  The phase-field method has become a useful tool for the simulation of
classical metallurgical phase transformations as well as other phenomena
related to materials science. The thermodynamic consistency that forms the
basis of these formulations lends to its strong predictive capabilities and
utility. However, a strong impediment to the usage of the method for typical
applied problems of industrial and academic relevance is the significant
overhead with regard to the code development and know-how required for
quantitative model formulations. In this paper, we report the development of an
open-source phase-field software stack that contains generic formulations for
the simulation of multi-phase and multi-component phase transformations. The
solvers incorporate thermodynamic coupling that allows the realization of
simulations with real alloys in scenarios directly relevant to the materials
industry. Further, the solvers utilize parallelization strategies using either
multiple CPUs or GPUs to provide cross-platform portability and usability on
available supercomputing machines. Finally, the solver stack also contains a
graphical user interface to gradually introduce the usage of the software. The
user interface also provides a collection of post-processing tools that allow
the estimation of useful metrics related to microstructural evolution.
