Sentence examples for fluid behaviour from inspiring English sources

Differences in fluid behaviour at the macro and micro-scales are discussed.

Pore wetting is significant for understanding fluid behaviour in porous media.

Stress, in physical sciences and engineering, force per unit area within materials that arises from externally applied forces, uneven heating, or permanent deformation and that permits an accurate description and prediction of elastic, plastic, and fluid behaviour.

The discovery of the separated vortex ring provides evidence of the existence of a new class of fluid behaviour around fluid-immersed bodies that may underlie locomotion, weight reduction and particle retention in biological and manmade structures.

The model set forth herein features: compressible fluid behaviour, nonlinear flow rate-pressure relations, valve mechanical equations and rubber mounts.

This is because accurate predictions of the fluid behaviour are strongly dependent on the inflow conditions, particularly in turbulent flows at high turbulent Reynolds numbers.

The results presented herein encompass the following ranges of conditions: 10≤Gr≤107; 0.72≤Pr≤100 and 0.4≤n≤1.8 thereby covering both shear-thinning and shear-thickening types of fluid behaviours.

However, relating the two measures was informative in characterising repellency across materials and at different sites, while preserving temporal differences in fluid behaviours.

All in all, the present results encompass wide ranges of conditions as follows: Reynolds number: 1 500; Peclet number: 1 500; bed voidage: 0.4 0.8 and the flow behaviour index: 0.5 1.8 thereby covering extremely shear-thinning and shear-thickening types of fluid behaviours.

As a result, it is only suitable to simulate fluid behaviours at the nanoscale owing to the limitation of computation cost (Zhao et al. 2016).

The results predict the thermal-fluid behaviour of TES tank.