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Advanced Compute Power

Clean, dispatchable power. Built around your load.

Compute schedules are outrunning the grid. HydrogenXT plans the hydrogen supply, storage and generation for an Advanced Compute Complex as one campus, behind the meter, so the energy plan moves with the compute plan.

Bring us your load How the campus works

The power bottleneck

Your compute schedule outruns the grid.

Power, not chips, capital or land, is now the gating item for many advanced compute projects. New transmission and interconnection can take longer to deliver than the facilities waiting to connect.

Median time for new U.S. power projects to go from interconnection request to operation
4+ yrs
Projects built 2018–2024. Lawrence Berkeley National Laboratory, Queued Up: 2025 Edition.
Generation and storage capacity waiting in U.S. interconnection queues
~2,300 GW
End of 2024. Lawrence Berkeley National Laboratory, Queued Up: 2025 Edition.

The Clean Energy Campus

Bring the molecule-to-power chain to the load.

One coordinated plan for local supply, carbon management, dispatchable generation and compute. The Advanced Compute Complex is designed into the campus, not added after the plant.

  1. Local resource

    Feedstock and utilities matched to the site.

  2. Hydrogen production

    Conversion with carbon separation.

  3. Storage

    Purify, buffer and allocate the hydrogen.

  4. Dispatchable power

    Fuel cells, hydrogen turbines, batteries and controls.

  5. Advanced Compute

    Net electricity delivered at the agreed boundary.

Illustrative architecture. Production pathway, equipment, carbon handling and power boundaries are site-specific. Hydrogen allocated to vehicle fuel is contracted separately and never counted twice.

Dispatchable by design

Engineer the power island around critical load.

  • 01

    Fuel on hand

    On-site hydrogen production and inventory for continuity and autonomy.

  • 02

    Modular blocks

    Generation planned in blocks around your phased load and ramp.

  • 03

    Storage and controls

    Batteries for ride-through, recovery and power quality.

  • 04

    Grid optional

    Behind-the-meter by design, with a utility interface where it makes sense.

Time to power

Shorten the path to power, not the diligence.

Co-location, repeatable modules and parallel development are how we plan to move faster than a new grid connection.

  • ≤25 mo

    Platform target, site to power

    For suitable modular projects.

  • 5–50 MW

    Modular power blocks

    Planned around your phased load and ramp.

  • 1 plan

    Supply, power and compute

    Developed together, with workstreams in parallel.

Planning targets, not delivery guarantees. Actual schedules and capacities depend on site readiness, permits, fuel supply, equipment availability and financing, and are set in individual agreements.

The customer interface

Buy a power service, not a hydrogen supply chain.

We structure the commercial boundary around what a compute developer needs to procure: delivered power at an agreed point, with agreed availability and carbon performance.

  • Delivered power agreement. Net MW and MWh, availability and carbon performance at the delivery point.
  • Parallel development. Site diligence, permits, engineering, offtake and capital advance together.
  • Phased with your campus. Capacity expands against committed demand while the campus plan stays intact.

Carbon integrity

Clean at the fuel cell. Accountable across the campus.

Hydrogen fuel cells produce electricity, water and heat at the point of use. The full picture depends on how the hydrogen is made, so we account for it across three boundaries: feedstock and production, carbon management, and delivered electricity, with zero carbon intensity as the target.

Feedstock & Carbon

Two campuses, two power pathways

Central California plans clean hydrogen turbines at large scale. Lewis County plans industrial-scale fuel cells running on hydrogen made from forestry residuals. Both put firm power behind the meter.

See the campuses

Campuses in development

Capacity for compute developers, on the West Coast.

Two Clean Energy Campuses are being planned around Advanced Compute load. Tell us about yours.

Central California · San Joaquin Valley

Project in development

Central California Clean Energy Campus

A hydrogen-powered campus on Interstate 5, midway between Northern and Southern California, built for a large-scale Advanced Compute Complex and long-haul clean trucking.

The campus is planned in the San Joaquin Valley on California’s primary north–south truck route. It pairs hydrogen production with dispatchable generation sized for a large Advanced Compute Complex, behind the meter.

The current plan of record generates power with clean hydrogen turbines. The same hydrogen supply also serves over-the-road trucks running between the Bay Area and Los Angeles, under separate fuel agreements.

300 MW
planned Advanced Compute IT load
H₂ turbines
plan of record for on-site generation
I-5
midway between Northern and Southern California

Built for

  • Advanced Compute developers and offtakers
  • Long-haul freight on the I-5 corridor
  • Developers seeking firm, behind-the-meter clean power
Discuss compute capacity Advanced Compute Power

Planning figures. Capacity, generation technology and schedule are subject to site, permitting, offtake and financing.

Pacific Northwest · Lewis County, WA

Project in development

Lewis County Clean Energy Campus

Hydrogen made from forestry residuals, converted to power by industrial-scale fuel cells for an on-campus Advanced Compute Complex.

With the Lewis County Hydrogen Alliance (LCH2), HydrogenXT is developing a Clean Energy Campus in Washington’s Bioeconomy Development Opportunity Zone, on Interstate 5 between Seattle and Portland. HydrogenXT is the alliance’s developer and commercial lead.

Woody residuals and mill byproducts are converted to hydrogen without burning them. Industrial-scale hydrogen fuel cells then generate firm, behind-the-meter power for compute, with captured carbon handled as a separate stream. It is a biomass-to-fuel-cell pathway, distinct from the turbine-based Central California campus.

~50 MW
Advanced Compute IT load objective
~100 t/day
hydrogen production design target at full build
~1,000
wet tonnes a day of forestry residuals at full build
600,000
bone-dry tons a year of woody biomass assessed within 75 miles

Built for

  • Advanced Compute developers seeking a low-carbon power pathway
  • Hydrogen offtakers for mobility and industry
  • Regional forestry and economic-development partners
Explore the campus Visit lch2.org

Design targets, phased from a commercial reference unit to the full campus. Biomass assessment: Ecostrat, BDO Zone feedstock study (2023). Carbon outcomes are subject to lifecycle analysis.

Let's build the power plan

Bring us your load. We'll build the campus around it.

Start with a joint campus-fit and power-basis workshop: load, ramp, target date and site.

We'll only use your details to reply. See our privacy notice. Prefer email? Write to info@hydrogenxt.com.