliable, disrupted, or nonexistent. The system combines atmospheric water generation, rainwater collection, solar energy, and multi-stage purification into one portable unit, creating a decentralized source of potable water without relying on traditional water infrastructure.

Stacked pink and red glass cosmetic jars on white—minimal skincare packaging display.
Stacked pink and red glass cosmetic jars on white—minimal skincare packaging display.
Minimal geometric scene with white spheres and pedestal against beige wall and bold red panel.
Minimal geometric scene with white spheres and pedestal against beige wall and bold red panel.
Cluster of translucent pink glass pendant spheres hanging on white—modern lighting décor.
Cluster of translucent pink glass pendant spheres hanging on white—modern lighting décor.

Research

Research focused on water access in disaster, conflict, and infrastructure-failure environments. Existing solutions often depend on functioning pipelines, bottled-water deliveries, or large treatment systems, creating a need for decentralized emergency water access.

Define

The goal was to create a portable system capable of producing safe drinking water where infrastructure is unreliable. AERIS needed to operate independently, withstand difficult environments, and remain simple enough for communities and aid teams to use.

Ideate

Explored atmospheric water generation, rain capture, filtration, renewable power, and portable treatment systems. These ideas evolved into one hybrid platform that adapts its water source and operation based on environmental conditions.

Prototype

Built a full-scale cardboard prototype to evaluate size, accessibility, dispensing height, mobility, and interaction. Testing informed the transition into detailed 3D models, internal component layouts, and iterations of the rugged exterior enclosure.

Test

Physical testing revealed opportunities to improve reach, component access, transportation, and the bottle-filling experience. Feedback helped refine the proportions and simplify how users interact with the system without needing to understand the technology inside.

Iterate

Refined the enclosure into a durable wheeled form with accessible service panels, protected components, and angled solar panels. The interface was simplified around essential system information so operation remains understandable in high-stress environments.

Launch

AERIS draws in filtered ambient air and cools it below its dew point to produce condensation. Collected water passes through sediment and carbon filtration, UV-C treatment, and protected storage before being dispensed as potable drinking water.

Evaluate

AERIS produces approximately 5–20 liters of water per day depending on environmental conditions. Rather than replacing permanent water infrastructure, it provides decentralized emergency drinking water for shelters, clinics, aid sites, and communities when existing systems fail.