Archmedis
Freshwater from the ocean.
No energy. No brine. No land.
A passive solar desalination platform. Ocean-deployed. Powered by sunlight alone.
The Platform
Archmedis.
Ocean-deployed desalination. Solar-powered. Passive. A clean utility platform — zero carbon in water generation.
Offshore. No coastal land. No onshore permitting. Each module operates independently. Output scales linearly. Risk does not.
Deployment Configuration
Energy
None.
Solar thermal only. No electricity. No fuel. No moving parts.
Discharge
Zero brine.
Thermal dissipation into the water column. Nothing to manage.
Footprint
Ocean-native.
Floating. No coastal land. No onshore foundations.
Scale
Linear.
Add units to add capacity. No redesign. No re-engineering.
How It Works
Three stages. No moving parts.
01
Capture
Sunlight heats seawater through a multi-stage thermal collector. Curved geometry amplifies evaporation surface. Phase-change material extends output past sunset.
02
Distill
Thermohaline gradients drive evaporation and condensation across successive stages. No membranes. No pressure. No consumables. Thermodynamics separates salt from water.
03
Deliver
Freshwater transfers to shore via standard marine logistics. Each unit operates independently. Output scales by adding units.
Structural Advantage
A different class of infrastructure.
Existing systems are centralized, energy-intensive, land-bound. Scaling them concentrates risk. Archmedis removes these constraints structurally.
Centralized → Distributed
Single large plants vs. independent modular units. No single point of failure.
Carbon-intensive → Clean utility
Reverse osmosis is grid-heavy and carbon-heavy. Archmedis runs on sunlight — zero carbon in water generation.
Land-based → Ocean-native
Coastal land and permits vs. water-surface deployment. Zero land. Zero footprint.
A clean utility, not a chemical plant. No distributed, passive desalination system operates at commercial scale today.
Infrastructure Context
Centralized water infrastructure concentrates risk.
Most freshwater systems follow the same architecture: large, centralized plants feeding regional networks. Known failure modes — single-point disruption, permitting delays, energy dependency, brine liability. Demand is rising faster than centralized supply can be built.
Wherever water stress is acute, the same pattern repeats: concentrated supply, strategic reserves measured in days, coastal dependence, and no independent backup layer. One disruption — mechanical, environmental, or adversarial — removes supply for millions.
Redundancy through distribution
Hundreds of independent units. No single failure disrupts output.
Resilience through simplicity
No fuel. No grid. No consumables. Fewer failure modes than any comparable system.
Capacity through addition
Add units, add capacity. No redesign. No re-permitting.
Deployment Contexts
Designed for real constraints.
Engineered for field conditions. Not laboratory ideals.
01
Governments & Water Authorities
Today's architecture concentrates supply in single plants. One disruption affects millions. Archmedis distributes capacity — no coastal land, no grid, no onshore permitting. Zero brine eliminates regulatory liability. No single failure disrupts total supply.
Discuss a deployment02
Utilities & Infrastructure Operators
Integrates with existing distribution without modification. Capacity scales by addition — no redesign, no re-permitting. Long-term supply contracts with per-litre pricing. Additive by design.
Explore capacity integration03
Islands, Offshore & Remote Operations
Autonomous operation on solar energy and seawater. No grid. No brine management. No onshore infrastructure. Built for environments where resilience is non-negotiable.
Evaluate for your siteCurrent Status
Engineered for real deployment.
Patent Pending
Proprietary thermal architecture
Multi-stage passive distillation. Core architecture under active intellectual property protection. Patent application filed.
Deployment-First Design
Built under field constraints
Standard materials. No proprietary components. No supply chain dependencies. Structural advantage is architectural — no breakthrough physics required.
Pilot Deployment
Field validation scoped
Phase 1 targets harsh coastal conditions — high salinity, extreme heat, offshore wave environment. Prototype and testing underway. Commercial deployment planned post-validation.
Entry Points
Three ways to work with us.
Invest
For long-duration infrastructure capital. Raising to fund first commercial deployment.
Request materialsPartner
For governments, agencies, and enterprises evaluating Archmedis for deployment.
Start a conversation