Grid-scale flexible load

Stranded energy, put to work.

We station mobile, grid-interactive compute rigs at renewable energy sites — absorbing the surplus electricity producers would otherwise curtail and converting it into low-cost, low-carbon computational power.

CUR-01Curtailment reductionFLX-02Load flexibilityGRD-03Grid stabilityREV-04Predictable revenueCO2-05Carbon creditsCST-06Lower system costsINV-07Stronger project casesINN-08Energy-management R&D
The problem · P-series

Clean energy is being thrown away.

Wind and solar now set the pace of Europe’s grid — but their output follows the weather, not demand. When production peaks and the grid can’t absorb more, producers are told to switch off. The industry calls it curtailment, and it grows with every renewable megawatt installed.

P-01

Volatile output

Renewables generate on nature’s schedule, not the market’s. Output swings faster than demand can follow, leaving clean electricity with nowhere to go at the very moments it is most abundant.

P-02

A harder balancing act

System operators must hold supply and demand in constant balance. The higher the share of intermittent generation, the harder — and more expensive — that act becomes.

P-03

Idle reserve capacity

Every added megawatt of intermittent generation calls for more standby reserves — assets that cost money while spending most of their life waiting.

P-04

Squeezed project returns

Curtailed output and negative-price hours erode producer revenue, discouraging exactly the investment the energy transition depends on.

Curtailment is clean electricity that was financed, built, and ready to flow — then deliberately not produced. Every year, Europe wastes terawatt-hours of it.

Dispatch options · S-series

A power plant has three textbook ways to handle the energy it produces:

S-01

Sell

to the grid — when there is demand and the price is right.

S-02

Store

in batteries or hydrogen — when the economics of storage pencil out.

S-03

Accept

the idle capacity and switch off — when neither of the above does.

The fourth solution

Convert

Monetize surplus electricity by transforming it into a different commodity — computational power. EcoRig’s rigs consume energy precisely when it is abundant and cheap, turning would-be losses into a second revenue stream and compute into the export product.

Computational power is the scarce commodity of the decade — for AI workloads, settlement networks, and research that demand immense resources. Supply it from energy that had no buyer, and both markets win.

Mission · M-series

Recycle the surplus. Balance the grid.

Our mission is to transform excess renewable electricity into valuable computational power — recycling what would otherwise be wasted, while giving the grid the flexible load it needs.

M-01

Structurally cheaper compute

We run on electricity the market has already priced at or near zero — a cost advantage no conventional data center can engineer.

M-02

Minimal carbon footprint

Every kilowatt-hour we consume is verified surplus from renewable generation. Compute output, without the emissions bill.

M-03

A buffer for the grid

Our consumption ramps with production peaks and steps aside within seconds when the grid needs the power back — dispatchable demand, on call.

M-04

Producers paid in full

Sites monetize every megawatt-hour they can generate, strengthening project economics and the case for the next renewable installation.

We believe in giving back to the communities we operate in — EcoRig pledges up to 10% of annual profits to local social causes.

Producer terms · What you gain

Eight lines on the nameplate.

Partnering with EcoRig is a supply agreement, not a construction project. Our rigs arrive, connect behind the meter, and start converting your surplus — on these terms.

CUR-01

Curtailment reduction

Excess capacity becomes billable output. We consume on-site, behind the meter, so peak production gets used instead of switched off.

FLX-02

Load flexibility

Our consumption profile adjusts to your production curve in real time — a flexible load that helps balance supply and demand.

GRD-03

Grid stability

Dispatchable demand for renewable energy that supports system balance and eases congestion at the connection point.

REV-04

Predictable revenue

A programmable offtake profile supports long-term supply agreements with revenue producers can actually plan on.

CO2-05

Carbon credits

Optional carbon-credit structuring adds a further revenue stream on top of the energy sale itself.

CST-06

Lower system costs

On-site consumption cuts transmission losses and defers spending on distribution infrastructure.

INV-07

Stronger project cases

Higher realized output per installed megawatt improves project returns — and the argument for the next installation.

INN-08

Energy-management R&D

A hands-on partner for piloting new approaches to energy capture, storage, and utilization.

One-line diagram · How it works

From stranded megawatts to sold compute.

Follow the current: four stages, seconds apart, repeating as often as the weather allows.

ST-01 · 01

Surplus detected

Wind or solar output exceeds demand or the site’s export limit. Electricity is about to be curtailed.

ST-02 · 02

Rigs absorb the load

Containerized EcoRig units at the site ramp up within seconds, consuming the surplus behind the meter.

ST-03 · 03

Energy becomes compute

The rigs run high-density computational workloads — AI, settlement networks, research — sold on as a commodity.

ST-04 · 04

Balance restored

Demand returns or output drops; the rigs ramp down in seconds and hand every megawatt back to the grid.

Nameplate ratings

Design targets & standing commitments.

Ramp from idle to full load

Design target for interruptible operation

< 60 s

Consumption from renewable surplus

Verified at every deployment site

100 %

Remote monitoring & dispatch

Every rig answers the grid around the clock

24/7

Of annual profits pledged locally

To social causes where our rigs operate

10 %

Operating KPIs are published to partners under agreement.

Operators · Crew

The people at the switchboard.

Engineers and operators at the intersection of energy systems and software — united by the conviction that no clean electron should go to waste.

Portrait of Juri Kostjunin, CIO of EcoRig Technologies

CREW-03 · CIO

Juri Kostjunin

Portrait of Vitali Rassolov, CTO of EcoRig Technologies

CREW-04 · CTO

Vitali Rassolov

Protocol · FAQ

Asked before signing.

What is renewable energy curtailment?

Curtailment is the deliberate reduction of a wind or solar plant’s output below what it could produce — usually because the grid cannot absorb the surplus at that moment. The energy is clean and already paid for in capacity, yet simply not generated. EcoRig gives that surplus a productive destination instead.

How does EcoRig reduce curtailment for producers?

We deploy containerized compute rigs directly at generation sites. When output exceeds demand or export limits, the rigs consume the surplus behind the meter and convert it into computational power that is sold as a separate commodity.

What happens when the grid needs the power back?

Our load is fully interruptible. Rigs ramp down within seconds on the producer’s dispatch signal or automated price and frequency triggers — the site’s primary business always comes first.

What kind of computing do the rigs run?

High-density workloads that tolerate a flexible duty cycle: AI and research computation, settlement networks, and other batch-style jobs where the cost of energy dominates the economics.

Do producers need to invest in hardware?

No. EcoRig owns, deploys, and operates the rigs. Producers provide surplus energy and a connection point; we share the value the compute creates.

Which sites are a good fit?

Wind and solar parks with regular curtailment or negative-price exposure, constrained grid connections, or capacity held behind export limits. If your site regularly produces more than it can sell, it qualifies for a conversation.

Close the circuit

Ready to stop wasting clean power?

Tell us about your site and its production profile — we’ll model what your surplus is worth as computational power.