TL;DR · 30-second read

The Short Version

Venture Global, a company that ships American natural gas overseas, has signed deals with equipment makers GE Vernova and Baker Hughes for up to 16 gas-fired power plants. Together they could produce roughly as much electricity as ten large nuclear reactors.

The goal: run data centers, the warehouse-sized computer buildings behind artificial intelligence, on the company’s own land without plugging into the public electricity network that homes rely on.

The full bill could reach $17.2 billion, but most of it is optional. The company says it will build in stages, as customers sign up.

Venture Global, Inc. (NYSE: VG) disclosed in an 8-K filed October 15, 2026, a material-event report to US securities regulators, that its subsidiary Venture Global LNG signed two equipment frame agreements on October 9. The first, with GE Vernova and Baker Hughes, covers power generation equipment for up to 16 power islands with deliveries running through 2034 at the latest. The second, with GE Grid Solutions, covers power transformers and gas-insulated switchgear for up to 21 power-island projects. Venture Global also reserved manufacturing capacity for eight of the 15 power islands that follow the first, plus five initial grid equipment packages. If every purchase order under both agreements is exercised, the company would pay approximately $17.2 billion, including reservation fees and subject to adjustment.

In its accompanying press release, Venture Global said each unit is a 720 MW combined cycle gas turbine power island. It described the program as a pathway to up to 10 GW of compute capacity by the end of 2034 at sites it owns or controls, subject to customer commitments, and said it would file its first permit applications this week. The first power-island purchase order is expected by the end of 2026. Stock Titan, summarising the filing, reported that the reservation windows for the grid equipment expire in stages through mid-December 2026.

Executive Summary

Venture Global, best known as a fast-growing US exporter of liquefied natural gas (LNG), has secured the right to buy up to 16 more 720 MW gas-fired power islands from GE Vernova and Baker Hughes, plus matching transformer and switchgear packages from GE Grid Solutions. The company says the equipment would extend its existing 4.5 GW private power network. It would also open a pathway to up to 10 GW of data center compute capacity at sites it owns or controls by the end of 2034.

The significance lies less in the size than in the sequence. Venture Global is not seeking grid connections for large AI loads. It is pre-pricing generation and locking in factory capacity, and it will commit capital only as customers sign. That moves the gating question for this pipeline from utility timelines to commercial demand.

It also means the approximately $17.2 billion headline is a ceiling. For now, binding commitments are limited to reservation fees, reserved manufacturing capacity, and early orders expected from late 2026.

The Grid Drops Out of the Critical Path

For most large data center projects, the gating item is the public grid. A developer applies to connect, then waits in the utility’s interconnection queue, the line of projects awaiting study and approval to plug in. It often has to fund transmission upgrades before the first server is powered. Venture Global’s structure removes that step. Its 720 MW power islands are combined cycle gas turbine plants: they burn gas in a turbine and recapture the exhaust heat to drive a second, steam-driven generator. They run in what the company calls Island Mode, generating and consuming electricity on the same site with no connection to the public network. The press release says the expansion would place “no additional demand on the public electric grid.”

With the grid out of the sequence, the 8-K shows what replaces it. Price, schedule, scope of supply, performance tests and performance guarantees are pre-negotiated in a form purchase order. Manufacturing capacity can be locked by signing a definitive reservation agreement and paying a fee, and the company has already reserved eight of the 15 power islands that follow the first. The remaining variable is Venture Global’s own decision to order, which it ties explicitly to demand: it “expects to build additional capacity in stages as customer commitments and other commercial arrangements are established.” In other words, the company intends signed customers, not a utility’s study timeline, to govern how fast up to 16 units of 720 MW, roughly 11.5 GW, reach data centers.

That does not mean there are no constraints. Permits still apply, and the company said it would file its first applications this week. Deliveries run through 2034 at the latest, and the power-island reservation rights lapse in stages between October 2027 and October 2029. The equipment can also be diverted to Venture Global’s own LNG projects. For AI developers and hyperscalers, the largest cloud operators, the practical effect is a different counterparty: the question of when power arrives would be negotiated with an energy company holding factory slots rather than with a utility planning department.

A $17.2 Billion Ceiling Over a Much Smaller Floor

The headline figure is a maximum. The 8-K says the aggregate amount payable would be approximately $17.2 billion only if the company elects to proceed with all purchase orders under both the power and grid frame agreements, including reservation fees and subject to adjustment. Outside the reservation fees and the capacity reserved for those eight power islands, neither Venture Global nor its suppliers has any binding obligation to buy or supply. Even signed purchase orders can be terminated in certain circumstances, at the cost of a termination fee.

What is firm today is narrower. One power-island purchase order is expected by the end of 2026, and orders for the eight reserved units should follow from early 2027. Five reserved packages of transformers and gas-insulated switchgear are slated for orders starting in late 2026. Dividing the ceiling by roughly 11.5 GW of nameplate generation implies on the order of $1.5 billion per gigawatt. That figure bundles grid equipment for up to 21 projects and Baker Hughes services, and it excludes construction, gas supply and the data centers themselves, so it is not an all-in cost of power.

The structure allocates risk deliberately. Venture Global pays a defined fee for optionality instead of carrying $17.2 billion of commitments before it has customers. GE Vernova gains reservation fees and a pre-agreed order pipeline with set pricing. The open variable is the conversion rate: if customers do not materialize before the reservation windows close, the headline number shrinks to whatever has actually been ordered.

From LNG Plant Power to an “AI Utility”

Venture Global is not starting from scratch. The press release says it has six power islands ordered, in construction or operating across its LNG facilities. Together they total about 4.5 GW of gas-fired generation running entirely behind the meter, meaning on the customer’s side of the utility meter and off the public grid. The new agreements would add up to 16 more units, about two and a half times the existing fleet, using “configurations consistent with” what it already runs. CEO Mike Sabel framed the result as “a vertically integrated AI utility” that packages power, gas supply, closed-loop water systems, land and data centers.

Some claims in that pitch follow directly from the design; others depend on future events. Keeping generation off-grid does keep the load off the public network, which underpins the company’s statement that the expansion would add no cost to local electricity consumers. Closed-loop water systems underpin its claim of no added demand on public water utilities. The “up to 10 GW of compute capacity by the end of 2034,” however, is conditioned on customer commitments, market demand and other commercial considerations. The 8-K also allows the same equipment to go to LNG export projects or bolt-on expansions instead. The company stresses that LNG remains its key strategic objective and that any data center work would not affect its existing LNG sales agreements.

Background

Venture Global, Inc. (NYSE: VG) describes itself as an American producer and exporter of low-cost LNG with over 100 MTPA (million tonnes per annum) of capacity in production, construction or development. In an 8-K filed October 7, it reported selling 465.8 TBtu (trillion British thermal units) of LNG and exporting 124 cargos in the quarter ended September 30, 2026, from its Calcasieu Pass and Plaquemines facilities. Over roughly 15 years it has also built what it calls one of the world’s largest private industrial power grids to run those plants. The new frame agreements cover equipment beyond what it already buys under its existing Baker Hughes Master Agreement.

The data center push comes while the company is handling commercial disputes in its LNG business. In an 8-K filed October 8, Venture Global disclosed that an International Chamber of Commerce tribunal, acting by majority, had issued a partial award in an arbitration with Galp. The award found that the company’s Calcasieu Pass subsidiary breached its obligation to declare commercial operations in a timely manner under their supply agreement. Damages will be set at a hearing expected in 2027 or 2028 and are subject to a $170 million liability cap. One arbitrator dissented, and the company said it disagrees with the decision and is evaluating its options.

Sources

Source: Up to 16 power units are covered in Venture Global (VG) deals with GE Vernova and Baker Hughes – Stock Titan, a summary of Venture Global’s October 15, 2026 8-K on its power and grid frame agreements.

Primary sources: Venture Global 8-K filed 2026-10-15 (Item 1.01, power and grid frame agreements); Exhibit 99.1 to 8-K filed 2026-10-15: Venture Global Secures New Agreements to Support Expansion of Existing Grid-Independent Power Network; Venture Global 8-K filed 2026-10-08 (Galp arbitration partial award); Venture Global 8-K filed 2026-10-07 (third-quarter 2026 LNG volumes).

TL;DR · 30-second read

The Short Version

A Greek energy company and an American turbine maker want to build a $1.5 billion artificial intelligence data centre at the port of Mombasa, Kenya.

The unusual part: it would generate its own electricity on a barge floating in the harbour, burning imported natural gas, and never plug into Kenya’s national power network at all. That sidesteps blackouts and the long wait to get connected.

If it is approved and built, East Africa would gain the kind of heavy computing power that today sits mostly in Europe and America. Kenyan regulators have not yet said yes.

Construction Review reported that Greek multinational Amaco Energy Group has partnered with US energy equipment and services company GE Vernova on Project HERCULES, a proposed $1.5 billion (roughly KSh 194.2 billion) artificial intelligence data centre at the Port of Mombasa, Kenya. Under the arrangement, GE Vernova gas turbines would be integrated into an Amaco power barge, an unmotorised floating platform housing a power plant, that supplies the campus with electricity and cooling.

The facility is designed to run entirely off-grid on offshore liquefied natural gas, with power scalable from an initial 60 to 100 megawatts up to 1,000 megawatts, and with the option to export surplus electricity to Kenya’s national network near the Mariakani substation. The project sits in the Port of Mombasa and Dongo Kundu ecosystem, is listed as proposed and pending regulatory approval, and is estimated to take about 28 months to build once approved.

Executive Summary

Project HERCULES is best understood not as a data centre that happens to have a power plant, but as a power project that has found a customer. The blueprint evolved from an earlier liquefied natural gas-to-power transmission proposal registered in 2024. In its current form, the generation, the cooling and the compute halls are bundled into a single floating architecture moored inside the port, with GE Vernova supplying the turbines and electrification equipment.

That structure is a direct answer to the constraint that has slowed large computing campuses across much of Africa. Land is available, subsea fibre has landed, and capital is willing. What is scarce is firm, reliable power delivered on a developer’s schedule rather than a utility’s. By declining to connect at all, Amaco converts a multi-year grid question into a procurement and permitting question it can largely control.

The trade is real but not free. An off-grid campus becomes its own utility: it carries fuel price exposure, it must build its own redundancy because there is no network to fall back on, and it must satisfy Kenyan energy, environmental and port regulators before any of it exists. Nothing has been approved, no customer has been named, and the financing behind the headline number has not been described.

When the Grid Is the Bottleneck, Bring Your Own

In mature markets, the queue to connect a large electrical load to the national network, known in the industry as the interconnection queue, has become the single longest item on a data centre schedule. In much of sub-Saharan Africa the problem takes a different shape: the wait can be shorter, but the delivered power is less firm, and a campus full of high-density servers cannot absorb unplanned outages. The Amaco framing is explicit on this point. Bypassing the grid, it argues, removes downtime tied to supply shortages rather than merely hedging against it.

Inverting the sequence has a commercial logic that goes beyond reliability. A developer who owns generation can commit to an energisation date, and an energisation date is what an anchor tenant is actually buying. The cost is that the developer becomes a power company. Fuel must be contracted and shipped, turbines must be maintained, and the redundancy that a utility connection normally provides has to be built into the platform itself. A campus that is genuinely 100 percent islanded has no external backstop, so its reserve margin is a design choice with a capital cost attached.

The Barge Is the Product

An unmotorised power barge is built in a shipyard and towed to its mooring. That matters more than it sounds. Shipyard fabrication trades unpredictable on-site civil works for a controlled construction environment, which is one plausible route to the stated 28-month build. It also makes the asset relocatable in principle, and it places the plant on water, which simplifies the heat rejection problem that dominates dense computing. The release describes direct cooling integrated into the same floating structure, though the specific method is not detailed.

The capacity range published for the project spans from an initial 60 to 100 megawatts to an eventual 1,000 megawatts. That is more than a tenfold spread, and it should be read as a statement of modular ambition rather than a committed build. The $1.5 billion valuation is not tied in the announcement to any particular point on that range. Anyone sizing the opportunity, whether a lender, a turbine supplier or a prospective tenant, needs to know which phase the figure buys, because the answer determines whether this is a large regional facility or the first slice of something hyperscale.

Landing Where the Cables Land

Mombasa’s strategic case rests on geography. It is East Africa’s principal arrival point for international subsea fibre-optic cables, the undersea trunk lines that carry almost all intercontinental internet traffic. Putting compute next to a cable landing station shortens the path between regional users and the machines serving them, and it makes local data residency possible for customers whose regulators or contracts require it. The project also targets industrial synergy with the neighbouring ARISE Coast Integrated Industrial Park inside the 3,000-acre Dongo Kundu Special Economic Zone, which offers a second class of power offtake alongside the servers.

The demand question is more nuanced than the connectivity story suggests. Large-scale artificial intelligence training is relatively indifferent to latency and gravitates to wherever power is cheapest. What benefits from proximity is inference, the stage where a trained model actually answers queries, along with sovereign and enterprise hosting for governments, banks and telecom operators that want their data inside national borders. Those are credible markets, but they are being contested. The announcement itself notes that other countries, Ethiopia among them, are pursuing the same regional hub position.

Who Gains, and What Has to Be True

For GE Vernova, spun out of General Electric in 2024, the appeal is straightforward. Gas turbines have become one of the few technologies that can add firm generation at computing-campus timescales, and a floating deployment extends that market to places where onshore siting is difficult. For Amaco, the repositioning is the more interesting move: a gas-to-power scheme from 2024 has been recast with artificial intelligence demand as its anchor load, which is a considerably more bankable story than selling electrons into a constrained transmission system. The proposed surplus export near the Mariakani substation adds a second revenue line and, just as usefully, gives Kenyan authorities a reason to see the project as a contributor rather than an enclave.

Three conditions have to hold. Imported liquefied natural gas must be priced competitively enough that the campus can quote power rates a regional customer will accept, since fuel, not hardware, dominates the operating cost of a gas-fired site. Regulatory approval must cover energy licensing, environmental consent and port anchoring rights simultaneously, and the announcement places the project firmly at the discussion stage with Kenyan authorities and financiers. And the stated future conversion to hydrogen should be treated as design optionality rather than a near-term plan, because it depends on a fuel supply chain that does not yet exist at this scale anywhere.

Background

Amaco Energy Group is a Greek multinational energy firm. Its Mombasa plan did not begin as a computing project: the blueprint evolved from an earlier liquefied natural gas-to-power transmission proposal registered in 2024, since recast around artificial intelligence demand as the anchor load. GE Vernova is the energy equipment and services company spun out of General Electric in 2024, whose gas turbine business has become central to a global race to add firm generation quickly enough for data centre construction schedules.

Kenya has spent a decade positioning itself as East Africa’s digital gateway, and Mombasa is the physical hinge of that claim because the region’s international subsea fibre-optic cables come ashore there. The country is also building out the Dongo Kundu Special Economic Zone, a 3,000-acre industrial area near the port overseen in part through the Kenya Ports Authority. Competition for the regional hub position is active, with Ethiopia among the countries pursuing similar ambitions.

Sources

Source: Project HERCULES: Amaco and GE Vernova Partner for $1.5B Off-Grid AI Data Centre in Mombasa — Construction Review’s report on the proposed floating, gas-powered artificial intelligence campus at the Port of Mombasa, including the project factsheet and technical specifications cited above.