Sentence examples for defects incorporated from inspiring English sources

The defects incorporated into the coating were studied by four techniques: top view conventional and field-emission SEM, cross-section SEM, AFM and stylus profilometry.

Our observations so far indicate isothermal growth of h-BN on Cu with initial monolayer nucleation (which then evolve toward few-layer h-BN) with a small amount of defects incorporated in the h-BN films (lattice, edges, grain boundaries).

Comparison of spectra for enstatite synthesized over the same temperature interval but with different thermal regimes (e.g., Cl-19 vs. Cl-20; Cl-21 vs. Cl-9) show no significant difference in OH defect population confirming that crystal growth rate does not have a significant effect on the concentration of OH defects incorporated into synthetic enstatite (Grant et al., 2006).

In rabbit chondral defects, PRP incorporated in poly(lactic-co-glycolic acid) (PLGA) successfully improved the healing [ 114], while, in sheep and goat osteochondral defects, PRP with collagen-HA scaffolds or demineralized bone matrix did not improve or even decreased the healing [ 115, 116].

Female flies homozygous for the null allele of Hira are sterile due to a defect in incorporated sperm nucleus decondensation [17], [18].

The sudden reduction in scattering intensity, particularly of the Eg mode, may be due to the breakdown of long-range translational crystal symmetry caused by the incorporated defects.

Given the small number of hmdb compounds with high mass defects, we also incorporated an "inclusion list" into our model (Additional file 2: Table S2).

The magnitude of the lamellar stack length however is grossly underestimated due to a large number of incorporated defects in the lamellar structure.

This work not only helps to understand the electrocatalytic influence of the co-generated MoO3 species in MoS2, but also presents a methodological improvement in designing defect-rich, oxygen incorporated and holey MoS2 nanosheets for highly efficient hydrogen evolution.

We show the presence of two distinct growth phenomena, a 'classical' one, around 450 °C, where carbon is mainly substitutionally incorporated, defect free until 2%; and a second one, above 550 °C, showing an agglomeration of carbon in thin layers with presumably a very high local concentration, without any planar defects.

These abnormal crystallographic features are assumed to result from lattice defects caused by OH incorporated in perovskite lattice as well as the grain growth in BaTiO3 particles.