Simulation
Understand Complexity. Design with Confidence.
We use computational simulation to understand heat transfer, fluid flow, structural behaviour and coupled physics — so design decisions are based on insight, not guesswork.
01Capabilities
What we engineer.
- 01
Heat transfer & thermal analysis
Conduction, convection and radiation in components, equipment and thermal processes.
- 02
Computational fluid dynamics
Flow fields, pressure losses, mixing and convective heat transfer.
- 03
Finite element analysis
Stress, deformation and stiffness of parts and assemblies under load.
- 04
Multiphysics simulation
Coupled thermal, fluid, structural and process phenomena.
- 05
Digital twins
Virtual representations of equipment or processes to explore behaviour and scenarios.
- 06
Process modeling
Models of thermal and industrial processes to understand and improve them.
02Typical challenges
Problems we are asked to solve.
- 01
A component overheats, deforms or fails and the root cause is unclear.
- 02
Physical tests are expensive, slow or difficult to instrument.
- 03
Several design options need to be compared before building a prototype.
- 04
A thermal or industrial process needs to be understood and optimized.
03Example applications
Thermal processes
Heating, cooling and thermal treatment of products and materials.
Equipment design
Cooling of electronics and machines, heat exchangers and enclosures.
Structural verification
Brackets, frames and mechanisms checked under expected loads.
Research support
Modeling studies that complement experimental programmes.
Examples describe typical application areas, not completed client projects.
04Engineering workflow
A clear path from question to result.
STEP 01
Define the question
What decision should the simulation support?
STEP 02
Model setup
Geometry, physics, materials and boundary conditions.
STEP 03
Verification
Mesh studies and sanity checks on the numerical model.
STEP 04
Validation
Comparison with measurements or reference data where available.
STEP 05
Insight & recommendations
Clear results and engineering recommendations.
Can simulation replace physical testing?
Simulation reduces the number of tests and helps focus them, but it does not remove the need for validation. We are explicit about model assumptions and uncertainty.
What do you need to set up a simulation?
Geometry (CAD or drawings), materials, operating conditions and the question you want answered. Measurement data is valuable for validation.
Which simulation software do you use?
Tools are selected according to the physics and the project. We will discuss the approach and deliverables during scoping.
What does a simulation deliverable look like?
Typically a technical report with the model description, assumptions, results, visualizations and recommendations.