comsol multiphysics tutorial heat transfer

More interesting examples will be discussed below. java.getComsolVersion() which shows the COMSOL version used to save the current model > () More interesting things can be done through model.java, a java class .ModelClient which gives a full access to the COMSOL Java® API > type(model.java)Īvailable methods for this Model object could be found in. Previous examples are implementations ready for use. It also include how to evaluate, export and save results. I highly recommend to see the tutorial which describes clearly how to manage and inspect models. Mph has an excellent code documentation of its public application programming interface. Model.physics() shows which interfaces are used to compute the electric field and conduction > model.physics() Mph.tree(model) displays in console a complete representation of a model > mph.tree(model)Ĭompare these outputs with the obtained from the GUI (Figure 1). mph.tree and are two simple examples which show how Mph works : INFO:mph:Loading model 'power_transistor.mph'.Īmong other things, wrapper gives the possibility to modify parameters, solve models, and also evaluate results. > model = client.load('power_transistor.mph') As a result, a Python wrapper for the COMSOL model’s Java API is accessible through the mph class : > import mphĭEBUG:mph:Checking installation folder './comsol56/multiphysics'.ĭEBUG:mph:Reported version info is 'COMSOL Multiphysics 5.6.0.280'.

Then, a COMSOL model file must be loaded. First of all, a COMSOL client have to be started with a certain number of processor cores. Mph makes of use of JPype in order to obtain a pythonic access to the Java API. Physics and solution interfaces are highlighted.

Comsol multiphysics tutorial heat transfer