The Digital Farms of British Columbia

Phase I — Thompson–Okanagan–Lillooet

A proposed Interior network designed around sun, clean electricity, agricultural heat demand and a north–south optical corridor.

LillooetShuswap Lake near Salmon ArmOkanagan vineyard

Why the Interior goes first

The Thompson–Okanagan is described by the Province as having hot, sunny, dry summers and some of the lowest annual rain and snowfall in southern Canada. That makes supplementary solar materially more useful here than in the Lower Mainland, while the hydro-dominated provincial grid remains the primary firm electricity source.

The corridor also already contains major fruit, vineyard and food-processing activity. The objective is not to replace those industries, but to add controllable winter heat, protected growing space, cold-chain capacity and digital infrastructure.

Screening capacities by community

These are planning ranges, not reserved utility capacity. They intentionally remain broad until interconnection, land, fibre and heat-demand studies are completed.

CommunityConcept rangePriority heat usesRole
Lillooet / Seton5–15 MWGreenhouses, drying, aquacultureFraser/Seton energy corridor; sunny semi-arid climate
Cache Creek5–10 MWProtected agriculture, food dryingInterior junction; compact starter node
Kamloops15–30 MWLarge greenhouse, processing, district heatRegional anchor and major fibre/power hub
Chase5–10 MWGreenhouse, aquacultureSmaller modular heat sink near Shuswap corridor
Salmon Arm8–15 MWGreenhouse, food processingAgricultural basin and Shuswap logistics
Vernon10–20 MWGreenhouse, cold-chain, processingNorth Okanagan agricultural centre
Kelowna15–30 MWGreenhouse, food/tech campusLargest Okanagan demand and fibre anchor
Penticton10–20 MWGreenhouse, drying, cold-chainSouth Okanagan processing and logistics
Oliver5–12 MWVineyard/fruit heat uses, greenhouseIntensive agriculture and strong solar resource
Osoyoos5–12 MWGreenhouse, drying, cold-chainSouthern terminus; hot dry climate

At the midpoint of these ranges, Phase I is roughly a 130 MW class concept. The final build could be materially smaller or larger.

Build logic

Start with heat demand, not GPU count.

A site that cannot use or economically reject its heat should not be oversized just to hit a compute target.

1. Heat anchor

Secure greenhouse, processing, aquaculture or district-heat demand with a realistic hourly/seasonal profile.

2. Grid + fibre

Confirm electrical connection, redundancy, carrier diversity and route constructability.

3. Modular compute

Size the first data hall to the reliable heat sink, then expand as additional users connect.