Power & Grid

Kristal Farms is built around a simple idea: use local hydro power on-site, distribute it over short distances, and convert it into two useful outputs:

Compute capacity (exported by fiber)
Heat (used locally for buildings and food production)

The power system is designed to be low-loss, auditable, and grid-safe—with clear operational rules that keep community needs first.

The basic power flow

Hydro plant → short MV feeder → village substation → feeders to pads + heat equipment

Instead of building long transmission corridors, Kristal Farms concentrates interconnection and distribution in the village:

A short medium-voltage (MV) feeder links the hydro source to a new village substation
The substation distributes power to:
- each compute pad (tenant containers)
- the heat system equipment (pumps, exchanger station, controls)

This “village-sited” layout keeps losses low and keeps the system legible: you can see where energy goes.

Metering and auditability (by design)

Every major interface is metered so the project can publish an honest accounting:

hydro output
substation in/out
per-pad power handoff

This supports:

transparent billing and loss accounting
seasonal reporting (including diesel avoided)
operational governance (how much power is serving heat vs compute)

(See also: Metrics & dashboard.)

Grid-safe operations (no surprises for the village)

Compute loads can be “spiky” if you energize large systems all at once. Kristal Farms avoids this through:

power quality monitoring (voltage stability, harmonics, events)
coordinated start/stop sequencing (pads are energized in a staged way to prevent inrush and flicker)
feeder protection with selective coordination (a fault on one pad should isolate that pad—not the whole site)
proper grounding and protective devices per feeder

This is a key principle: the farm must behave like a well-mannered industrial neighbor, not a disruptive load.

Heat-first load management

Kristal Farms does not treat compute as the “master load.”

The operating rule is: community heating needs take priority.

That shows up in how power is managed:

pads are added in phases, matching IT power to available heat sinks
workloads can be shaped to follow heat demand (more batch work in cold periods; throttling when heat loops are saturated)
contracts and procedures encode curtailment rules: lower-priority compute yields before public heating is shorted

(See also: Heat-first design.)

Resilience (without normalizing diesel)

The village may already have diesel generators. Kristal Farms keeps them as emergency backup for critical loads only—for rare outage events.

In practice:

the normal operating state is hydro + on-site operations
diesel is reserved for essential services (e.g., clinic / NOC) during exceptional failures
compute can be safely curtailed under defined procedures

This is “resilience without dependency”: backup exists, but the system is not designed to burn fuel to function.

Safety and seasonal readiness

The power system is treated as civic infrastructure, not a private lab:

strict lockout/tagout procedures at the substation and pad connections
routine pre-season testing (e.g., before winter ramp-up) to validate the full heating + electrical chain under load

(See also: Environment & safety.)