Because of the nonlinear behaviour of the material and the highly dynamical performance an incremental procedure including iterative methods is used.
Implemented in the computer code PULS, developed at Det Norske Veritas, local and global stresses are combined in an incremental procedure.
This paper describes the formulation and numerical implementation of an incremental procedure for fatigue crack growth simulation applied to three-dimensional thermoelasticity using the dual boundary element method.
The only difference is that the method of Silfwerbrand is a one-step calculation i.e. a single stress value is calculated based on the final shrinkage whereas the method of Carlsward is an incremental procedure.
We propose here an incremental procedure for Growing Support Vector Classifiers, which serves to avoid an a priori architecture estimation or the application of a pruning mechanism after SVM training.
Analysis-oriented models generally use an incremental procedure for plotting the entire stress strain response while design-oriented models predict the load-carrying and deformation capacities of the column with closed form expressions.
