Neutron Transport Simulation
We simulate how neutrons move, scatter, absorb, and interact with matter inside nuclear, plasma, and radiation-related systems. Neutron transport modelling provides essential insight into shielding efficiency, reactor behaviour, activation levels, and safety-critical design parameters.
What Is Neutron Transport?
Neutron transport simulation solves the Boltzmann transport equation to predict the behaviour of neutrons as they undergo collisions, scattering, absorption, and fission events.
Using deterministic (SN) solvers, Monte Carlo particle tracking, and coupled multiphysics models, we calculate flux, energy spectra, reaction rates, and shielding requirements.
These simulations are crucial in nuclear engineering, radiation shielding, material activation, and high-energy plasma environments.
- Improve shielding design: Ensure adequate protection from neutron radiation.
- Predict material activation: Understand long-term radioactivity buildup.
- Enhance reactor safety: Evaluate power distributions and neutron leakage.
- Optimise research setups: Beamlines, detectors, irradiation chambers, plasma neutronics.
- Reduce risk and cost: Replace expensive nuclear experiments with validated models.
Our Neutron Transport Process
What We Can Simulate
- Nuclear reactor neutronics: Flux distribution, multiplication factor, leakage paths.
- Shielding analysis: Attenuation through concrete, steel, borated materials, composites.
- Beamline design: Guide tubes, collimators, moderators, filters for research facilities.
- Material activation: Long-term radioactivity from neutron exposure.
- Fusion & plasma sources: Neutron emission from D–T or D–D reactions.
- Detector optimisation: Placement, efficiency prediction, signal-to-noise analysis.
- Criticality assessments: Safe configurations for fissile material handling.
Scientific References
Annals of Nuclear Energy, 2021 — Benchmark methods for particle-tracking accuracy.
Nuclear Science & Engineering, 2022 — High-resolution flux prediction and convergence strategies.
Fusion Engineering and Design, 2023 — Modelling neutron behaviour in high-energy plasma systems.
Ready to Model Neutron Behaviour in Your System?
From reactors to research beamlines — neutron transport simulation provides unparalleled accuracy.
Get a Neutron Transport QuoteNeutron Transport Simulation
We simulate how neutrons move, scatter, absorb, and interact with matter inside nuclear, plasma, and radiation-related systems. Neutron transport modelling provides essential insight into shielding efficiency, reactor behaviour, activation levels, and safety-critical design parameters.
What Is Neutron Transport?
Neutron transport simulation solves the Boltzmann transport equation to predict the behaviour of neutrons as they undergo collisions, scattering, absorption, and fission events.
Using deterministic (SN) solvers, Monte Carlo particle tracking, and coupled multiphysics models, we calculate flux, energy spectra, reaction rates, and shielding requirements.
These simulations are crucial in nuclear engineering, radiation shielding, material activation, and high-energy plasma environments.
- Improve shielding design: Ensure adequate protection from neutron radiation.
- Predict material activation: Understand long-term radioactivity buildup.
- Enhance reactor safety: Evaluate power distributions and neutron leakage.
- Optimise research setups: Beamlines, detectors, irradiation chambers, plasma neutronics.
- Reduce risk and cost: Replace expensive nuclear experiments with validated models.
Our Neutron Transport Process
What We Can Simulate
- Nuclear reactor neutronics: Flux distribution, multiplication factor, leakage paths.
- Shielding analysis: Attenuation through concrete, steel, borated materials, composites.
- Beamline design: Guide tubes, collimators, moderators, filters for research facilities.
- Material activation: Long-term radioactivity from neutron exposure.
- Fusion & plasma sources: Neutron emission from D–T or D–D reactions.
- Detector optimisation: Placement, efficiency prediction, signal-to-noise analysis.
- Criticality assessments: Safe configurations for fissile material handling.
Scientific References
Annals of Nuclear Energy, 2021 — Benchmark methods for particle-tracking accuracy.
Nuclear Science & Engineering, 2022 — High-resolution flux prediction and convergence strategies.
Fusion Engineering and Design, 2023 — Modelling neutron behaviour in high-energy plasma systems.
Ready to Model Neutron Behaviour in Your System?
From reactors to research beamlines — neutron transport simulation provides unparalleled accuracy.
Get a Neutron Transport Quote