High-fidelity modeling of nuclear reactors requires the solution of a nonlinear coupled multi-physics stiff problem with widely varying time and length scales that need to be resolved correctly. A numerical method that converges the implicit nonlinear terms to a small tolerance is often referred to as nonlinearly consistent (or tightly coupled). This nonlinear consistency is still lacking in the vast majority of coupling techniques today. We present a tightly coupled multiphysics framework that tackles this issue and present code-verification and convergence analyses in space and time for several models of nonlinear coupled physics
Current practices in the nuclear industry to model the transient behaviour of nuclear reactors are b...
Large-scale complex systems require high-fidelity models to capture the dynamics of the system accur...
Multiphysics problems are found in numerous areas of science and engineering. They can take the for...
The modeling of nuclear reactors involves the solution of a multi-physics problem with widely varyin...
International audienceMany problems of interest, particularly in the nuclear engineering field, invo...
Numerical simulation of nuclear reactors is a key technology in the quest for improvements in effici...
Traditionally, the complex coupled physical phenomena in nuclear reactors has resulted in them being...
We present novel coupling schemes for partitioned multiphysics simulation that combine four importan...
This paper describes an efficient and nonlinearly consistent parallel so-lution methodology for solv...
AbstractNumerical simulation of nuclear reactors is a key technology in the quest for improvements i...
In this study, we quantify both the spatial and temporal convergence behavior simultaneously for var...
The Lightweight Integrating Multi-physics Environment (LIME) is a software package for creating mult...
Understanding and optimizing the relation between nuclear reactor components or physical phenomena a...
As the use of computer simulation for scientific discovery increases there is a growing need for rel...
Computational scientists are grappling with increasingly complex, multi-rate applications that coupl...
Current practices in the nuclear industry to model the transient behaviour of nuclear reactors are b...
Large-scale complex systems require high-fidelity models to capture the dynamics of the system accur...
Multiphysics problems are found in numerous areas of science and engineering. They can take the for...
The modeling of nuclear reactors involves the solution of a multi-physics problem with widely varyin...
International audienceMany problems of interest, particularly in the nuclear engineering field, invo...
Numerical simulation of nuclear reactors is a key technology in the quest for improvements in effici...
Traditionally, the complex coupled physical phenomena in nuclear reactors has resulted in them being...
We present novel coupling schemes for partitioned multiphysics simulation that combine four importan...
This paper describes an efficient and nonlinearly consistent parallel so-lution methodology for solv...
AbstractNumerical simulation of nuclear reactors is a key technology in the quest for improvements i...
In this study, we quantify both the spatial and temporal convergence behavior simultaneously for var...
The Lightweight Integrating Multi-physics Environment (LIME) is a software package for creating mult...
Understanding and optimizing the relation between nuclear reactor components or physical phenomena a...
As the use of computer simulation for scientific discovery increases there is a growing need for rel...
Computational scientists are grappling with increasingly complex, multi-rate applications that coupl...
Current practices in the nuclear industry to model the transient behaviour of nuclear reactors are b...
Large-scale complex systems require high-fidelity models to capture the dynamics of the system accur...
Multiphysics problems are found in numerous areas of science and engineering. They can take the for...