An open-source integrated computational environment for multi-physics/phase simulations, optimization and uncertainty quantification

An open-source integrated computational environment for multi-physics/phase simulations, optimization and uncertainty quantification

Anjali Sandip, University of North Dakota

Presented at the 15th US National Congress on Computational Mechanics, Austin, Texas, July 2019. Presentation withdrawn at the author's request; see the following article for an expansion on the topic:

Elmer FEM-Dakota: A unified open-source computational framework for electromagnetics and data analytics

Description

Traditionally, multi-physics simulation software programs lack tools for uncertainty quantification and optimization. More recently, there is a growing body of research that has integrated these tools into multi-physics simulation software programs. Building on this methodology, the study integrated open-source software programs -- DAKOTA for optimization and uncertainty quantification and ELMER for multi-physics/phase/scale simulations. Furthermore, the coupled software was successfully applied to benchmarks. The overarching goal was to develop an open-source integrated computational environment for multi-physics/phase/scale simulation, optimization and uncertainty quantification. The applications of this integrated computational environment span several industries ranging from aerospace and energy to healthcare and manufacturing.