Our Business / Battery Storage
Energy Storage at Scale: The Right Chemistry for the Right Application
Advanced battery technologies engineered for grid services, renewable firming, and mission-critical backup—from proven lithium to next-generation sodium and solid-state.
Storage as Core Infrastructure
Energy storage is no longer a future technology—it's the enabling infrastructure that makes renewable integration, grid stability, and data centre resilience possible today. NUE deploys utility-scale battery energy storage systems (BESS) using the most advanced, bankable, and application-appropriate chemistries available.
Why Battery Storage Matters
Grid-Scale Value Creation
- Firm intermittent renewable generation (solar, wind)
- Provide frequency regulation and voltage support
- Enable peak shaving and load shifting
- Capture arbitrage opportunities (charge low, discharge high)
- Deliver black-start capability and grid resilience
Behind-the-Meter Value
- Reduce demand charges for industrial and data centre loads
- Provide N+1 backup for mission-critical operations
- Smooth renewable self-consumption
- Participate in demand response programs
Three Battery Chemistries, Three Strategic Applications
At NUE, we don't believe in one-size-fits-all. Different use cases demand different battery technologies.
Lithium Iron Phosphate (LFP)
The Proven Workhorse
Chemistry: Lithium Iron Phosphate (LiFePO₄)
Why LFP
Safety First
Thermal stability superior to NMC/NCA chemistries; lower fire risk
Cycle Life
6,000–10,000 cycles at 80% depth of discharge
Cost Competitive
Lower upfront cost than solid-state; higher cycle life than NMC
Proven at Scale
Deployed globally by utilities, data centres, and industrial users
Bankable
Mature supply chain, established warranty terms, insurable
LFP Limitations
- Lower energy density than NMC (requires more space)
- Performance degradation in extreme cold (requires thermal management)
NUE LFP Deployments
Grid Services
Frequency regulation, peak shaving, ancillary services
Renewable Firming
2–4 hour duration systems paired with solar/wind
Data Centre UPS
Longer-duration backup replacing diesel gensets
Industrial Peak Shaving
Demand charge reduction for large commercial/industrial loads
Specifications (Typical NUE LFP System)
Power
1–50 MW modular blocks
Energy
10–200 MWh (2–4 hour)
Efficiency
85–90% round-trip
Lifespan
15–20 years
Response Time
<100 milliseconds
Cycles
6,000–10,000
NUE Battery Storage Investment Thesis
Chemistry Diversification = Risk Mitigation
By deploying multiple chemistries, we:
De-Risk Supply Chains
Not dependent on a single lithium supply
Optimize Economics
Match cheapest, safest chemistry to each use case
Capture Innovation Upside
Early position in sodium and solid-state as costs decline
Build Institutional Relationships
Partner with manufacturers, utilities, and offtakers across technology platforms
Revenue Stacking for BESS
Battery storage isn't a single revenue stream—it's a platform for multiple value captures.
Capacity Payments
Contracted availability payments from grid operators
Energy Arbitrage
Buy low (off-peak), sell high (peak)
Ancillary Services
Frequency regulation, voltage support, reactive power
Renewable Firming
Enable solar/wind to meet firm capacity requirements
Demand Charge Reduction
Behind-the-meter savings for industrial/data centre loads
Black-Start Services
Grid restoration capability after outages
Battery storage is the connective tissue between intermittent renewables, firm dispatchable power, and grid reliability. NUE's multi-chemistry approach positions us to deploy the safest, most bankable, and most cost-effective storage solution for each application—today and tomorrow.