The Water Story: Summary Scorecard
One page, graded on the same ruler: how MetroVolt compares to conventional firm generation on every water dimension that matters.
The whole argument in one view
The water story reduces to a single mechanism with many consequences: direct energy conversion removes the steam cycle, and everything that steam-cycle cooling implies goes with it. This page collects the dimensions and grades them side by side.
| Water dimension | Wet steam plant | MetroVolt burner |
|---|---|---|
| Steam condenser cooling load | Large | None |
| Evaporative consumption | High | Near zero |
| Bulk water intake | Required | None |
| Thermal discharge | Yes | None |
| Blowdown / treatment waste | Yes | Minimal |
| Cooling-water permits | Extensive | Facility only |
| Drought resilience | Weak | Strong |
| Arid / inland siting | Constrained | Open |
| Firm output | Yes | Yes (design) |
What the scorecard shows
On every water dimension tied to the steam cycle, MetroVolt scores near the floor, while matching conventional plants on firmness. The one row where the burner still carries a load, residual cooling, is handled by closed loops rejected to air, not by evaporation.
The bounded conclusion
- The advantage is architectural: no steam cycle, no steam-cycle water
- It is stated at design stage, with a test unit planned around 2032
- It is water-specific: no economic claims are made here
- "Almost no water" is precise, not zero, and not exaggerated
Read together, the section makes one honest, defensible case: firm power for data centers and cities can be delivered with almost no water when the steam cycle is replaced by direct energy conversion.