Sentence examples for the structure was achieved from inspiring English sources

Yakimets et al. [21] studied how water interacts with gelatine and reported that for gelatine type B with a high bloom index (225) a complete monolayer of water on the structure was achieved at 14% water content.

The assessment of the structure was achieved by a combination of ground-penetrating radar (GPR) and gammagraphic techniques, followed by some windowing for the location and evaluation of post-tensioned cables.

It is shown that the one-mode model is able to predict the sloshing force and the damped structural response accurately, since the primary damping effect on the structure is achieved by the first sloshing mode of the fluid.

As demonstrated by the figure, in case the TMD is used, the steady state of the structure is achieved after 2500 s.

The proposed Extended ALE Method relies on a variational mesh optimization technique, where mesh alignment with the structure is achieved via a constraint.

For a convex loss function, the minimization of the empirical risk within the element S p of the structure is achieved through the minimization of [29]: Eleft( w,{gamma}_pright) = frac{1}{l}{displaystyle {sum}_1^l} Lleft {y}_i, fleft({x}_i, wright)right)+{gamma}_pleft|left| wright|right|^2 (10).

In the present study, symmetry of the structure is achieved by shifting the center of mass of the proof mass toward the beam plane by selectively electroplating a 20 μm thick gold layer atop the proof mass and simultaneously reducing the silicon thickness from backside of the proof mass surface.

The rigidity of the structure is achieved by a dense cluster of hydrophobic interactions among the last arm motif H3 helix and CTD helices 1, 2, 4 and 5, forming a tightly packed base for the CTD (Fig. 3A).

Control of the growth stability of the nanocolumnar structure was achieved in the presence of a suitable concentration of a surfactant.

The hexameric structure was achieved in the same manner.

After conclusive proof of the lattice structure was achieved in 1912 by the X-ray diffraction experiments of Max von Laue, Friedel showed that, because the X-ray diffraction pattern is always symmetric, it is impossible (except under special circumstances) to determine whether the crystal actually has a centre of symmetry and that only 11 different types of crystal symmetry can be distinguished.