Strategic Objectives
• Master the principles of supercritical fluid dynamics for power generation.
• Optimize turbomachinery design for high-density, low-viscosity working fluids.
• Reduce plant footprint while significantly increasing thermal output.
• Integrate sCO2 cycles across nuclear, solar, and fossil fuel applications.
The Core Challenge
Traditional steam-based power cycles have reached a plateau, limited by massive footprint requirements and inherent thermodynamic inefficiencies.
01
The Supercritical Frontier
02
Thermodynamic Foundations
03
The Brayton Cycle Reimagined
04
Thermal Efficiency Benchmarks
05
Turbomachinery Design
06
Compressor Performance near the Critical Point
07
Advanced Heat Exchanger Integration
08
The Recuperative Cycle
09
Materials for Extreme Environments
10
Fluid Dynamics and Flow Modeling
11
Bearings and Seals
12
System Control and Dynamics
13
Nuclear Power Applications
14
Concentrated Solar Power (CSP)
15
Waste Heat Recovery
16
Fossil Fuel Integration
17
Component Scaling and Modular Design
18
The Recompression Cycle Architecture
19
Economic Analysis and Capital Costs
20
Experimental Facilities and Testing
21
The Future of Power Conversion
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