Computational R&D & Feasibility Division

Pioneering simulation-driven chemical processes, catalysis research, and carbon-neutral energy solutions. Led by PhD expertise, we bridges molecular modeling and commercial plant scalability.

Explore CO₂ Simulator

Our Research Vectors

We leverage advanced thermodynamic principles, kinetic solvers, and proprietary simulation tools to resolve high-stakes energy transitions.

CO₂ Hydrogenation & CCUS

Rigorous kinetics, mass transport integration, and catalyst selection for transforming greenhouse gas emissions into high-value green commodities such as methanol and methane.

CO₂ + 3H₂ ⇌ CH₃OH + H₂O
CO₂ + 4H₂ ⇌ CH₄ + 2H₂O

Green Hydrogen & Methanation

System-wide process integration of water electrolysis systems, optimization of heat exchangers for exothermic methanation networks, and transient reactor simulations.

H₂O ⇌ H₂ + 0.5 O₂
ΔH° = -242 to -165 kJ/mol

Techno-Economic Feasibility

Full-scale computational sizing, safety risk analysis (HAZOP matrices), energy integration, Capex/Opex calculation models, and chemical scale-up safety audits.

ROI % = f(Yield, CAPEX, H₂)
Vacuum Hold: 2-5 mbar

High-Fidelity Molecular-to-Plant Scale Scaling

Our research methodology does not rely on simple estimations. We deploy high-order equation of state calculations (PR-SV, NRTL), coupled with rigorous kinetic reaction networks, to predict gas-liquid-catalyst interactions. This computational scaling ensures absolute plant-level accuracy before physical capital deployment.

PhD-Led

Research Stream

100%

Simulation-Validated

2-5 mbar

Vacuum Precision

Molecular Grid Chemistry Modeling
Collaborator

Academic Research Partner

Mr. Baskaran K, M.Tech.

Doctoral Research Scholar, Faculty of Technology

Enabling high-fidelity industry-academia synergy, GeoTech collaborates with computational researchers to bridge the gap between academic reactor design and industrial scale-up. A key focus is the thermodynamic and kinetic process simulations developed in alignment with the active doctoral studies of Mr. Baskaran.

Focused Research Domain Advanced design, numerical modeling, and thermodynamic optimization of CO₂ Hydrogenation to Green Methanol and synthetic fuel products.
Collaboration Scope Computational process synthesis, equation-of-state modeling, and multi-tubular reactor kinetics simulation validation.

CO₂ Hydrogenation Reactor

Tune the chemical conditions and run a real-time catalytic reactor simulation to observe conversion yields.

Catalytic Reactor Bed Visualizer IDLE
CO₂ Conversion Rate

0.0%

Product Yield

0.0kg/h

-
Byproduct H₂O Yield

0.0kg/h

Heat Released (Exothermic)

0.0kW

Thermal degradation warning! Equilibrium selectivity degraded.

R&D Development Roadmap

Bridging conceptual and computational excellence with physical laboratory scale-up milestones.

Active Phase

Phase 1: Computational Kinetics & Thermodynamic Modeling

Deployment of thermodynamic packages (PR-SV, NRTL-SAC), validation of reactor kinetics equations, and mathematical process optimization of CO₂-to-fuels reaction beds.

Active Phase

Phase 2: Techno-Economic & Pilot Sizing Studies

Providing custom consultation and Feasibility Reports (TEFR) for commercial plant designers. Sizing multitubular fixed-bed reactors, gas separators, and vapor capture grids.

Future Milestone

Phase 3: Physical Laboratory Setup & Catalyst Testing

Planned physical bench-scale research cells and laboratory infrastructure setups for validating simulation data, catalyst degradation tests, and experimental flow loops.

Research Collaboration & Feasibility Studies

Leverage our advanced process modeling, thermodynamic calculators, and custom kinetics configurations. Let us draft your plant's computational feasibility framework.

PhD-led Chemical Consultation

High-Fidelity Reactor Design Packages

Custom Kinetics & Catalyst Optimization

Detailed Techno-Economic Reports (TEFR)