TiByte
TK Dilus

Bridge-Powered Nuclear AI Factories

5.4 GW IT AI Campus Portfolio

Three Louisiana sites comprising a planned 5.4 GW IT portfolio, with 1.6 GW IT targeted for commercial operation in 2028.

Integrated data-center facilities with phased on-site generation: modular fuel cells initially, followed by gas engines and ultimately nuclear power.

5.4 GWIT Load
9.2 GWeGeneration
1.1PUE Target
Tier III+Design Target
Download One-Page Brief
Illustrative phased AI-campus architecture with bridge power and later nuclear generation

Louisiana — Phased Campus Delivery

A staged deployment across three Louisiana sites: modular fuel cells for initial operations, gas generation for expansion, and nuclear capacity for long-term growth.

Phase 12028 Opening Target
1,600MW IT Across Sites
2,080 MWe Planned Fuel Cell Generation

Fuel Cells

Initial IT capacity supported by modular solid-oxide fuel cells. Compact on-site generation designed for island-mode operation and scalable deployment.

Short term1,600 MW IT · 2,080 MWe
Phase 22030 Expansion Target
+1,600MW IT Across Sites
2,288 MWe Planned Gas Generation

Gas Engines

Modular gas engines expand on-site generation. Existing fuel-cell systems remain operational throughout the expansion.

Medium term3,200 MW IT · 4,368 MWe
Phase 3Mid-2030s Target
+2,200MW IT Across Sites
4,840 MWe Planned Nuclear Generation

Nuclear Generation

Long-term nuclear capacity supports the final planned expansion. Licensing and project delivery progress through separate development gates.

Long Term5,400 MW IT · 9,208 MWe

Onsite Power & Technology Architecture

INTEGRATED POWER GENERATION SYSTEMS

Fuel Cells
Electrochemical conversion of fuel into electricity.
High-efficiency, distributed power generation.
Modular architecture supporting island-mode.
Natural gas / Hydrogen
Gas Engines
Dispatchable reciprocating engines.
Battery storage manages rapid demand fluctuations.
Hybrid controls support power stability.
Natural gas
Nuclear Generation
High-capacity-factor, firm low-carbon electricity.
Supports high-utilization compute workloads.
Reduces long-term reliance on fossil fuels.
Uranium Oxide

Commercial Engagement

Customer Direction to Project Delivery

From site and configuration alignment through to funded development and delivery — each commitment follows a defined technical, commercial and financing gate.

Contract Form

Separate bridge-power, facilities and later nuclear agreements; structures developed with the customer.

Term Length

Long-term customer commitments aligned with the relevant power and facilities financing.

Pricing Posture

Customer-specific commercial structures, subject to technical validation and agreement.

01

Align Site & Capacity

Share capacity, geography and timing requirements to identify a suitable site and configuration.

02

Review the Development Case

Execute an NDA and review site facts, technical planning cases and the development pathway.

03

Develop Bankable Terms

Advance customer-specific technical validation, cost and schedule work, and commercial terms.

04

Advance to NTP & Delivery

Close financing and delivery conditions through the relevant power and facilities project vehicles.

Capacity Terminal

3 Louisiana Sites · 5.4 GW IT Planning Case

Louisiana · Island-Mode Design Basis
ConfigurationCLUSTER LIVE
Cluster Nodes
Phase
Compute MW
Node ALouisiana
3,000 MW IT
Phase 1
Fuel Cell Generation
2028
Available
+1,000MW
Phase 2
Gas Engines
2030
Available
+1,000MW
Phase 3
Nuclear Generation
Mid-2030s
Available
+1,000MW
Node BLouisiana
1,000 MW IT
Phase 1
Fuel Cell Generation
2028
Available
+200MW
Phase 2
Gas Engines
2030
Available
+200MW
Phase 3
Nuclear Generation
Mid-2030s
Available
+600MW
Node CLouisiana
1,400 MW IT
Phase 1
Fuel Cell Generation
2028
Available
+400MW
Phase 2
Gas Engines
2030
Available
+400MW
Phase 3
Nuclear Generation
Mid-2030s
Available
+600MW

Cluster Carbon Footprint

ABC
242kg CO2e/MWh
US grid
0 — Net Zero600 — Max
Active Capacity
5.40 GW compute
Active Nodes
3 of 3 nodes

Capacity Deployment Ramp

Cumulative phased additions (2028–2035)
Delivered compute (GW)
Inquiry Ready Portfolio
SLA Compliant · 9 Phase Additions Configured

Capital Follows Development Gates

TK Dilus Platform — Development & Delivery

The platform originates campus options and advances selected sites through funded development. Customer alignment, site validation and bankable terms establish the basis for dedicated project vehicles for bridge power, data-center facilities and later nuclear generation.

Explore TK Dilus Platform
Funding & Delivery Gates
01
Customer & Commercial Alignment
Develop dedicated capacity and customer terms to support the relevant project-financing pathway.
02
Gated Site Development
Site rights, technical definition, an approvable permit path and financing readiness guide the next commitment.
03
Separate Project Vehicles
Bridge power and facilities move into delivery SPVs; later nuclear development remains separately gated.

Platform Roles & Contracting

Integrated Development. Dedicated Project Delivery.

TK Dilus

TK Dilus

Platform & Capital Structuring
Institutional Capital
Portfolio origination, customer alignment and campus capital formation.
Governance
Development gates and dedicated project-vehicle architecture.
Capital Stack
Power and facilities financing structures developed around customer terms.
Capital Workstreams
Infrastructure investor and lender discussions at different stages.
Explore Platform & Capital Structuring
TiByte

TiByte

Technical Development
Site & Technical Diligence
Site screening, technical validation and owner-side development.
Permitting & Regulatory
Licensing and permitting pathways for the integrated campus.
Owner-Side Delivery
Engineering coordination, interface definition and delivery readiness.
Campus Integration
Integrating energy and data center assets.
Explore TiByte