N ion Implantation in Ti 47Al 2Nb 2Cr intermetallic alloy has been investigated for surface-nitriding treatment to modify tribology and high-temperature oxidation properties of the material.
The energetic stability, structure, and dispersion of the electronic states were investigated for full surface passivation of the dangling bonds with H and, as a first model of surface oxidation, for surfaces created by replacing H with O atoms in certain positions at the pore surface.
To illustrate the utility of the approach, the crack initiation risk in a stick slip (fretting) contact is investigated for different surface roughness values.
As shown in the inset of Figure 6, the maximum limitation in light output power was also investigated for different surface coverage and rod lengths.
Thus samples treated with 2.0 J/cm2, and 2.5 J/cm2 doses of UV irradiation were further investigated for their surface chemical reactivity and are denoted as CPMV-UV2.0 and CPMV-UV2.5 respectively for the remainder of the study.
Three cell lines demonstrating high (MED1), intermediate (DAOY) and low (MED3) ABCB1 expression were further investigated for cell surface expression and function of ABCB1 by flow cytometry and compared to HEK-B1 cells stably expressing ABCB1.
However, modeling interactions between surfaces need to be investigated for various surfaces, various terrain profiles, and various operation conditions of the vehicle.
In this study, experimental and simulated (with HYDRUS (2D/3D)) soil wetting patterns were investigated for sub-surface pipe systems operating at different water pressures.
Plasma sprayed hydroxyapatite (HA) coatings have been widely investigated for application on surface of biomedical metals to improve bonding and interaction between body tissues and implant.
Three types of surface properties are investigated for the nanoparticles through surface grafting.
