Converting thermal energy into reliable freshwater using modular, scalable distillation architecture.
Freshwater scarcity is fundamentally a thermal challenge.
MED is a proven desalination technology that uses heat—not electricity—to separate freshwater from seawater.
Unlike membrane-based systems, MED:
tolerates variable operation
thrives on low- and mid-grade heat
scales naturally through repetition
These characteristics make MED an ideal match for modern thermal infrastructure.
Thermal Nano Technology integrates MED as a native thermal load, not an add-on.
MED pairs exceptionally well with:
recovered turbine exhaust heat
partially utilized thermal storage
return-loop heat from CSP systems
controlled ceramic or salt-based thermal delivery
Instead of rejecting usable heat, the system converts it directly into water.
MED is inherently modular, consisting of repeating “effects” operating at progressively lower pressures and temperatures.
Thermal Nano Technology deploys MED as modular distillation trains:
· Factory-built MED units sized to defined thermal input bands
· Parallel trains for scalability and redundancy
· Individual units can be isolated for service without interrupting water production
· Capacity expands by adding trains—not rebuilding systems
This allows freshwater production to scale independently of power generation.
MED systems are tolerant of:
partial thermal input
load changes
transient conditions
non-ideal weather
This makes MED particularly well suited to CSP-based systems where thermal availability varies throughout the day.
Water production continues even when electrical output is reduced.
MED integrates seamlessly with the broader platform:
· Utilizes low-grade and recovered heat streams
· Operates downstream of primary power generation
· Converts otherwise unused thermal energy into freshwater
· Improves total system efficiency without added complexity
Water becomes an always-on output, not a byproduct.
For island nations and remote regions, water reliability is often more critical than peak electrical output.
Modular MED enables:
continuous freshwater production
reduced reliance on fuel-based desalination
simplified maintenance and operations
scalable deployment aligned with population growth
Water security improves without increasing grid fragility.
MED also enables controlled brine concentration for:
mineral recovery
volume reduction
environmentally responsible discharge
Brine handling becomes a downstream process, isolated from plant-critical systems.
By integrating MED directly into the thermal architecture, Thermal Nano Technology transforms excess and recovered heat into a stable, scalable freshwater resource.
The same modular thermal architecture that enables MED also supports advanced ceramic-based thermal storage and next-generation CSP system design.