Services — Turnkey Colocation
Power. Space. Cooling. Network.
Gigawatt-scale turnkey colocation where the power source, compute buildings, cooling infrastructure, and operations are designed as one integrated system — purpose-built for high-load digital workloads.
GW+
Total Campus Capacity
Phased delivery across 500 acres
50 MW
Phase 1 Per Building
On-site generation backed
100+ kW
Per-Rack Density
Liquid cooling ready
100%
Uptime Design Target
Fault tolerant design
What We Deliver
Four Pillars of Integrated Capacity
Every capacity commitment — power, space, cooling, and network — is delivered from a single integrated platform, not assembled from separate vendors with separate interests.
On-Site Generation. No Grid Dependency.
Power is produced on campus — not pulled from a constrained utility queue. Two independent generation trains, each sized for the full critical load, feed two independent medium-voltage distribution rings. Every pod receives an A and B feed. Both are live simultaneously. No transfer switching under normal operations.
- Gigawatt+ total campus capacity (phased)
- 50 MW+ per Phase 1 building
- N+1 UPS and PDU per pod
- 2N options available for critical loads
- MV distribution ring architecture
- Power metering per tenant
Pre-Engineered Buildings. Prefabricated Modules.
Compute space is delivered via pre-engineered steel buildings with prefabricated power and cooling modules — not ground-up construction managed independently from the power infrastructure. Buildings and modules are matched to the campus generation capacity from the start. Phased delivery allows tenants to scale without re-engineering.
- 500-acre master-planned campus
- Phased pre-engineered building delivery
- Dedicated building options for anchor tenants
- Separate tenant cages and suites available
- Controlled access per zone
- Structured cabling and demarcation
Redundant Cooling. Liquid-Ready for High Density.
Cooling infrastructure is delivered as prefabricated modules matched to the building and power infrastructure — not procured separately. N+1 minimum redundancy is standard. High-density AI and HPC deployments requiring liquid cooling are supported through a structured technical onboarding process.
- Prefabricated cooling modules per building
- N+1 minimum redundancy standard
- Liquid cooling readiness for 30 kW+ racks
- Rear-door and in-row liquid options
- Integrated with ops center monitoring
- Low PUE design target
Carrier-Neutral Connectivity. Dark Fiber Options.
The campus provides structured network demarcation and carrier-neutral connectivity access. Dark fiber and lit fiber options connect to major regional network exchanges. Tenant network requirements are documented during technical onboarding and mapped to campus infrastructure capabilities.
- Carrier-neutral meet-me room
- Dark fiber and lit fiber options
- Regional network exchange connectivity
- Structured tenant network demarcation
- OT/IT network segmentation
- Requirements defined at onboarding
Why Integration Matters
One Platform. One Escalation Path. No Interface Gaps.
Conventional colocation assembles capacity from separate vendors — a utility for power, a landlord for space, a cooling OEM for infrastructure, and a carrier for connectivity. Every handoff is a potential failure point. Every vendor has a separate maintenance window. Every contract has a different SLA.
At Energy Compute Campus, the generation plant, distribution infrastructure, compute buildings, prefabricated modules, and operations team are all part of one platform. Your operational interface is with the campus team — not a subcontractor, not a utility, not a third-party OEM.
No Energy-to-Campus Handoff Risk
Power is generated and distributed on campus. No utility queue. No separate energy operator.
Maintenance Coordinated Across All Systems
Plant, cooling, and building maintenance are coordinated under one operations center.
Single Operations Interface
One point of contact. One escalation path. No vendor finger-pointing.
Evidence-Based Commissioning
Structured readiness reviews before your load goes live. You do not inherit undocumented assumptions.
Workload Types
Built for Demanding Compute
The campus model is purpose-built for high-load digital infrastructure. Whether you run hyperscale cloud, AI training, HPC, or enterprise workloads, the capacity is designed for you.
Hyperscale Compute
Large-scale cloud and compute infrastructure requiring reliable, high-capacity power with minimal grid exposure and scalable white space delivery.
AI Training and Inference
Sustained high-density GPU workloads requiring 30 kW+ per rack, liquid cooling readiness, and uninterrupted load delivery for long-running training jobs.
HPC and Scientific Compute
High-performance compute clusters with demanding power density, low-latency internal fabric requirements, and sensitivity to power interruption.
Enterprise Colocation
Enterprise workloads requiring reliable capacity with controlled access, strong physical security, SLA documentation, and compliance-ready infrastructure.
Anchor and Large-Footprint Tenants
Dedicated building capacity with custom module configurations, energy coordination, joint operational procedures, and long-term phased delivery agreements.
Edge and Regional Deployment
Regional compute deployments requiring reliable capacity outside of primary coastal markets with strong connectivity access and long-term operational stability.
Onboarding Process
A Controlled Path to Operations
Tenant onboarding is a coordinated, staged process. We do not hand over space and power and step back.
01
Initial Scoping
Capacity requirements, power density, cooling approach, timeline, and fit with campus phasing.
02
Technical Requirements Review
Document power, cooling, connectivity, and security requirements. Map to campus infrastructure.
03
Capacity Agreement
Reserved capacity, power allocation, SLA terms, maintenance protocols, and commercial terms.
04
Infrastructure Readiness Review
Joint review of commissioning data, power validation, cooling performance, and security posture.
05
Equipment Installation
Coordinated installation under campus access controls with safety induction and power-up coordination.
06
Staged Power-Up
Incremental load introduction following validated procedures. Transition to steady-state operations.
Commercial Framework
Universal Data Center Agreement Framework
All colocation agreements are executed under the Universal Data Center Agreement (DCAF) Framework — an open, standardized commercial structure governing both the MSA and SOW. DCAF provides clear, balanced baseline protections reflecting industry-standard expectations for colocation and managed infrastructure services.
Learn more about the DCAF Framework at dcaf.gridsiteinc.comFAQ
Frequently Asked Questions
Common questions from prospective customers and infrastructure operators.
Ready to discuss capacity, timing, and technical fit?
We are currently engaging prospective customers for Phase 1 capacity planning. Reach out to start a conversation.