A proposed Canadian sovereign AI infrastructure concept

AI is dying of thirst.
Canada isn’t.

Desert data centres were sited for cheap land — now they queue for water. We propose building AI infrastructure where the power is hydro, the water is abundant, and the air is cold enough to cool the machines for free.

The advantage, in numbers

Design targets against published benchmarks — and we label which is which. Nothing here is an operating result: no facility exists yet.

Design-target water use, Canadian Vault sites

0.2 L/kWh

US typical 1.8 L/kWh

Design target An engineering goal for closed-loop cooling at hydro-adjacent sites — not a measurement. No facility has been built.

Grid intensity, Québec — the lead proposed region

1.2 gCO₂e/kWh

US East reference ~270 gCO₂/kWh

Published benchmark source: Canada Energy Regulator Corrected 2026-09-11: our earlier materials used a conservative internal estimate of 38. Remote northern sites (NWT/NU) target hydro-adjacent or wind+storage hybrids — per-site design targets, higher than Québec’s grid.

Design-target PUE

1.20

US fleet average 2024 1.55

Design target Power Usage Effectiveness — the ratio of total facility energy to IT energy. 1.20 is an aggressive cold-climate goal, not an operating result.

Free-air cooling days at northern sites (design target)

280+ days/yr

Design target source: Environment and Climate Change Canada (normals table as published for Baie-Comeau) Derivation: outside-air cooling is available whenever daily mean sits below ~18 °C. At Baie-Comeau even July averages 16 °C, so the physical ceiling is near year-round; 280+ days is our deliberately conservative engineering target (equipment margins, heat-rejection days).

Three structural advantages — siting is the strategy

1. Hydro power, stable price

Provincial hydro grids in Québec, Manitoba, British Columbia and Newfoundland sell among the most stable-priced clean power in North America. No gas-price exposure, no heat-derated transformers, gigawatts of headroom.

2. Water is not the enemy here

Our proposed sites sit beside continental-scale freshwater: the St. Lawrence estuary, the Mackenzie, the Churchill–Nelson system. Cooling draw that causes a crisis in a desert watershed is a rounding error beside a river system of this scale — and our design targets closed-loop anyway.

3. Cold air does the work

Northern sites target free-air cooling most of the year. Cold climates also make high-density GPU halls tractable: the harder problem in Arizona — rejecting heat — is the easy one here.

Water per kilowatt-hour: the comparison that matters

Litres of on-site water per kWh delivered — our design target versus typical US on-site use. This is the figure the industry is being forced to disclose.

On-site water use (design target vs published practice)

Canadian Vault (target) 0.2 L/kWh US typical 1.8 L/kWh

Table: Canadian Vault target 0.2 L/kWh (design target, not measured); US typical 1.5–1.8 L/kWh (published benchmark).

Sovereignty, for what it’s worth

Canadian land, Canadian law, Canadian power

Compute that never leaves Canadian jurisdiction: PIPEDA, Québec’s Law 25, OSFI B-13 and Bill C-27 shaped into the design from day one. Water, power and sovereignty are the same argument: the resources AI needs most are the ones Canada has most.

Help us prove the concept.

We are raising a $50K pre-seed to take one site from geography to feasibility. Every figure on this site is a target — fund the work that turns targets into measurements.