Sentence examples for modeling of damaged from inspiring English sources

The methodology proposed has been validated through a simple example which illustrates the exploitability of the method in relation to the modeling of damaged composite structures.

The tremendous time-consuming computational work needed for calculating the response data to establish the dynamic model of damaged structures is an important issue for dynamic damage detection.

This paper deals with the modeling of damage in laminates under dynamic loading.

The methodology undertaken consists of firstly, the numerical modeling of damage development in the FRP composite laminate.

Also, a general thermodynamic framework for constitutive modeling of damage and micro-damage healing mechanisms is presented.

However, this concept is especially powerful when extended to the modeling of damage and delamination in fibre-reinforced composite laminates.

The above advantages lend to their promising use in the modeling of damage induced anisotropy and MCR effects simultaneously.

This paper is about the modeling of damage and residual stresses induced by a complex history of thermo-elasto-plastic multiphase in welding heat affected zone (HAZ).

Despite the substantial and noteworthy contributions, the modeling of damage induced anisotropy remains an unsolved issue, especially when the microcrack closure-reopening (MCR) effects are accounted for.

The essence of science based probability modeling of damage, evolution, and distribution is the formulation of a time dependent damage function that captures its functional dependence on all of the key internal and external variables, and their variability.

This chapter focuses on the need for science based probability modeling of damage evolution, and distribution for use in life cycle engineering and management (LCEM) of modem, high value-added engineered systems.