Sentence examples for elements models based from inspiring English sources

Smeared crack finite elements models, based on the assumption of homogenised media and spread plasticity, fail to rigorously predict the actual collapse behaviour of such structures, that are generally governed by rocking and sliding mechanisms along mortar joints between stone blocks.

The theoretical beam model is fitted on the results from a 2D Finite Elements model based on plane elements via an extensive parametric analysis.

Refined finite element models based on equivalent single layer high-order shear deformation theories are used.

Furthermore, the load-slip characteristic of headed stud shear connectors was incorporated in the finite element models based on previous experimental and numerical investigations conducted by the author.

Measurements after construction of footbridges have shown that it is difficult to accurately predict these modal parameters even with detailed finite element models based on structural drawings.

A direct method based on X-ray tomography imaging is introduced to determine finite element models based on the real geometry of 3D composite reinforcements.

These behaviors are analyzed using meso-scale, finite-element models based on rigorous formulations of coupled equations for continuum transport and interfacial phenomena.

To achieve this goal we also use a set of finite element models based on higher order shear deformation theories and also on first order theory.

The present paper presents a direct method using computed tomography to determine finite element models based on the real geometry of the textile reinforcement.

Finite element models based on Biot's {u,P} formulation for poroelastic materials are widely used to predict the behaviour of structures involving porous media.

In structural engineering, model updating is often used for non-destructive damage assessment: by calibrating stiffness parameters of finite element models based on experimentally obtained (modal) data, structural damage can be identified, quantified and located.