Chemical Kinetics Simulation
We model reaction pathways, rate dynamics, species transport, and multi-step chemical mechanisms to predict how reactions evolve in space and time. Chemical kinetics simulations enable precise process optimisation, safer reactor design, and predictive control over chemical systems.
What Is Chemical Kinetics?
Chemical kinetics describes the rate at which reactions occur and how species concentrations evolve.
Using advanced numerical solvers, we simulate multi-step reaction networks, transport effects, catalyst behaviour, energy release, and temperature coupling.
Our models incorporate Arrhenius kinetics, transition-state theory, complex reaction mechanisms, gas-phase chemistry, catalytic reactions, and coupled CFD–chemistry frameworks when required.
This helps predict reaction outcomes accurately — long before experimental trials.
- Optimise reactions: Determine ideal temperatures, residence times, and reactant ratios.
- Improve yield: Identify rate-limiting steps and eliminate inefficiencies.
- Improve safety: Predict runaway reactions, thermal spikes, or hazardous intermediates.
- Accelerate development: Reduce the need for trial-and-error experiments in reactors.
- Ensure consistency: Maintain stable production conditions across scale-up stages.
Our Chemical Kinetics Process
What We Can Simulate
- Combustion chemistry: Detailed hydrocarbon mechanisms, ignition delay, flame kinetics.
- Catalytic reactions: Surface kinetics, adsorption/desorption, reaction rates on active sites.
- Industrial chemical processing: Polymerisation, cracking, reforming, oxidation.
- Plasma-assisted chemistry: Ion-induced reactions, radical pathways, low-temperature reaction networks.
- Electrochemical reactions: Battery kinetics, electrode interfaces, charge-transfer rates.
- Biochemical systems: Enzyme kinetics, metabolic pathways, reaction cascades.
- Gas-phase & liquid-phase chemistry: Homogeneous and heterogeneous reaction dynamics.
Scientific References
Chemical Reviews, 2021 — Modern formulations for temperature-dependent rate constants.
AIChE Journal, 2022 — Best practices for modelling complex reaction pathways.
Combustion & Flame, 2023 — Integrating chemistry with CFD for high-accuracy combustion prediction.
Ready to Model Your Reaction Pathway?
From catalytic reactors to plasma-assisted chemistry — we provide precision kinetics modelling.
Get a Chemical Kinetics QuoteChemical Kinetics Simulation
We model reaction pathways, rate dynamics, species transport, and multi-step chemical mechanisms to predict how reactions evolve in space and time. Chemical kinetics simulations enable precise process optimisation, safer reactor design, and predictive control over chemical systems.
What Is Chemical Kinetics?
Chemical kinetics describes the rate at which reactions occur and how species concentrations evolve.
Using advanced numerical solvers, we simulate multi-step reaction networks, transport effects, catalyst behaviour, energy release, and temperature coupling.
Our models incorporate Arrhenius kinetics, transition-state theory, complex reaction mechanisms, gas-phase chemistry, catalytic reactions, and coupled CFD–chemistry frameworks when required.
This helps predict reaction outcomes accurately — long before experimental trials.
- Optimise reactions: Determine ideal temperatures, residence times, and reactant ratios.
- Improve yield: Identify rate-limiting steps and eliminate inefficiencies.
- Improve safety: Predict runaway reactions, thermal spikes, or hazardous intermediates.
- Accelerate development: Reduce the need for trial-and-error experiments in reactors.
- Ensure consistency: Maintain stable production conditions across scale-up stages.
Our Chemical Kinetics Process
What We Can Simulate
- Combustion chemistry: Detailed hydrocarbon mechanisms, ignition delay, flame kinetics.
- Catalytic reactions: Surface kinetics, adsorption/desorption, reaction rates on active sites.
- Industrial chemical processing: Polymerisation, cracking, reforming, oxidation.
- Plasma-assisted chemistry: Ion-induced reactions, radical pathways, low-temperature reaction networks.
- Electrochemical reactions: Battery kinetics, electrode interfaces, charge-transfer rates.
- Biochemical systems: Enzyme kinetics, metabolic pathways, reaction cascades.
- Gas-phase & liquid-phase chemistry: Homogeneous and heterogeneous reaction dynamics.
Scientific References
Chemical Reviews, 2021 — Modern formulations for temperature-dependent rate constants.
AIChE Journal, 2022 — Best practices for modelling complex reaction pathways.
Combustion & Flame, 2023 — Integrating chemistry with CFD for high-accuracy combustion prediction.
Ready to Model Your Reaction Pathway?
From catalytic reactors to plasma-assisted chemistry — we provide precision kinetics modelling.
Get a Chemical Kinetics Quote