Sentence examples for behaviour of the engineering from inspiring English sources

The random fields are widely used in the literature to include the random spatial variability of material properties, geometrical dimensions and loads into the mathematical models describing the behaviour of the engineering structures.

This means that a specific TTT-diagram is required to describe the behaviour of these engineering components.

The promising features and the applications of the proposed formulation for describing the behaviour of different engineering materials are discussed in details.

The above categories cover the behaviour of most engineering and naturally occurring materials, although it may sometimes be difficult to place a given substance in any one category.

The behaviour of civil engineering works (structures, buildings, dams, etc). in time is a current problem which is the subject of deep consideration and numerous research projects.

This relies on the Williams wedge analysis and permits: (a) the response of any prototype of complex geometry to be predicted, including the amount of fretting damage likely to be experienced and (b) the fretting fatigue strength measured in a simple laboratory experiment to be used to predict, reliably, the behaviour of any engineering component.

It is well known that the macroscopic behaviour of many engineering materials is strongly affected by the role of underlying microstructure.

It is well known that interfaces usually play a major role in the definition of the mechanical behaviour of engineering structures having interactions with the soil.

Results of studies on the thermomechanical fatigue (TMF) behaviour of metallic engineering materials are presented showing the effect of laboratory air as compared to high vacuum.

In order to model accurately the structural behaviour of complex engineering structures numerical techniques are required.

Surface phenomena play a decisive role in the behaviour of engineering parts; their understanding and control are fundamental to the development of many advanced fields, such as: electronics, information technology, energy, optics, tribology, biology and biomimetics.