Strategic Objectives
• Master the thermodynamics of accelerated mineral carbonation.
• Design high-pressure vessels optimized for solid-liquid-gas interactions.
• Integrate advanced heat recovery systems to slash operational costs.
• Scale laboratory breakthroughs into industrial-grade surface facilities.
The Core Challenge
While carbon capture is evolving, the challenge remains: how do we store CO2 safely, permanently, and at an industrial scale without relying solely on underground reservoirs?
01
The Science of Mineral Carbonation
02
Ex-Situ vs In-Situ Systems
03
Thermodynamics of Carbonation
04
Feedstock Selection
05
Kinetics and Reaction Rates
06
Reactor Geometry and Design
07
Pressure Vessel Engineering
08
Heat Exchanger Integration
09
Mass Transfer Enhancements
10
Abrasive Slurry Handling
11
Materials Science and Corrosion
12
Comminution and Pre-treatment
13
Supercritical CO2 Utilization
14
Separation and Carbonate Recovery
15
Process Control and Automation
16
Scaling Up from Bench to Pilot
17
Carbon Accounting and Verification
18
Industrial Waste Symbiosis
19
Safety and Risk Management
20
Economic Modeling of Ex-Situ Plants
21