Since version 2026, Flux 3D and Flux PEEC are no longer available.
Please use SimLab to create a new 3D project or to import an existing Flux 3D project.
Please use SimLab to create a new PEEC project (not possible to import an existing Flux PEEC project).
/!\ Documentation updates are in progress – some mentions of 3D may still appear.
Magneto-thermal cosimulation: Postprocessing
Graphic postprocessing
The graphic postprocessing (isovalues, isolines etc) is done:
- For the temperature :
- In the thermal project: across the spatial quantity having the same name as the multiphysics formula created by the user to calculate and export the temperature (the spatial quantity is automatically created by the cosimulation)
- In the electromagnetic project: across the « TKelvin » spatial quantity.
- For the losses :
- In the thermal project: across the spatial quantity created by the user in order to store the imported losses.
- In the 2D or 3D electromagnetic project: It is not advised to display the losses using the spatial quantities which have the same names as the multiphysics formula, when several spatial quantities exist. In fact, the spatial quantity stores the data computed on the entire domain, even if the export is done on one region. The display of spatial quantities sum which store the same quantity (Joule losses for example) gives wrong data.
Evolution in time
To display the evolution in time of the temperature or of the losses, one must use a sensor. It can be defined by a local calculus (for the temperature) or by an integral calculus over the region (for the losses).
The formulas to use are the same as above (see graphic exploitation).
For the integral calculus, this is a surface integral calculus in 2D and a volume integral in 3D.