The potential advantages and related costs of using second-order functional mesh discretization derivatives for error estimation in adaptive finite element analysis (FEA) for electromagnetics are investigated. Second-order indicators are proposed to identify and stabilize erroneous first-order error distributions that arise in unbalanced discretization regions. Effective combined derivative estimators are introduced and evaluated in practical applications
We present a general paradigm for a posteriori error control and adaptive mesh design in finite elem...
A residual type error estimator for nonlinear finite element analysis is introduced. This error esti...
A residual type error estimator for nonlinear finite element analysis is introduced. This error esti...
Efficient functional derivative formulas suitable for optimal discretization based refinement criter...
The paper gives a simple numerical procedure for computations of errors generated by the discretisat...
Two main ingredients are needed for adaptive finite element computations. First, the error of a give...
Two main ingredients are needed for adaptive finite element computations. First, the error of a give...
Two main ingredients are needed for adaptive finite element computations. First, the error of a give...
An adaptive strategy for nonlinear finite-element analysis, based on the combination of error estima...
An adaptive strategy for nonlinear finite-element analysis, based on the combination of error estima...
An a posteriori error estimate method, the element residual method (ERM), was investigated, and used...
One of the primary objectives of adaptive finite element analysis research is to determine how to ef...
A refined approach to residual-based error control in finite element (FE) discretizations is present...
The objective of this dissertation is to develop a reliable and computationally inexpensive adaptive...
A posteriori error estimates in each subdomain of a finite element tessellation provide the main ing...
We present a general paradigm for a posteriori error control and adaptive mesh design in finite elem...
A residual type error estimator for nonlinear finite element analysis is introduced. This error esti...
A residual type error estimator for nonlinear finite element analysis is introduced. This error esti...
Efficient functional derivative formulas suitable for optimal discretization based refinement criter...
The paper gives a simple numerical procedure for computations of errors generated by the discretisat...
Two main ingredients are needed for adaptive finite element computations. First, the error of a give...
Two main ingredients are needed for adaptive finite element computations. First, the error of a give...
Two main ingredients are needed for adaptive finite element computations. First, the error of a give...
An adaptive strategy for nonlinear finite-element analysis, based on the combination of error estima...
An adaptive strategy for nonlinear finite-element analysis, based on the combination of error estima...
An a posteriori error estimate method, the element residual method (ERM), was investigated, and used...
One of the primary objectives of adaptive finite element analysis research is to determine how to ef...
A refined approach to residual-based error control in finite element (FE) discretizations is present...
The objective of this dissertation is to develop a reliable and computationally inexpensive adaptive...
A posteriori error estimates in each subdomain of a finite element tessellation provide the main ing...
We present a general paradigm for a posteriori error control and adaptive mesh design in finite elem...
A residual type error estimator for nonlinear finite element analysis is introduced. This error esti...
A residual type error estimator for nonlinear finite element analysis is introduced. This error esti...