Energy Compute Campus

Gigawatt-Scale Energy Integrated Data Center Campus

Energy Compute Campus is a 500-acre integrated power and compute campus with first energization scheduled for Q1 2027. The initial 100 MW capacity block is scheduled to be followed by additional 100 MW blocks approximately every 8 months.

Gigawatt+ Generation
Compute-Ready Campus
Safety by Design
Long-Term Stewardship
Q1 2027

First Energization

Initial 100 MW scheduled

100 MW

Initial Capacity Block

Reservations open from 1–100 MW

~8 Months

Subsequent Capacity

Additional 100 MW blocks scheduled

Q3 2026

Expected Initial Call Date

15-day firm agreement window

Capacity reservations are now open. Reservations are available from 1 MW to 100 MW. The initial Call Date is expected in Q3 2026. Reservation holders will have 15 calendar days after the Call Date to execute a firm agreement, with preference given to earlier qualified reservations.
Learn How Reservations Work

Energy Compute Campus

One Integrated Campus, Built Around Scheduled Capacity Release

Energy Compute Campus coordinates generation, medium-voltage distribution, compute buildings, cooling, connectivity, safety, security, and operations as one campus platform. Capacity is released in scheduled blocks, beginning with 100 MW in Q1 2027 and followed by additional 100 MW blocks approximately every 8 months.

Aerial view of a data center building with exterior cooling units and fencing
GridCore

Energy Compute Campus is built on GridCore — a repeatable model for turning qualified sites into compute-ready infrastructure platforms, coordinating land, power, buildings, cooling, connectivity, security, and operations as one governed system.

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Campus Microgrid Strategy

Not a Data Center with Backup Generators.

Conventional data centers treat utility power as primary and onsite generators as emergency insurance. At gigawatt scale, that model accumulates structural liabilities: utility queue exposure, fragmented distribution, and a backup-power architecture that does not extend cleanly to new phases.

Our campus microgrid approach starts differently. Two independent generation trains — each sized for the full critical campus load — feed two independent medium-voltage distribution rings. Every pod receives A and B feeds. UPS-backed critical paths deliver power to dual-corded IT loads. Both sources are live simultaneously. No transfer. No standby. One integrated campus power system.

Explore the Campus Microgrid
GenerationTrain A + Train B — each sized for full campus load
Plant BusCollection, protection, and metering at the plant level
MV DistributionCampus Ring A and Ring B — independent, campus-wide
Pod FeedsDedicated A and B medium-voltage feeds to every pod
Critical PathUPS A / UPS B — continuously energized
IT LoadDual-corded equipment — both sources live, always
Grid IntertieOptional — logically separate from critical continuity

Our Services

Four Ways to Take Capacity.

Capacity can be reserved across multiple delivery models: turnkey colocation, powered shell, powered land, and connectivity-supported deployments. Reservation requests may range from 1 MW to 100 MW and will be evaluated for technical fit, phase availability, load profile, cooling requirements, network requirements, and commercial readiness.

From a raw powered parcel to a fully managed rack — pick the model that fits how you build and operate.

Download Overview PDF

What We Build

Four Pillars.
One Coordinated Platform.

Energy Compute Campus brings together the disciplines high-load digital infrastructure actually requires.

Energy Infrastructure

On-site natural-gas generation, high-voltage interconnection, fuel logistics, and power-quality management — designed for continuous, reliable load support at scale.

Compute-Ready Campus

Pre-engineered buildings and prefabricated IT, power, and cooling modules — enabling phased capacity delivery, rapid deployment, and flexible configuration.

Safe and Secure Operations

Permit-to-work, LOTO, EHS programs, physical security zoning, and OT/IT cybersecurity governance — embedded throughout the campus from design.

Long-Term Stewardship

Asset management, maintenance discipline, documentation rigor, and evidence-based readiness reviews that sustain reliability over decades.

Why Integration Matters

The Risks Are in the Gaps Between Systems

Most infrastructure failures do not arise from failed components. They arise from inadequate interfaces — between energy and compute, between safety programs and operations, between construction-phase thinking and long-term operating reality.

Energy Compute Campus eliminates those gaps by design. Every domain is planned, governed, and operated as part of a single coherent platform.

See How the Campus Works

Power and load release cannot be afterthoughts

Phased energization, load-step validation, and interconnection readiness must be coordinated from the start — not negotiated retroactively between siloed operators.

Safety must be designed in, not added on

Permit-to-work systems, hazardous-energy controls, and emergency response programs require integration with facility design, not post-construction retrofitting.

Operational authority must be explicit and tested

Who controls what, under what conditions, and through what escalation path — these questions demand clear answers before operations begin, not after incidents occur.

Long-term stewardship requires discipline from day one

Lifecycle documentation, maintenance regimes, and asset records that matter at year ten must be established at commissioning — not reconstructed from memory.

Commercial Framework

Universal Data Center Agreement Framework

All tenant agreements at Energy Compute Campus are executed under the Universal Data Center Agreement (DCAF) Framework — an open, standardized commercial structure covering both the Master Service Agreement (MSA) and Statement of Work (SOW). DCAF reduces negotiation friction, provides clear baseline protections for both parties, and reflects industry-standard expectations for colocation and managed infrastructure services.

Learn more about the DCAF Framework

Who We Serve

Built for Multiple Stakeholders.
Designed for Trust.

For Tenants

Purpose-built, phased capacity for hyperscale compute, AI/HPC workloads, and high-load digital operations. Coordinated onboarding and ongoing operational support.

Tenant Information

For Investors

A disciplined infrastructure platform with staged buildout, integrated operating model, governance rigor, and differentiated safety and compliance posture.

Investor Overview

For Communities

Responsible development, local workforce engagement, emergency coordination, and long-term community presence built on transparency and accountability.

Community Engagement

Safety & Security Programs

Designed in from day one

Permit-to-work and hazardous-energy control (LOTO)
Emergency response and crisis-readiness planning
Physical security zoning and credentialing
OT/IT cybersecurity governance
EHS program compliance and audits
Corrective-action tracking and readiness reviews

Program maturity, not just program existence — with evidence, records, and governance to support diligence and customer assurance.

Safety, Security & Compliance

Safety is Not a Checklist.
It's a Design Discipline.

At Energy Compute Campus, safety, physical security, and operational compliance are embedded into campus design, construction sequencing, and ongoing operations — not applied as a regulatory afterthought.

Our programs are structured, documented, and auditable. We maintain evidence of readiness — not just assurances of it.

View our Safety & Security Programs

Community & Responsible Development

Infrastructure Built to Last.
Developed with Integrity.

Large-scale energy and compute infrastructure has real impacts on the places where it is built. We take that responsibility seriously — as a fundamental operating principle.

Our approach to community engagement, workforce development, and environmental stewardship is integrated into how we develop and operate.

Learn about our community approach

Local Workforce

Skilled technical jobs, apprenticeships, and O&M training embedded in our operating model.

Transparent Development

Early and ongoing engagement with local stakeholders, regulators, and community leaders.

Emergency Coordination

Formal interfaces with local first responders and public safety agencies from planning through operations.

Long-Term Presence

We develop infrastructure we intend to operate and steward for decades — not flip on completion.

Ready to reserve capacity?

Energy Compute Campus is accepting reservations for 1 MW to 100 MW of capacity. First energization is scheduled for Q1 2027, with the initial Call Date expected in Q3 2026.