voltstack.
POWER ORCHESTRATION, BEHIND THE METER

More work.
Same grid
connection.

Your site’s ambition shouldn’t stop at the meter. VoltStack is developing a control plane to coordinate batteries, flexible loads, and cooling within the power you’re allowed to use.

IN DEVELOPMENTBuilt around real site constraints.
THE SITE ENVELOPE01 / CONCEPT VIEW
THE GRID CONNECTION8 MWIllustrative firm import limit
VOLTSTACK CONTROL PLANEOne envelope.
Coordinated decisions.
StorageDispatch & reserve
Flexible loadCompute & charging
CoolingThermal headroom
GRID → SITE → CONTROL → ASSETPermissioned by design
THE OPERATING PRINCIPLE

Coordinate the site. Respect the connection.

01 / THE APPROACH

Turn a fixed limit
into a coordinated site.

A battery is one lever. Flexible work is another. The opportunity is in deciding when each should act, while honoring the rules that govern the whole site.

01

Define the envelope.

Start with approved import, equipment ratings, battery reserves, thermal constraints, and service commitments.

KNOW THE BOUNDARY
02

Coordinate the levers.

Plan battery dispatch alongside deferrable compute, charging schedules, and the cooling capacity that supports them.

ACT WITHIN AUTHORITY
03

Make performance visible.

Evaluate useful work, energy availability, constraint margins, and operational tradeoffs against the same site model.

VERIFY THE OUTCOME
02 / EXPLORE THE ENVELOPE

What could your
connection support?

Change the site assumptions. See how storage can cover demand above the import limit, and where flexible work still needs to move.

ILLUSTRATIVE MODEL · NOT A SITE DESIGN
SITE ASSUMPTIONS

12 one-hour intervals. Battery starts at the selected energy; 20% is held in reserve.

A DAY AT THE SITEPOWER / MW
Grid supplyBattery supplyWork to shift
Illustrative site power over twelve hoursGrid supply and battery discharge serve demand. Remaining demand is marked as work to shift.
06:0012:0018:00
Peak demand served12.0 MW
Battery energy used14.8 MWh
Work to shift0.0 MWh

What this example assumes

This simplified energy-balance model is intended to explain the concept. Each bar is a one-hour average. The grid supplies demand up to the import limit; a battery covers excess demand within its discharge and energy limits. Any remainder is assumed to be deferrable work. Battery dispatch is chronological, with a 20% energy reserve, no recharging, and idealized efficiency. Real projects require workload and thermal models, charge planning, equipment and protection studies, operating permissions, and validated control and fail-safe behavior. Peak capacity is temporary, not additional firm grid capacity.

03 / WHERE IT FITS

Different sites.
A common constraint.

The starting point is a site with a meaningful power limit, flexible demand, and an operator who needs the tradeoffs to be clear.

01 /

AI & edge compute

Match deferrable inference and batch workloads to available site power, battery energy, and thermal headroom.

COMPUTE WITH FLEXIBILITY
02 /

EV fleet depots

Coordinate charging with departure schedules, vehicle energy needs, and the capacity of the site connection.

ENERGY BY DEPARTURE
03 /

Constrained campuses

Evaluate shared power across mixed loads, storage, and phased growth before committing to a site expansion.

GROWTH WITHIN THE ENVELOPE
04 / FROM CONCEPT TO PILOT

Start with
one real site.

Define the boundary. Identify the flexible load. Model a useful operating case. A focused pilot starts with a clear, testable question.

01

What is the approved import limit?

02

Which work can move, and for how long?

03

What result would make the pilot worthwhile?

BUILD A STARTING BRIEF

Your site. Your assumptions.

Capture a short brief using the settings above.

Creates a text file on your device. Nothing is submitted.

THE NEXT LAYER OF SITE INFRASTRUCTURE

Power is the boundary.
Coordination is the opportunity.

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