Clean Energy & Data Center Dispatch Simulator | Ultra-Long Duration Storage Engine

```html Clean Energy & Data Center Dispatch Simulator | Ultra-Long Duration Storage Engine

Simulation Configuration ⚙️

Scenario Presets

Data Center Baseload Demand 100 MW

Installed Solar PV Capacity 250 MW

Installed Wind Capacity 150 MW

Storage Power Rating (MW) 100 MW

Storage Energy Capacity (MWh / Hrs) 10,000 MWh (100h)

Storage Round-Trip Efficiency (RTE) 60%

Real-Time Power Flow (Hour 36) 🔀

24/7 CFE Score

94.2%

Matching hourly load

Delivered LCOE

$68.4

$/MWh estimated

Avoided Grid Imports

6,840

MWh over 72h window

Peak Grid Reliance

12 MW

Max deficit import

Ultra-Long Storage State-of-Charge

6,500 / 10,000 MWh (65%)

🔋 Continuous Discharge Runtime: 65.0 hrs @ full load

Scrub Hour: 36/72

72-Hour Power Dispatch & Storage Balancing Timeline Hourly MW Generation vs. Data Center Load

The Multi-Day Storage Problem

Standard lithium-ion battery technology is economically optimized for 2 to 4 hours of duration. When weather events like Dunkelflaute (multi-day periods of low wind and high cloud cover) occur, short-duration batteries deplete rapidly, forcing gigawatt-scale AI clusters back onto high-carbon fossil grid power.

100+ Hour Technology Architecture

Inspired by Noon Energy and Sabanci's ultra-long duration energy storage (ULD) technology, multi-day systems utilize earth-abundant, low-cost raw materials. This achieves energy storage capital costs below $20/kWh (vs. $150+/kWh for lithium-ion), enabling continuous 100+ hour discharge capability to bridge multi-day renewable lulls.

24/7 Carbon-Free Energy Matching

Hyper-scale data centers aiming for true 24/7 Carbon-Free Energy (CFE) cannot rely on annual volumetric net-zero offsets. Ultra-long storage allows data centers to store excess solar/wind generation during peak generation hours and dispatch it continuously over 3–4 days without grid imports.