Skip to main navigation
Skip to search
Skip to main content
Experts@Minnesota Home
Search content at Experts@Minnesota
Home
Profiles
Research units
University Assets
Projects and Grants
Research output
Datasets
Press/Media
Activities
Fellowships, Honors, and Prizes
Impacts
Numerical Methods for Mantle Convection
S. J. Zhong
, D. A. Yuen
, L. N. Moresi
, M. G. Knepley
Earth and Environmental Sciences-Twin Cities
Research output
:
Chapter in Book/Report/Conference proceeding
›
Chapter
19
Scopus citations
Overview
Fingerprint
Fingerprint
Dive into the research topics of 'Numerical Methods for Mantle Convection'. Together they form a unique fingerprint.
Sort by
Weight
Alphabetically
Keyphrases
Numerical Methods
100%
Mantle Convection
100%
Momentum Equation
100%
Exascale Computing
50%
Computational Fluid Dynamics
50%
Partial Differential Equations
50%
Finite Element
50%
Rheology
50%
Least Squares
50%
Mantle Dynamics
50%
Coupled System
50%
Galerkin Method
50%
Pressure Condition
50%
Mantle Rocks
50%
Finite Difference
50%
System of Equations
50%
Temperature Conditions
50%
Energy Equation
50%
Uzawa Method
50%
Computationally Intensive
50%
Schur Complement
50%
Discretization Method
50%
Finite Element Implementation
50%
Commutator
50%
Petrov-Galerkin
50%
Strongly Nonlinear
50%
Modern Techniques
50%
Elliptical Equation
50%
Massively Parallel Simulation
50%
Computational Library
50%
Engineering
Momentum Equation
100%
Numerical Methods
100%
Finite Element Analysis
100%
Rheology
50%
Computational Fluid Dynamics
50%
Streamlines
50%
Coupled System
50%
Energy Equation
50%
Schur Complement
50%
Commutator
50%
Partial Differential Equation
50%
Discretization
50%
Equation System
50%
Least Squares Method
50%
Mathematics
Finite Element Methods
100%
Momentum Equation
100%
Mathematical Method
100%
PDE
50%
Equation System
50%
Discretization
50%
Finite Difference Methods
50%
Streamlines
50%
Schur Complement
50%
Energy Equation
50%
Commutator
50%
Least Squares Method
50%
Physics
Mathematical Method
100%
Mantle Convection
100%
Finite Element Analysis
100%
Finite Difference Methods
50%
Computational Fluid Dynamics
50%
Least Squares Method
50%
Mantle Dynamics
50%
Rheology
50%
Partial Differential Equation
50%