Clean Energy, Carbon Capture & Green Transition
Rate-Based CO2 Capture, Hydrogen Transition & Techno-Economic Roadmaps
I model advanced decarbonization processes including rate-based amine carbon capture and multi-stage green hydrogen transition pathways for heavy industrial manufacturing.
Rate-Based CO2 Capture, Hydrogen Transition & Techno-Economic Roadmaps
Thermal & Process Inefficiencies
Applied Consulting Interventions
My Consulting Pillars Applied in Clean Energy
Rigorous Steady-State & Dynamic Modeling in Aspen HYSYS and Aspen Plus
10% – 25% Operational Efficiency GainThermal-Hydraulic Design in Aspen EDR, Fouling Mitigation & Pinch Analysis
12% – 29% Fired Duty Fuel SavingsBridging Aspen HYSYS with Python Scripts for Automated Sensitivity & Diagnostics
80%+ Reduction in Manual Engineering HoursCase Studies in Clean Energy
Green DRI Transition — Hydrogen Decarbonization & Techno-Economic Decision Intelligence
Aspen Plus process simulation and digital decision-support platform evaluating 5 progressive hydrogen transition pathways (NG100 → H25 → H50 → H75 → H100) for a 119 t/h metallic iron plant, optimizing trade-offs between process CO2 abatement, electrolyzer MW scale-up, renewable power tariffs, and capital investment constraints.
CO2 Capture & MEA Regeneration System
Modeling an industrial post-combustion carbon capture process using 30 wt% aqueous monoethanolamine (MEA) solvent with 98.25% post-flash recovery.
Gas-Solid Fluidized Bed System & Hydrodynamics Simulation
Hydrodynamic simulation of gas-solid fluidized bed reactors in Aspen Plus, evaluating minimum fluidization velocity, bubble dynamics, bed expansion, and cyclone separation.
Request an Engineering Assessment for Clean Energy
My thermodynamic modeling and Pinch optimization interventions adapt to your plant's exact operating envelope, crude assays, and steam infrastructure.