Sentence examples for average pore density from inspiring English sources

GG MA hydrogels exhibited a three-dimensional open cell microstructure with an average pore size ranging from ∼10 to 55 μm and an average pore density of from ∼2.4 × 106 to 8.6 × 107 pores cm−3.

Although the relative contribution of these factors is unclear in this study, ultrastructural analysis of Ostreococcus has revealed the presence of nuclear pores in low number with an average pore density of 1 2 pores per nucleus [32] [34].

In contrast to qualitative analysis commonly found in the literature, we used quantitative methods of analysis to quantify average pore diameter and pore density from the morphology and structural parameters from X-ray diffraction (XRD) patterns using the Rietveld refinement.

The results showed that the produced scaffolds had an average pore size and density of 200 340 μm and 2.5 ± 0.3 1.8 ± 0.3 grespectivelyctively, depending on the diopside content.

Results indicate that the average pore size and density of as-synthesized carbon foams were about 150 μm and 800 kg/m3, respectively.

The input variables for these models are relative density, average pore diameter and cell anisotropy ratio.

The numerical results are presented in terms of the electrical potential difference versus the average pore radius and charge density.

It was found that the BET surface area, pore volume, average pore diameter, and bulk density of the CNS were 395 m2/g, 0.4732 cm3/g, 5.89 nm, and 0.415 g/cm3, respectively.

The most significant factor can be noted in Fig. 3, depicting the reduction of average pore diameter of membrane with high pore density, along with the increase of internal coagulant flow rates.

Alumina membranes (AAO template, Whatman) of high purity and uniform pore density, with average pore diameter ~150 nm and thickness ~60 μm, were employed for electrodeposition.

Comparison of ISEC and cryo-SEM results shows a considerable reduction in average pore size with increasing ligand density; these methods also confirm an increase of average pore size at higher ionic strengths.