COMSOL Consultancy in the Netherlands

Physixfactor provides independent COMSOL Multiphysics consultancy services for industrial and engineering applications. We support companies, engineering firms and R&D organizations in developing reliable simulation models for complex physical systems.

Our expertise covers structural mechanics, heat transfer, fluid flow, electromagnetics, acoustics and multiphysics interactions. Projects range from feasibility studies and concept evaluations to detailed engineering analyses and troubleshooting of existing simulation models.

Whether the application involves industrial equipment, energy systems, offshore structures, process installations or custom-engineered products, Physixfactor helps transform engineering questions into robust numerical models

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Solving Complex Engineering Problems

Many industrial systems involve multiple interacting physical phenomena. Thermal expansion influences structural behavior. Fluid flow affects heat transfer. Electromagnetic fields generate forces and heat. Such coupled effects often require advanced multiphysics modeling.

Physixfactor specializes in:

  • Multiphysics simulations
  • Coupled thermal-structural analyses
  • Fluid-structure interactions
  • Electromagnetic-thermal coupling
  • Acoustic-structural interactions
  • Custom constitutive models
  • User-defined physics formulations

Our goal is not simply to create a model, but to provide engineering insight that supports design decisions and risk reduction.

Magnetic force calculations.

Rubber or silicone material can sometimes become very elongated. Due to these properties, they are used in all kinds of products. Such as seals and the like. As shown here, the rubber material is pulled over a ring, and to prevent damage, the elongation must remain within certain limits. In this simulation, the forces that the rubber material exerts over the ring during movement are simulated. With this product, the sealing force was important during the entire movement to avoid leakage of liquids. Laboratory tests showed a good match with the simulations, allowing the possibility to optimise and predict product changes. Read more….

magnetic fields in device
Magnetic field lines
Vibration Cutting Tool

Complex Geometry and Submodeling

Large industrial systems often contain critical regions that require significantly higher accuracy than the overall model.

Physixfactor applies submodeling techniques to efficiently capture local stresses, temperatures, deformations and field concentrations without excessive computational cost.

Typical applications include:

  • Welded connections
  • Bolted assemblies
  • Offshore structural details
  • Pressure vessel components
  • Electrical contacts
  • Thermal hot spots
  • Fatigue-sensitive regions

Submodeling allows global system behavior and local detail analysis to be combined within a consistent simulation framework.

Modal Analysis and Dynamic Behaviour

Understanding dynamic behavior is essential for many industrial systems.

Physixfactor performs modal and vibration analyses to identify:

  • Natural frequencies
  • Mode shapes
  • Resonance risks
  • Structural response to dynamic loading
  • Equipment vibration behavior
  • Rotating machinery dynamics

These analyses help prevent resonance-related failures and improve operational reliability.

Applications include machinery, offshore equipment, support structures, piping systems and mechanical assemblies.

Not all engineering problems fit within standard software interfaces.

For specialized applications, Physixfactor develops custom mathematical models using COMSOL’s advanced equation-based capabilities. This allows implementation of proprietary physics, custom constitutive relations and specialized governing equations.

Examples include:

  • Custom transport equations
  • Specialized material behavior
  • User-defined source terms
  • Multi-scale models
  • Process-specific formulations
  • Research and development applications

This capability extends simulation possibilities beyond standard software modules.

 

Model Verification and Quality Assurance

Reliable engineering decisions require reliable simulation results.

Every project includes systematic quality checks to ensure numerical robustness and physical consistency.

Verification procedures may include:

  • Mesh independence studies
  • Convergence testing
  • Solver sensitivity analysis
  • Boundary condition verification
  • Conservation checks
  • Validation against analytical solutions where applicable
  • Engineering plausibility reviews

Physixfactor places strong emphasis on model credibility and traceability. Simulation results should not only converge numerically but must also remain physically meaningful.

Industries Served

Physixfactor supports organizations operating in:

  • Industrial manufacturing
  • Offshore and marine engineering
  • Energy and power systems
  • Process industry
  • Research and development
  • High-tech equipment development
  • Mechanical engineering
  • Electrical engineering

Projects can range from focused technical studies to comprehensive multiphysics simulation programs.

Why Physixfactor

Physixfactor combines advanced COMSOL expertise with a strong engineering and mathematical background.

Clients benefit from:

  • Independent consultancy
  • Advanced multiphysics expertise
  • Experience with complex engineering models
  • Custom equation-based modeling capabilities
  • Rigorous verification procedures
  • Practical engineering interpretation of results

Our objective is to deliver simulation models that are robust, credible and useful for real engineering decisions.

spanningsberekening
Thermal expansion HEX

If your project involves challenging multiphysics behavior, complex geometries, advanced numerical modeling or validation of existing COMSOL models, Physixfactor can help.

Contact us to discuss your simulation requirements and explore the most effective modeling strategy for your application.

Resonance graph
Frequency analyses