Sentence examples for development of turbulence from inspiring English sources

Laneway supports can promote the development of turbulence and explosion, and also inhibit the propagation of flame and shock wave.

When the simulation starts, the total cell number increases rapidly due to development of turbulence in the torus which is triggering higher refinement.

Computational fluid mechanics, more powerful computing systems, and the development of turbulence models, have all greatly helped in the development of Engineering Process Metallurgy.

Circular fins were also inserted inside the heat exchanger with the purpose of increasing the heat exchange surface and facilitating the development of turbulence that can determine greater convective heat transfer coefficients, especially in the case of using a compressible fluid.

The main differences are (i) the development of turbulence above the canopy occurring closer to the edge, (ii) the absence of a well-defined enhanced gust zone around the top of the canopy, (iii) the presence of a large secondary wind maximum within the trunk space, and (iv) the development of a positive momentum flux layer below the crown layer.

The extended region of high turbulence can also be optimized for the specific application at hand by changing certain parameters of the grid which makes it possible to design the downstream development of the turbulence field.

The present paper deals with development of the synthetic turbulence inflow boundary condition (STIBC) to predict inflow broadband noise generated by interaction between turbulence and an airfoil/a cascade of airfoils in the time-domain.

The development of small scale turbulence by the MRI is clearly captured and it leads to similar mass accretion onto the BH. Figure 19 Evolution of the 2D torus runs with AMR.

This paper aims to show in what way Kampé de Fériet's approach to fluid mechanics enabled him to contribute to the international development of the statistical theory of turbulence during the interwar period.

Finally, the development of a continuous adjoint turbulence model [9] now allows to run topology optimisation for turbulent Navier-Stokes flows under full consideration of variations in the turbulence fields [13].

This rich dataset will also contribute to the development of a numerical turbulence model, to investigate turbulence effects on bubble size distribution and predict the rate of air entrainment and the oxygen transfer occurring in the wake at different hydrodynamic conditions.