ENERGY ARCHITECTURE
Firm Power for 24/7 AI Operations
The energy architecture pairs advanced nuclear generation with renewable energy support, thermal logic, and phased resilience strategies.
ENERGY FLOW
Continuous Energy Cycle
Six integrated subsystems form a continuous loop — from nuclear generation through compute delivery and back through thermal recovery.
- Energy
- Loop
- Nuclear Core
- Heat Exchange
- Turbine
- Grid
- Compute
- Cooling
POWER RATIONALE
Why Firm Power Matters
Modern AI workloads — training runs that last weeks, inference serving that never sleeps — demand continuous, predictable power. Grid-dependent operations face curtailment risks, price volatility, and capacity constraints that directly impact computational throughput.
Firm power means always-on generation that does not depend on weather, grid congestion, or market pricing. Nuclear energy provides this baseline, while renewable integration reduces operating costs and improves the carbon profile.
NUCLEAR ROLE
The Nuclear Foundation
Factory-fabricated, transportable reactor modules in the 10-30 MW range. Standardized design reduces construction risk and enables serial deployment across geographies.
- 10-30 MW SMR Range
- <10 MW Microreactor
- 70-80% Base Capacity
- 24/7 Uptime
HYBRID MODEL
Renewable Integration
Nuclear provides the firm baseload, but renewables reduce marginal costs and improve the carbon profile. The combined system delivers continuous power with economic and environmental optimization.
- Nuclear Baseload: 100% availability — firm, always-on generation
- Renewable + Storage: Supplemental — cost optimization
- Combined: 24/7 coverage with cost optimization
THERMAL LOGIC
Thermal Storage and Integration
Waste heat from both nuclear generation and compute operations feeds into thermal recovery loops, improving overall system efficiency and reducing cooling costs.
Waste Heat Recovery
Capture thermal energy from compute operations and nuclear processes for reuse.
District Heating
Supply captured heat to nearby communities, reducing overall energy waste.
Cooling Return
Cooled water returns to the system, creating a closed-loop thermal cycle.
Energy Optimization
Intelligent load balancing between generation, storage, and thermal systems.
SCALING
Phased Capacity Scaling
- 10 MW Phase 1
- 20 MW Phase 2
- 30 MW Phase 3
Each phase doubles or triples available capacity while maintaining the same operational framework. Phase 1 establishes the energy foundation with initial nuclear or grid-hybrid power. Phase 2 integrates renewable sources and expands storage. Phase 3 reaches full campus capacity with complete energy independence and redundancy.