Analysis of a multilevel iterative method for nonlinear finite element equations
Randolph E. Bank, Donald J. Rose
Abstract
Open-access reader
Randolph E. Bank, Donald J. Rose
Abstract
Open-access reader
The multilevel iterative technique is a powerful technique for solving the systems of equations associated with discretized partial differential equations. We describe how this technique can be combined with a globally convergent approximate Newton method to solve nonlinear partial differential equations. We show that asymptotically only one Newton iteration per level is required; thus the complexity for linear and nonlinear problems is essentially equal.
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The multilevel iterative technique is a powerful technique for solving the systems of equations associated with discretized partial differential equations. We describe how this technique can be combined with a globally convergent approximate Newton method to solve nonlinear partial differential equations. We show that asymptotically only one Newton iteration per level is required; thus the complexity for linear and nonlinear problems is essentially equal.
Key concepts: Mathematics, Nonlinear system, Partial differential equation, Discretization, Iterative method, Finite element method, Numerical partial differential equations, Applied mathematics