Bollada, P.C.; Jimack, P.K.; Mullis, A.M. Towards a Physically Consistent Phase-Field Model for Alloy Solidification. Metals2022, 12, 272.
Bollada, P.C.; Jimack, P.K.; Mullis, A.M. Towards a Physically Consistent Phase-Field Model for Alloy Solidification. Metals 2022, 12, 272.
Bollada, P.C.; Jimack, P.K.; Mullis, A.M. Towards a Physically Consistent Phase-Field Model for Alloy Solidification. Metals2022, 12, 272.
Bollada, P.C.; Jimack, P.K.; Mullis, A.M. Towards a Physically Consistent Phase-Field Model for Alloy Solidification. Metals 2022, 12, 272.
Abstract
We summarise contributions made to the computational phase-field modelling of alloy solidification from the University of Leeds spoke of the LiME project. We begin with a general introduction to phase-field, and then reference the numerical issues that arise from solution of the model, before detailing each contribution to the modelling itself. These latter contributions range from controlling and developing interface-width independent modelling; controlling morphology in both single and multiphase settings; generalising from single to multi-phase models; and creating a thermodynamic consistent framework for modelling entropy flow and thereby postulate a temperature field consistent with the concepts of, and applicable in, multiphase and density-dependent settings.
Engineering, Industrial and Manufacturing Engineering
Copyright:
This is an open access article distributed under the Creative Commons Attribution License which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.
