The broader campus, as described by Creekstone, covers over 1,143 acres and targets more than 10 GW of total AI infrastructure capacity
Decision Focus
In late May 2026, Enchant Energy and Creekstone Energy signed a letter of intent to develop a carbon capture and utilization system for the Delta Gigasite, a planned hyperscale AI campus in Millard County, Utah. The project proposes to capture CO2 from Phase 1 gas-fired generation and convert it directly into low-carbon liquid fuels at the site — no pipeline, no sequestration, no offsite transport. The operational signal for your role: this is the first publicly announced instance of carbon utilization being integrated into the core power architecture of a large-scale data center campus still under construction, rather than retrofitted onto an existing one.
90-Second Brief
This week, enchant Energy and Creekstone Energy have entered a letter of intent to apply carbon capture and utilization technology to the Delta Gigasite’s Phase 1 power plant, which Creekstone describes as planned at 220 MW with a multi-source behind-the-meter generation mix including natural gas, solar, battery storage, and propane peaking. The CCU model converts captured CO2 into liquid fuels produced onsite, according to the announcement, creating a potential revenue stream while avoiding the pipeline infrastructure required for conventional sequestration. The broader campus, as described by Creekstone, covers over 1,143 acres and targets more than 10 GW of total AI infrastructure capacity. The arrangement remains at letter of intent stage, engineering, commercial terms, and regulatory approvals are all open.
What Is Really Happening?
The conventional carbon management playbook for gas-heavy data center power — buy RECs, contract an offset, promise future sequestration — faces increasing scrutiny from regulators and corporate sustainability reviewers. The Delta Gigasite design attempts something structurally different: treating the gas plant’s CO2 not as a liability to be neutralized elsewhere, but as a feedstock to be valorized at the point of generation.
The utilization pathway Enchant Energy describes eliminates the most significant infrastructure cost in conventional carbon capture: the CO2 pipeline network required to move captured gas to a sequestration site. In rural western Utah, where underground storage sites and pipeline access are not adjacent to the project, that matters directly. Converting CO2 to liquid fuel onsite sidesteps a logistics constraint that has blocked or delayed carbon capture deployment at many industrial sites.
The campus’s behind-the-meter generation configuration — independent of the grid — means the site takes full ownership of its generation emissions from day one. There is no ISO or utility to share accountability with. That structural isolation creates both the problem (full Scope 1 exposure from gas generation) and the conditions that make an onsite CCU solution economically coherent.
The announcement also notes that the liquid fuel production process generates water as a byproduct. In an arid Utah location where data center water use is a planning constraint, that secondary output has potential operational value, though no quantified claims have been confirmed at this stage.
Why It Matters for Global Heads of Data Center Energy
Behind-the-meter gas generation is re-entering serious consideration at large data center campuses where grid interconnection timelines are measured in years, not months. If your portfolio includes sites where you are weighing generation independence against the Scope 1 carbon exposure it creates, the Delta Gigasite model introduces a third option: own the generation, own the carbon, and convert the carbon to a product.
The LOI structure means nothing is proven yet. But the architecture being proposed — integrated CCU built into the power plant design rather than added later — only works if it is included in the initial site engineering. The question of whether to design CCU compatibility into a new campus is a Phase 0 infrastructure decision, not a Phase 3 retrofit question. Waiting until a gas plant is commissioned to assess CCU feasibility significantly raises both cost and complexity.
The revenue stream framing deserves separate scrutiny. Liquid fuel production from captured CO2 is a real technology, but its economics depend on fuel prices, carbon credit regimes, and offtake arrangements that are not yet confirmed for this project. The claim that CCU creates additional economic value should be treated as a design premise, not a confirmed commercial outcome.
For Scope 2 and 24/7 CFE reporting, CCU at a gas plant does not convert gas generation to carbon-free energy — it reduces net carbon intensity. That distinction matters for how your sustainability team would characterize this asset in CDP or GRI reporting.
Forward View
Three fronts are worth watching as this project advances. First, whether the LOI converts to a binding engineering contract with quantified capture rates and fuel conversion specifications — that would signal the technology has cleared at least a commercial feasibility threshold for this application. Second, how Utah regulators and the EPA’s emerging carbon capture oversight framework classify onsite CO2 utilization relative to sequestration, since that determination affects credit eligibility and permitting. Third, whether competing hyperscale campuses pursuing behind-the-meter gas generation begin adopting CCU as a design standard or treat Delta as an isolated experiment.
What Is Still Uncertain
The project is at letter of intent stage. No binding commercial agreement, engineering contract, or confirmed capture volume has been announced. The economics of converting CO2 to liquid fuel depend on variables — carbon pricing, fuel market conditions, technology readiness at the required scale — that are not confirmed in any public disclosure. The 10 GW campus figure is a stated capacity target, not a committed build schedule. Whether CCU applied to Phase 1 gas generation satisfies future Scope 1 reporting requirements, or qualifies under any carbon credit framework, has not been confirmed by a regulatory body. The water co-product benefit is plausible but unquantified.
One Question for Your Team
If your next campus build includes behind-the-meter gas generation to circumvent grid interconnection delays, at what point in the design process does CCU compatibility need to be specified — and who owns that engineering decision today?
Sources
- Carbonherald — Enchant Energy And Creekstone Explore Carbon Utilization AI Data Centers (Link)
